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I EC 62386-1 02 ®
Edition 2.1 201 8-09
FI N AL VE R SI ON
VE R SI ON FI N ALE
colour i n si de
Di g i tal ad d ressabl e l i g h ti n g i n terface – Part 1 02: G en eral req u i rem en ts – Con tro l g ear
I n terface d ’ écl ai rag e ad ressabl e n u m éri q u e –
IEC 62386-1 02:201 4-1 1 +AMD1 :201 8-09 CSV(en-fr)
Parti e 1 02: E xi g en ces g én éral es – Apparei l l ag es d e com m an d e
– 2
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
C O N TE N TS
F O R E WO R D . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7
I N TR OD U C TI ON . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9
1
S co pe . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 1
2
N o rm a t i ve
3
Te rm s
4
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 4
re fe re n ce s
an d
.................................................................................................. 1 1
d e fi n i ti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 1
4. 1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 4
4. 2
V e rs i o n
n u m ber. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 4
5
E l e ctri cal
s pe ci fi cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
6
I n te rface
p o we r s u p p l y . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7
Tran s m i s s i o n
p ro to co l
s tru ctu re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 2
1 6
b i t fo rward
7. 2. 1
fram e
e n co d i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 2. 2
Ad d re s s
b yte . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 2. 3
O pco d e
b yte . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
8
Ti m i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9
M e th o d
o f o p e rati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 2
C o n tro l
g e ar . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 2. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 2. 2
C o n tro l
g e ar p h as e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 3
Dimming
9. 4
C al cu l ati n g
cu rve . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 7
9. 5
F ad i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 0
“targetLevel”
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20
9. 5. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 0
9. 5. 2
Fad e
ti m e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 1
9. 5. 3
Fad e
ra te . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 3
9. 5. 4
E xte n d e d
fad e
ti m e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 3
9. 5. 5
U sing
th e
fad e
ti m e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 5
9. 5. 6
U sing
th e
fad e
rate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 5
9. 5. 7
S ys te m
re s p o n s e
to
ch an g e s
d u ri n g
a fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
9. 5. 8
S ys te m
re s p o n s e
to
ch an g e s
d u ri n g
s tan d b y an d
9. 5. 9
Stoppi n g an d
m ax
s tartu p . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
a fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
9. 6
Min
l e ve l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
9. 7
C o m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 7
9. 7. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 7
9. 7. 2
L e ve l
i n s tru cti o n s
wi th o u t fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
i n s tru cti o n s
i n i ti ati n g
9. 7. 3
L e ve l
9. 7. 4
C o n fi g u rati o n
9. 7. 5
Q u e ri e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
9. 7. 6
S p e ci al
9. 7. 7
Ap p l i cati o n
9. 8 9. 8. 1
C o m m an d
a fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
i n s tru cti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8 e xte n d e d
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
i te ra ti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 3
–
201 8
C o m m an d
9. 8. 2 9. 8. 3 9. 9
D AP C M od es
i te rati o n
SEQU EN CE
o f o p e ra t i o n
o f “U P ” an d
“ D O WN ”
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 9
( d e p re cate d ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 9
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30
9. 9. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
9. 9. 2
O p e rati n g
mode
0 x00 :
9. 9. 3
O p e rati n g
mode
0 x01
to
0 x7F:
re s e rve d . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
O p e rati n g
mode
0 x80
to
0 xFF:
m an u fac tu re r s p e ci fi c
9. 9. 4 9. 1 0
s ta n d a rd
m ode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30
m odes . . . . . . . . . . . . . . . . . . . . . . . . . 30
M e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
9. 1 0. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
9. 1 0. 2
M e m o ry m ap . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 1
9. 1 0. 3
Se l ecti n g
9. 1 0. 4
M e m o ry b an k re ad i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 2
9. 1 0. 5
M e m o ry b an k wri ti n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 2
9. 1 0. 6
M e m o ry b an k 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 3
9. 1 0. 7
M e m o ry b an k 1
9. 1 0. 8
M a n u f a c t u r e r s p e c i f i c m e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 0. 9
R e s e r ve d
9. 1 1
a m e m o ry b an k l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 2
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 35
m e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
Reset . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 37
9. 1 1 . 1
R e s e t o p e rati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 1 . 2
R e s e t m e m o ry b an k o p e ra ti o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 2
S ys te m
9. 1 3
P o we r o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 8
fai l u re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 4
As s i g n i n g
s h o rt a d d re s s e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
9. 1 4. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
9. 1 4. 2
Ran d o m
9. 1 4. 3
I d e n ti fi c ati o n
9. 1 4. 4
D i re c t ad d re s s
9. 1 5
F ai l u re
9. 1 6
S tatu s
s tate
ad d re s s
al l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
o f a d e vi ce
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 40
al l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
b e h avi o u r . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
i n fo rm at i o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
9. 1 6. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
9. 1 6. 2
Bi t 0:
C o n tro l
9. 1 6. 3
Bi t 1 :
l am p
fai l u re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 2
9. 1 6. 4
Bi t 2:
l am p
on
9. 1 6. 5
Bi t 3:
l i m i t e rro r . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 4
9. 1 6. 6
Bi t 4:
fad e
9. 1 6. 7
Bi t 5:
re s e t s tate
9. 1 6. 8
Bi t 6:
m i ssi n g
9. 1 6. 9
Bi t 7:
po we r cycl e
g e ar fa i l u re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
ru n n i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 4 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
s h o rt a d d re s s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 4 seen . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
9. 1 7
N o n - vo l a ti l e
9. 1 8
D e vi ce
m e m o ry . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 5
9. 1 9
U sing
scen es . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46
1 0
D e c l ara ti o n
o f vari ab l e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 7
1 1
D e fi n i ti o n
type s
an d
fe a tu re s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 5
o f co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 9
1 1 .1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 9
1 1 .2
O ve rvi e w s h e e ts . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 9
1 1 .3
L e ve l
i n s tru ct i o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 4 (
level)
1 1 .3.1
D AP C
1 1 .3.2
OFF . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 4
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
1 1 .3.3
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
– 4
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
1 1 . 3. 4
D O WN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 4
1 1 .3.5
S TE P
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
1 1 .3.6
S TE P
D O WN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 5
1 1 .3.7
R E C ALL
M AX LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 5
1 1 .3.8
R E C ALL
MIN
1 1 .3.9
S TE P
1 1 .3.1 0
ON
1 1 .3.1 1
E N AB L E
1 1 .3.1 2
GO
1 1 .3.1 4
C ON TI N U OU S
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57
1 1 .3.1 5
C ON TI N U OU S
D O WN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
1 1 .3.1 3
GO
1 1 .4
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 5
D O WN
AN D
TO
TO
AN D
S TE P
OFF . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 6
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56
D AP C
SEQU EN CE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56
L AS T AC TI VE
SCEN E
C o n fi g u rati o n
(
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
sceneNumber)
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57
i n s tru cti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
1 1 . 4. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
1 1 . 4. 2
RESET . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57
1 1 . 4. 3
S TOR E
1 1 . 4. 4
S AVE
1 1 . 4. 5
S E T O P E R AT I N G
1 1 . 4. 6
R E S E T M E M O R Y B AN K (
1 1 . 4. 7
I D E N TI FY D E VI C E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 9
AC TU AL LE VE L I N
M OD E
DTR0)
1 1 . 4. 8
S E T M AX LE VE L (
1 1 . 4. 9
SET MI N
1 1 . 4. 1 0
S E T S YS T E M
1 1 . 4. 1 1
S E T P O WE R
1 1 . 4. 1 2
S E T F AD E
TI M E
1 1 . 4. 1 3
S E T F AD E
R AT E
1 1 . 4. 1 4
S E T E XTE N D E D
1 1 . 4. 1 5
SET SCEN E
1 1 . 4. 1 6
R E M OVE
1 1 . 4. 1 7
AD D
1 1 . 4. 1 8
R E M OVE
1 1 . 4. 1 9
S E T S H O R T AD D R E S S
1 1 . 4. 20
E N AB L E
1 1 .5
D TR 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 8
P E R S I S TE N T V AR I AB L E S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 8
TO
LE VE L (
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 58
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 58
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59
LE VE L (
DTR0)
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
LE VE L ( (
DTR0)
DTR0)
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59
F AI LU R E ON
(
DTR0)
(
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
(
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
F AD E
TI M E
(
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
DTR0, sceneX) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1
FROM
SCEN E
G ROU P FROM
WR I TE
(
group )
(
sceneX) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 61
G ROU P (
(
group ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
M EM ORY. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
Q u e ri e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 2
Q U E R Y S T ATU S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 3
Q U E R Y C O N TR O L G E AR
PRESEN T . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
1 1 . 5. 4
Q U E R Y C O N TR O L G E AR
F AI LU R E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 5
Q U E R Y L AM P
F AI LU R E
1 1 . 5. 6
Q U E R Y L AM P
P OWE R
1 1 . 5. 7
QU ERY LI M I T ERR OR . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63
1 1 . 5. 8
Q U E R Y R E S E T S TATE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3
1 1 . 5. 9
QU ERY M I SSI N G
1 1 . 5. 1 0
QU E R Y VE R S I ON
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
ON . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
S H O R T AD D R E S S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3 N U M BER . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63
1 1 . 5. 1 1
Q U E R Y C O N TE N T D TR 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3
1 1 . 5. 1 2
QU E R Y D E VI C E
TYP E
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63
1 1 . 5. 1 3
QU E R Y N E XT D E VI C E
T YP E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3
1 1 . 5. 1 4
Q U E R Y P H YS I C AL M I N I M U M . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
1 1 . 5. 1 5
QU E R Y P OWE R
F AI LU R E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
1 1 . 5. 1 6
– 5
–
Q U E R Y C O N TE N T D TR 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
1 1 . 5. 1 7
Q U E R Y C O N TE N T D TR 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
1 1 . 5. 1 8
Q U E R Y O P E R AT I N G
1 1 . 5. 1 9
QU ERY LI G H T SOU RCE
1 1 . 5. 20
Q U E R Y AC TU AL L E VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5
1 1 . 5. 21
Q U E R Y M AX L E VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5
1 1 . 5. 22
QU ERY M I N
1 1 . 5. 23
QU E R Y P OWE R
1 1 . 5. 24
Q U E R Y S YS T E M
M OD E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64 T YP E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5 ON
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5
FAI LU R E
1 1 . 5. 25
Q U E R Y F AD E
1 1 . 5. 26
Q U E R Y E XTE N D E D
1 1 . 5. 27
Q U E R Y M AN U F AC TU R E R
T I M E /F A D E F AD E
LE VE L (
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65 R ATE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5 TI M E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5 SPECI FI C
M OD E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65
sceneX
1 1 . 5. 28
QU ERY SCE N E
1 1 . 5. 29
QU ERY G ROU PS
0-7 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
1 1 . 5. 30
QU ERY G ROU PS
8-1 5
1 1 . 5. 31
Q U E R Y R AN D O M
AD D R E S S
(H ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
1 1 . 5. 32
Q U E R Y R AN D O M
AD D R E S S
(M ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
1 1 . 5. 33
Q U E R Y R AN D O M
AD D R E S S
1 1 . 5. 34
R E AD
1 1 .6
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
M E M O R Y LO C ATI O N
Appl i cati o n
exten d ed
(L) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 6
(
DTR1 , DTR0
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
co m m an d s. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 6
1 1 . 6. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 6
1 1 . 6. 2
Q U E R Y E XTE N D E D
1 1 .7
1 2
CSV
201 8
S pe ci al
VE R S I ON
N U M BER . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
1 1 . 7. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
1 1 . 7. 2
TE R M I N ATE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
1 1 . 7. 3
D TR 0
1 1 . 7. 4
I N I TI ALI S E
1 1 . 7. 5
R AN D O M I S E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 8
1 1 . 7. 6
C O M P AR E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 8
1 1 . 7. 7
WI TH D R AW . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 8
1 1 . 7. 8
S E AR C H AD D R H
1 1 . 7. 9
S E AR C H AD D R M
1 1 . 7. 1 0
S E AR C H AD D R L
1 1 . 7. 1 1
P R OG R AM
1 1 . 7. 1 2
VE R I F Y S H O R T AD D R E S S
1 1 . 7. 1 3
Q U E R Y S H O R T AD D R E S S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 9
(
data
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67 (
device
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67
data data data
(
)
( (
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
data data
S H O R T AD D R E S S
D E VI C E
(
data
(
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
1 1 . 7. 1 4
E N AB L E
1 1 . 7. 1 5
D TR 1
(
1 1 . 7. 1 6
D TR 2
(
1 1 . 7. 1 7
WR I TE
M E M OR Y LOC ATI ON
(
1 1 . 7. 1 8
WR I TE
M E M OR Y LOC ATI ON
– NO
1 1 . 7. 1 9
PI N G . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 71
data data
T YP E
(
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70 ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70
DTR1 , DTR0, data DTR1 , DTR0, data
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70
R E PLY (
) . . . . . . . . . . . . . . . . . . . . . 71
Te s t p ro ce d u re s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 1
Vo i d
An n e x
A ( i n fo rm a t i ve )
A. 1
Ran d o m
A. 2
On e
A. 3
U sing
An n e x B
E xam pl e s
ad d re s s
sing le
( n o rm a t i ve )
al l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 2
co n tro l
ap p l i cati o n High
o f al g o ri th m s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 2
g ear co n n e cte d
e xte n d e d
re s o l u ti o n
to
th e
co n tro l
d e vi ce . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 2
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73 di mm er . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 74
– 6
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
B i b l i o g ra p h y . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 6
F i g u re
1
– IEC
62386
F i g u re
2
– C o n tro l
F i g u re
3
– Dimming
F i g u re
4
– Le ve l
F i g u re
5
– Ti m i n g
F i g u re
1 1
F i g u re
B. 1
g rap h i cal
o ve rvi e w . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9
g e ar d i re c t l y o p e rat i n g
cu rve . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 8
o ve r t i m e ,
an d
fad i n g
re s p o n s e
– C o rre l a ti o n
– Le ve l
a l i g h t s o u rce . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
an d
wh e n
b e twe e n
b e h avi o u r i n
up
“
e xe cu ti n g
lampFailure
case s
fram e
d o wn . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 1
”,
“
co m m an d
lampOn
o f o ff- g ri d
”,
s tarti n g
i te ra ti o n
an d
“
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29
fadeRunning
”
bi ts . . . . . . . . . . . . . . . . . . . 4 3
po i n ts . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 5
Tab l e
1
– 1 6 - bi t co m m an d
e n co d i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
Tab l e
2
– Dimming
c u rve
Tab l e
3
– Dimming
c u rve . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 9
Tab l e
4
– Fad e
ti m e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 2
Tab l e
5
– Fad e
rate s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 3
Tab l e
6
– E xte n d e d
fad e
ti m e
– bas e
Tab l e
7
– E xte n d e d
fad e
ti m e
– m u l ti pl i er . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 4
Tab l e
8
– B as i c m e m o ry m ap
Tab l e
9
– M e m o ry m ap o f m e m o ry ban k 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 3
Tab l e
1 0
– M e m o ry m ap
Tab l e
1 1
– P o we r o n
Tab l e
1 2
– C o n tro l
Tab l e
1 3
– S ce n es . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46
Tab l e
1 4
– D e c l a ra t i o n
Tab l e
1 5
– S tan d ard
Tab l e
1 6
– S pe ci al
Tab l e
1 7
– Li g h t s o u rc e
Tab l e
1 8
– D e vi ce
to l e ran ce
(%,
ro u n d e d
to
two
d eci m al s) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 8
val u e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 4
o f m e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 1
o f m e m o ry b an k 1
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 36
ti m i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
g e ar s tatu s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
o f vari ab l e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 7
com m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 49
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 3
typ e
en cod i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64
ad d re s s i n g
wi th
“ I N I TI ALI S E ” . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 7
–
201 8
I N TE R N ATI O N AL E L E C TR O TE C H N I C AL C O M M I S S I O N
____________
DIGITAL ADDRESSABLE LIGHTING INTERFACE – Part 1 02: General requirements – Control gear F O R E WO R D
1 )
Th e
I n te rn ati o n al
al l
n ati on al
i n te rn ati o n al th i s
end
co - o p e rati o n
an d
Te ch n i cal
in
ad d i ti o n
R e po rts ,
P u b l i cati o n (s ) ”) . in
th e
su bj ect
g o ve rn m e n t al wi t h
2)
th e
d e al t
b e twe e n
Th e
d eci s i o n s
i n te re s te d
IEC
in
P u bl i cati o n s
is
o rd e r
to
b e t we e n th e
5)
an y
I EC
i ts el f
does
ass e ss m e n t s e rvi c e s
Al l
7)
No
IEC
wi t h
in
th e
fo r
to
pu bl i sh es
th i s
an d
(I SO)
in
in
for
s tan d ard i z ati o n
o bj ect
of
e l e c tri c al
S tan d ard s ,
an y
wo rk.
p arti ci p ate
S tan d ard i z ati o n
th e
G u i des
co m m i ttees ;
p re p arato ry
al s o
in
Th e
I n t e rn ati o n al
( P AS )
te ch n i cal
IEC
o rg an i z ati o n
Co m m i ttees ) .
s tan d ard i z ati o n
S pe ci fi cati o n s
p arti ci pate
an d
( h e re afte r
IEC
wi th
co m p ri s i n g to
fi e l d s .
To
S p e ci fi cati o n s , to
Co m m i tte e
g o ve rn m e n t al IEC
p ro m o t e
e l e c t ro n i c
re f e rre d
N ati o n al
p re p a ra ti o n .
a cc o rd an c e
is
Te ch n i cal
I n te rn ati o n al ,
th i s
IEC
as
an d
co l l abo rate s
co n d i ti o n s
“I EC
i n te re s te d non -
cl os el y
d e te rm i n e d
by
o rg an i z ati o n s .
th e
of
IEC
re l e van t
th e
fo rm
of
Wh i l e
on
te ch n i cal
s u bj e cts
si n ce
I EC
en d
re c o m m e n d a t i o n s
al l
re a s o n ab l e
can n o t
m a tte rs e ach
e xp re s s ,
te ch n i cal
as
n e arl y
as
co m m i ttee
possi bl e,
h as
an
i n te rn ati o n al
re p re s e n tati o n
fro m
al l
be
h el d
fo r
e ffo rts
i n te rn ati o n a l
are
m ad e
re s p o n s i b l e
for
to
th e
u se
an d
e n s u re wa y
are
th at
in
acce pte d
th e
wh i ch
by
tech n i cal
th e y
are
IEC
N ati o n al
co n ten t
u sed
or
of
IEC
fo r
an y
u s e r.
i n te rn a ti o n a l
th e
wo rl d wi d e
m axi m u m
P u bl i cati o n
u n i fo rm i t y,
exten t
an d
th e
IEC
possi bl e
N ati o n al
in
th ei r
co rre s po n d i n g
C o m m i tte e s
n ati on al
n ati o n al
or
an d
u n d e rt ake
re g i o n al
re g i o n al
to
appl y
IEC
p u bl i cati o n s .
pu bl i cati o n
s h al l
be
P u bl i cati o n s
An y
d i ve rg e n ce
c l e a rl y
i n d i cate d
in
l atte r.
IEC
6)
to
a
Co m m i ttee s.
an y
p ro m o t e
tran s p a re n tl y
is
N ati o n al
c o n ce rn i n g
e n tru s te d
l i ai si n g
sen se.
by
is
a g re e m e n ts
on
accu rate ,
m i s i n te rp re t ati o n
In
m ay
t wo
or
h ave
th at
Avai l abl e
(I EC)
(I EC
acti vi ti e s ,
Org an i z ati o n
th e
N ati o n al
P u bl i cati on s
Co m m i tte es
4)
wi th
opi n i on
IEC
q u es ti o n s
oth er
o rg an i z ati o n s
of
al l
p re p a ra t i o n
I n te rn at i o n al
fo rm al
on to
Com mi ssi on
co m m i ttees
P u bl i cl y
Th e i r
ag re e m e n t
con sen su s
3)
E l e ctro te ch n i cal
e l e ctro te ch n i cal
c a rri e d
u s e rs
m e m b e rs
i ts
d am ag e
e xp e n s es
an d ,
by
attach
th at
to
tech n i cal of
an y
a ri s i n g
ou t
an y
in
atte s tati o n
some
a re as ,
i n d epen d en t
e n s u re
s h al l
of
p ro vi d e
out
should
l i abi l i ty
o th er
not
s e rvi ce s
th ey
IEC
or
c o n fo rm i ty.
ce rti fi cati o n
h ave
i ts
co m m i ttees
th e
l ate s t
d i re c t o rs , an d
IEC
n atu re
wh a t s o e ve r,
of
pu bl i cati o n ,
th e
of
acce s s
to
I EC
of
ce rti fi cati o n
co n fo rm i ty.
I EC
bodi es is
p ro vi d e
not
co n fo rm i ty
re s po n s i bl e
fo r
an y
e x p e rt s
an d
bodi es.
e d i ti o n
of
e m p l o ye e s ,
N ati o n al
wh e th e r use
I n d epen d en t m a rks
o f,
pu bl i cati o n .
s e rvan ts
C om m i ttees
d i re ct or
th i s
or
or
fo r
i n d i re ct,
re l i an ce
u pon ,
ag en ts an y or
i n cl u d i n g
p e rs o n al fo r
th i s
costs
I EC
i n d i vi d u al
i n j u ry,
p ro p e rty
(i n cl u d i n g
P u bl i cati o n
l e g al
or
an y
d am ag e
or
fe e s)
an d
o th e r
IEC
P u bl i cati o n s .
8)
Atte n ti o n
is
d rawn
i n d i spe n s abl e
9)
Atte n ti o n pate n t
is
fo r
to
th e
d rawn
ri g h ts .
IEC
to
th e
N o rm ati ve
co rre c t
th e
s h al l
poss i bi l i ty
n ot
re f e re n c e s
appl i cati o n
be
h eld
of
th at
th i s
som e
re s p o n s i bl e
ci te d
in
th i s
p u bl i cati o n .
U se
of
th e
re fe re n ce d
pu bl i cati o n s
is
pu bl i cati o n .
of
th e
el em en ts
fo r i d e n ti fyi n g
of
an y
th i s
or
al l
IEC s u ch
P u bl i cati on pate n t
m ay
be
th e
su bj ect
of
ri g h t s .
DISCLAIMER This Consolidated version is not an official IEC Standard and has been prepared for user convenience. Only the current versions of the standard and its amendment(s) are to be considered the official documents. This Consolidated version of IEC 62386-1 02 bears the edition number 2.1 . It consists of the second edition (201 4-1 1 ) [documents 34C/1 099/FDIS and 34C/1 1 1 2/RVD] , its amendment 1 (201 8-09) [documents 34/523/FDIS and 34/534/RVD]. The technical content is identical to the base edition and its amendment. This Final version does not show where the technical content is modified by amendment 1 . A separate Redline version with all changes highlighted is available in this publication.
– 8
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
I n te rn ati o n al for l am ps ,
S tan d ard
of I EC
I EC
te ch n i cal
Th i s
s e co n d
e d i ti o n
Th i s
ed i ti o n
i n cl u d es
62386-1 02 co m m i tte e
co n s ti tu te s
th e
h as
34:
been
Lam ps
a te ch n i cal
fo l l o wi n g
p re p are d an d
by
re l ate d
s u bco m m i tte e
34C:
CSV 201 8
Au xi l i a ri e s
e q u i pm e n t.
re vi s i o n .
s i g n i fi can t
te ch n i cal
ch an g es
wi th
re s p e c t
to
th e
p re vi o u s
ed i ti o n :
a)
e l i m i n ati o n
b)
i m p ro ve m e n t o f th e
re q u i re m e n ts
c)
i m p ro ve m e n t o f t h e
te s t co m m an d
d)
ad d i ti o n
e)
th e
d e l e ti o n
ti m i n g ;
2)
co n tro l
Th e
Th i s
1 02
( parti cu l ar
l ist
of
Th e
,
is
fo r
ti m i n g
been
i te ra ti o n s
to
i n c re as e
th e
th e
d e s c ri p ti o n ,
co m p ati b i l i ty,
fo r:
are
d ra fte d
i n te n d e d th e
to
be
re l e van t
cl au s e s
n ow
in
P art
1 01
an d
wi th
th e
th e
re q u i re m e n ts
fo r
co n tro l
d e vi ce s
fo r
in
in
acco rd an ce
u sed
co n tro l
P arts
in
p ro d u ct
1 01
co n j u n cti o n
type
g e ar) an d
1 02
wi th
( s ys te m ) ,
co n tai n i n g in
o rd e r
I S O /I E C
P art
an d
1 01 ,
wi th
cl au s e s to
D i re c t i ve s ,
to
p ro vi d e
P art 2 .
wh i ch
th e
co n tai n s
app ro p ri ate
su ppl em en t
th e
re l e van t
or
g e n e ral
P art
m o d i fy
re q u i re m e n ts
2 xx th e fo r
o f p ro d u ct.
p arts
can
be
co m m i tte e
rem ai n
g e ar b y c l a ri fyi n g
an d
re q u i re m e n ts
re q u i re m e n ts
al l
interface
h as
fo r
co rre s p o n d i n g typ e
fo r co n tro l
P art 1 0 3 .
P art
e ach
g e ar re l e van t d e fi n i ti o n s ,
d e vi ce s .
re q u i re m e n ts in
re q u i re m e n ts
A
o f th e
pu bl i cati o n
Th i s
n o n - co n t ro l
o f n ew co m m an d s ,
1 )
a re
o f al l
of
th e
fo u n d
h as
u n ch an g e d
wi l l
62386
th e
d eci d ed u n ti l
" h t t p : //w e b s t o r e . i e c . c h " pu bl i cati o n
IEC on
in
I EC
th at th e
th e
s e ri e s ,
u n der
th e
g e n e ral
th e
b as e
ti tl e :
Digital addressable lighting
we b s i te .
th e
co n te n ts
s tabi l i ty d ata
of
d ate
re l a t e d
to
i n d i cate d th e
pu bl i cati o n on
s pe ci fi c
th e
an d I EC
p u bl i cati o n .
i ts
am e n d m e n t
web At
s i te
th i s
wi l l
u n d er
d ate ,
th e
be
•
re co n fi rm e d ,
•
wi th d rawn ,
•
re p l ace d
•
am e n d e d .
b y a re vi s e d
e d i ti o n ,
or
IMPORTANT – The 'colour inside' logo on the cover page of this publication indicates that it contains colours which are considered to be useful for the correct understanding of its contents. Users should therefore print this document using a colour printer.
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 9
–
201 8
I N TR O D U C TI O N
IEC
62386
co n tai n s
s pe ci fi cati o n s . e xte n d s
th i s
fu rth e r wi th
Th e
2 xx
(m ai n l y
1 01
g e n e ra l
parts ,
wi th
e xte n d
th e
g e n e ral
g e n e ra l
re q u i re m e n ts
b a c kw a r d
re fe rre d
co n tai n s
i n fo rm a t i o n
p art s fo r
s e ve ra l
P art
as
wi th
Th e
fo r
fo r
1 xx
s e ri e s
s ys te m
c o n t ro l
g e ar
i n cl u d es
th e
co m po n e n ts , an d
P art
1 03
b as i c
P art
1 02
e xte n d s
it
d e vi c e s .
re q u i re m e n ts
co m pati b i l i ty
s e ri e s .
re q u i re m e n ts
fo r co n tro l
g e n e ra l
to
re q u i re m e n ts
E d i ti o n
fo r 1
c o n tro l
of
I EC
g e ar
62386)
wi th an d
l am p wi th
s p e ci fi c
co n t ro l
e xte n s i o n s
g e ar
s pe ci fi c
d e vi ce
s p e ci fi c
fe atu re s .
Th e
3 xx
p a rts
e xte n s i on s co m bi n e d
Th i s
I EC
wi th
s eco n d
1 01 :201 4
exten d
th e
d e s cri b i n g m u l ti pl e
e d i ti o n
an d
I EC
62 3 8 6 - 2 xx
p ro vi d e s as
an d
Th e
i n s tan ce
of
IEC
s e ri e s
fo r
fo r
e as e
s e tu p
2 xx
of
a n eed
o f th e
1 02
as
fo r
fu tu re
is
g e a r,
i n te n d e d
vari o u s
co n tro l
is
as
to
an d
to g e th e r p arts
d e vi ce s .
am e n d m e n ts
is
2 xx
G e n e ral
th e
fo r th e m
co n tro l
we l l
wi th
co m m o n
i n pu t
fe a tu re s
th at
can
be
an d
be
u sed
wi th
th e
wi th
th at Th e
I EC
m a ke
co n j u n cti o n p arts
wi th
th at
62386-1 03: 201 4 up
d i vi s i o n
re vi s i o n s .
in
va ri o u s
th e
i n to
I EC
an d
I EC
6 2 3 8 6 - 3 xx
s e p ara te l y
Ad d i ti o n al
I EC
62386-
m a ke
up
s e ri e s
pu bl i sh ed
re q u i re m e n ts
th e
62386-
wi l l
be
of
p arts ad d ed
re c o g n i s e d .
g rap h i ca l l y re p re s e n te d
2 xx
in
2 xx
F i g u re
3 xx
re q u i re m e n t s -
C o n tro l
d e vi ce s
som e
types .
co n tro l
fo r
s tan d ard
2 xx
types
62386-1 02
an d
re q u i re m e n ts
wh e n
re q u i re m e n ts
i n s tan ce
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8
1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8 p arti cu l ar
g e n e ra l
th e
1
be l ow.
3 xx
1 03
3 xx
G e n e ral
g ear
G e n e ra l S ys te m
3 xx
re q u i re m e n t s -
C o n tro l
1 01
3 xx
d e vi ce s
re q u i re m e n t s -
com pon en ts
IEC
Fi g u re 1 – IEC 62386 g raph ical overvi ew
Wh e n I EC th e
th i s
p art
62 386-1 xx te s ts
are
re q u i re m e n ts ,
Al l
n u m b e rs
g i ve n
in
to as
u sed
H e xad e ci m al are
th e
fo l l o wi n g
I EC
be
62386
th e
re fe rs
e xte n t
to
p e rfo rm e d
to
an y
wh i ch
are
of
su ch
th e a
s pe ci fi e d .
cl au s e s
cl au se Th e
is
of
th e
o th e r
ap p l i cab l e
o th e r
p arts
an d
al s o
two th e
p arts
o rd e r
i n cl u d e
of
in
th e
wh i ch
ad d i ti o n al
n e ce s s ary.
in
th i s
n u m b e rs
b i n ary n u m b e rs
Th e
of
s e ri e s ,
I n te rn ati o n a l
are
g i ve n
in
f o rm a t XX XX XXX Xb m e an s
S tan d ard
th e
fo rm a t
or in
th e
are
are
wh e re
n u m b e rs VV
is
fo rm a t XXXX XXXX,
" d o n ' t c are " .
typ o g rap h i c e x p re s s i o n s
d e ci m al
0 xVV,
u sed :
u n less
th e
val u e .
wh e re
X
is
o t h e rwi s e B i n ary 0
or 1
n o te d .
n u m b e rs an d
" x"
in
– 1 0
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
Vari abl e s :
Ran g e
variableName
o f va l u e s :
C o m m an d :
or
[l o we s t,
“ C O M M AN D
variableName[3:0]
h i g h e s t]
N AM E ”
,
g i vi n g
o n l y bi ts
3
to
0
of
variableName
CSV 201 8
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 1 1
–
201 8
DIGITAL ADDRESSABLE LIGHTING INTERFACE – Part 1 02: General requirements – Control gear
1
Scope
Th i s
P art
s i g n al s p arts ) ,
N OTE not
of
I EC
62386
is
appl i cabl e
o f e l e ctro n i c l i g h ti n g wi th
Te s ts
th e
in
ad d i ti o n
th i s
of DC
s tan d a rd
are
to
co n tro l
e q u i p m e n t wh i ch
is
g e ar
in
in
line
a
wi th
bu s th e
s ys te m
for
c o n tro l
re q u i re m e n ts
by
of I EC
d i g i tal
61 347
( al l
su ppl i es.
type
tes ts .
R e q u i re m e n ts
fo r
testi n g
i n d i vi d u al
co n t ro l
g ear
d u ri n g
pro d u cti o n
are
i n cl u d ed .
2
Normative references
Th e
fo l l o wi n g
co n te n t ci ted
d o cu m e n ts
co n s ti tu tes
ap p l i e s .
Fo r u n d ate d
an y am e n d m e n ts )
are
re fe rre d
re q u i re m e n ts
re fe re n ce s ,
62386-1 01 : 201 4,
IEC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8
I EC
62386-1 03:201 4,
I EC
6 2 3 8 6 - 1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8
– Control devices
Terms and definitions
For
th e
I SO
I EC
an d
th e
te xt
d o cu m en t.
in
s u ch
Fo r
l ates t e d i ti o n
a
d ate d
o f th e
way
th at
re fe re n ce d
of
th i s
m ai n tai n
d o cu m e n t,
th e
te rm i n o l o g i cal
t e rm s
an d
d atab as e s
d e fi n i ti o n s
fo r
u se
in
g i ve n
in
•
I EC
E l e c tro p e d i a :
•
I SO
On l i n e
a va i l a b l e
b ro ws i n g
a t h t t p : //w w w . e l e c t r o p e d i a . o r g /
pl atfo rm :
avai l ab l e
a t h t t p : //w w w . i s o . o r g /o b p
3.1 actual level re p re s e n ti n g
th e
cu rre n t l i g h t o u tp u t
3.2 arc power p o we r s u p p l i e d
to
th e
l i g h t s o u rc e s
( l am ps )
3.3 broadcast type
o f ad d re s s
or
on ly
al l th e
d ocu m en t
u sed
to
ad d re s s
al l
co n tro l
g e ar i n
th e
s ys te m
I EC
of
th e i r
ed i ti o n
( i n cl u d i n g
6 2 3 8 6 - 1 0 1 an d
s tan d ard i z ati o n
ad d re s s e s :
val u e
som e
re fe re n ce s ,
Digital addressable lighting interface – Part 103: General requirements
3
appl y.
th e
in
Digital addressable lighting interface – Part 101: General requirements
IEC
p u rp o s e s
to
th i s
ap p l i e s .
– System components
fo l l o wi n g
of
at o n ce
at
th e
th e
fo l l o wi n g
– 1 2
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
3.4 broadcast unaddressed typ e
of
ad d re s s
u sed
to
ad d re s s
al l
co n tro l
d e vi ce s
in
th e
s ys te m
th at
h ave
no
s h o rt
ad d re s s
at on ce
3.5 DAPC direct arc power control a m e th o d
N o te
1
to
to
d i re ctl y co n tro l
e n t ry:
Th e
n o te
to
th e
e n try
in
l i g h t o u tpu t
Fre n ch
co n ce rn s
th e
Fre n ch
text
o n l y.
th e
Fre n ch
text
o n l y.
3.6 DTR data transfer register m u l ti p u rp o s e
N o te
1
to
re g i s te r u s e d
e n t ry:
Th e
n o te
to
to
e n try
e xch an g e
in
Fre n ch
d ata
co n ce rn s
3.7 group address type
o f ad d re s s
u sed
to
ad d re s s
a g ro u p
o f c o n tro l
g ear i n
th e
s ys te m
al l
at on ce
3.8 GTIN g lobal trade item number n u m ber u sed
N o te
1
to
N ote
2
N ote
3
e n t ry:
to
n u m ber
Fo r
e n try:
an d
to
fo r th e
a
unique
fu rth e r i n fo rm ati o n
Th e
n u m ber
ch eck d i g i t.
e n try:
i d e n ti fi cati o n
Th e
It
n ote
3
is
to
is
see
e n t ry
in
in
i te m s
wo rl d wi d e
h t t p : // e n . w i k i p e d i a . o r g / w i k i / G T I N
c o m p ri s e d
d e s cri b e d
o f tra d e
of
th e
Fre n ch
a
GS1
“G S1
or
U. P. C.
G e n e ral
c o n c e rn s
th e
co m pan y
p re fi x
fo l l o we d
by
an
i tem
re fe re n c e
S p e ci fi cati o n s ”.
Fre n ch
te xt
o n l y.
1 .1 identification te m p o rary co n tro l
state
u sed
d u ri n g
com m i ssi on i n g
th at
al l o ws
th e
i n s tal l e r
to
i d e n ti fy
p a rt i c u l ar
g e ar
3.9 level 8
b i t val u e
3.1 0 MASK th e
va l u e
0 xFF
3.1 1 monotonic f a
fu n cti o n
d e fi n e d
n o n - d e cre as i n g , L i ke w i s e , so
it
a
th e
on
fo r
fu n c ti o n
re ve rs e s
d e cre as i n g
if
is
a
al l
su bset
x
an d
cal l ed
o rd e r.
For
y
of
th e
su ch
re al th at
m o n o to n i cal l y th i s
s tan d ard
o r m o n o to n i cal l y n o n - i n cre as i n g
3.1 2 NO an s we r u s e d
to
d e n y o r re fu s e
a q u e ry
n u m b e rs
x≤ y
one
wi th h as
n o n - i n cre as i n g m o n o to n i c
is
re al
va l u e s
f x) ≤ f y (
(
i f,
),
is
so
wh e n e ve r
d e fi n e d
as
cal l e d
f x≤ y
m o n o to n i cal l y
p re s e rve s
ei th e r
,
th en
th e
o rd e r.
f x) ≥ f y (
m o n o to n i cal l y
(
),
non-
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
N o te th e
1
CSV
– 1 3
–
201 8
to
q u e ry
e n t ry: wi l l
If
a
q u e ry
co n cl u d e
is
“n o
a s ke d
wh e re
b a c kwa rd
th e
fram e "
a n s we r
f o l l o wi n g
is
N O,
I EC
th e re
wi l l
be
no
62386-1 01 :201 4
re s p o n s e ,
an d
su ch
th at
th e
sen der
of
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
8. 2. 5.
N o te
2
to
e n t ry:
Th e
a n s we r
NO
cou l d
al s o
be
t ri g g e re d
th e
co n ten t
by
a
m i ssed
q u e ry.
3.1 3 NVM n o n - vo l ati l e to
r e a d /w r i t e
m e m o ry,
of
wh i ch
can
be
ch an g e d
an d
wi l l
not
be
l ost
due
a po we r cycl e
3. 1 4 opcod e operati on cod e p art o f a fo rwa rd
fra m e
th at i d e n ti fi e s
th e
com m an d
to
be
e xe cu te d
3. 1 5 operati ng mode set
of
s tate s
va ri ab l e s co n tro l
N o te
1
g e ar,
to
i d en ti fi e d
an d
m e m o ry
i n cl u d i n g
e n t ry:
C o n tro l
by
a
n u m ber
se tti n g s , i ts
an d
re q u i re d
g e ar m ay
in
th e
u sed
to
re ac t i o n
s u p p o rt
m o re
ran g e sel ect
to
[0, 255] , a
set
of
ch arac t e ri s e d fu n c ti o n al i ty
by
to
a
be
co l l e cti o n
e xh i b i te d
by
of a
co m m an d s
th an
one
to
th e
o p e rati n g
mode
3.1 6 PHM p h ys i cal o pe rate
minimum
l e ve l
co rre s po n d i n g
minimum
light
o u tpu t
th e
co n tro l
g e ar
can
at
3.1 7 RAM vo l ati l e
r e a d /w r i t e
m e m o ry,
th e
co n te n t
of
wh i ch
can
be
ch an g e d
an d
wi l l
be
l ost
due
to
a
p o we r c yc l e
3.1 8 rand om add ress ran d o m
24
N o te
e n t ry:
1
to
b i t n u m b e r g e n e ra te d
An n e x
A. 1
p ro vi d e s
b y th e
an
co n t ro l
e xam pl e
of
h ow
g e ar o n
th e
s e arch
re q u e s t d u ri n g
an d
ran d o m
s ys te m
ad d re s s e s
a re
i n i ti al i s ati o n
used.
3.1 9 reset state s tate a re
in
wh i ch
m a r ke d
al l
“no
N VM
va ri ab l e s
ch an g e ” o r are
of
th e
co n tro l
o th e rwi s e
g e ar
h a ve
th e i r
re s e t
va l u e ,
e xce pt
th os e
th at
e xpl i ci tl y e xcl u d e d
3.20 ROM n o n - vo l ati l e
N o te
1
to
re ad
e n t ry:
i m pl em e n te d
in
In
o n l y m e m o ry,
th i s
N VM ,
s tan d ard
bu t
th i s
th e
re ad
s t an d ard
co n te n t o f wh i ch
only does
is
m ean t
not
fro m
p ro vi d e
a
an y
is
fi xe d
s ys te m
p e rs p e cti ve .
m e ch an i sm
to
A
ch an g e
ROM
i ts
vari ab l e
m ay
actu al l y
val u e .
3.21 scene co n fi g u rab l e
pre s e t l e ve l
3.22 search ad dress 24
bi t n u m ber u sed
N o te
1
to
e n t ry:
An n e x
to
A. 1
i d e n ti fy an
p ro vi d e s
an
i n d i vi d u a l
e xam pl e
of
co n tro l
h ow th e
g e ar i n
s e arch
an d
th e
s ys te m
ran d o m
d u ri n g
a d d re s s e s
are
i n i ti al i s ati o n
used.
be
– 1 4
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
3.23 short ad d ress typ e
o f a d d re s s
u sed
to
ad d re s s
an
i n d i vi d u al
co n tro l
g e ar i n
th e
s ys te m
3.24 startup ti m e
n eeded
N o te
1
to
to
e n t ry:
ch an g e
Th i s
ti m e
fro m
l am p
i n cl u d es
o ff to
p re h e at
an d
n o rm al
o p e ra t i o n
o f th e
l am p
o r fai l u re
s tate
i g n i ti on .
1 .2 strictl y mon otoni c a
f
fu n cti o n
d e fi n e d
i n cre as i n g ,
if
L i ke w i s e ,
fu n c ti o n
it
a
re ve rs e s
i n cre as i n g
fo r
th e
on
a
x
al l
is
o rd e r.
su bset
y
an d
cal l e d Fo r
of
s u ch
th e
re al
x
th at
m o n o to n i cal l y
th i s
s tan d ard
n u m b e rs
y
<
on e
wi th (
d e c re as i n g
s tri ctl y
re al
fx
h as
)
i f,
<
va l u e s
fy (
),
is
f
x
wh e n e ve r
m o n o to n i c
is
so
d e fi n e d
< as
cal l e d
m o n o to n i cal l y
p re s e rve s
y
,
th e n
e i th e r
th e
fx (
)
>
o rd e r.
fy (
),
so
m o n o ton i cal l y
o r m o n o to n i cal l y d e cre as i n g
3.25 targ et level th e
targ e t l i g h t o u tp u t e xp e cte d
afte r co m p l e ti o n
o f th e
cu rre n t l e ve l
co m m an d
3.26 YES an s we r u s e d
N o te th e
1
to
e n t ry:
val u e
4
to
of
acce p t o r affi rm
If
a
q u e ry
is
th e
a n s we r
is
YE S ,
th e
re s p o n s e
wi l l
be
a
b a c kwa rd
fram e
co n tai n i n g
G eneral
Th e
re q u i re m e n ts
I EC
wi th
4. 2
Version nu mber
Th i s
Th e
ve rs i o n an d
en cod e d ve rs i o n
re p l ace s
s h al l
th e
i n to
e ach
a
Th e
am e n d m en t
IEC
th e
th e
to
fo rm a t
" x. y" ,
n u m ber
y
in
ed i ti o n
in
of
1
to
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
i d e n ti fi e d
IEC
th e
th e
n u m ber
b i ts
I EC
an d
wh e re
is
ve rs i o n
pl aced
an
an d
ad d i ti o n s
62386-1 01 : 201 4
m aj or
be
an d
x
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
m aj o r
ra n g e
C l au s e
ve rs i o n
of
s h al l
0
be
4
b e l o w.
to
n u m ber x
2.
Wh e n
p l ace d
in
is
th e
bi ts
7
in
th e
ve rs i o n to
2
4. 2.
ran g e
of 0
n u m ber
an d
th e
is
m inor
0.
I EC
62386-1 02
th e
m i n or
ve rs i o n
n u m ber
s h al l
be
by on e.
of I EC
m i n o r ve rs i o n
N o rm al l y
2
62386-1 02
n u m ber sh al l
cu rre n t ve rs i o n
N OTE
in
ch an g e s
ve rs i o n
b yte ,
a n e w ed i ti o n
th e
be
minor
n u m be r y s h al l
i n cre m e n te d
62386-1 01 : 201 4
re s tri cti o n s ,
s u bcl au se
62
At
th e
of
appl y,
At
wh e re
M AS K.
General
4.1
to
a s ke d
a q u e ry
n u m ber i s
am e n d m e n ts
on
“
be
th e
m a j o r ve rs i o n
s e t to
versionNumber”
IEC
n u m be r s h al l
be
i n cre m e n te d
0.
d o cu m e n ts
a re
as
d e fi n e d
m ad e
b e fo re
a
in
Tabl e
new
1 4.
e d i ti o n
is
c re ate d .
by on e
an d
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
5
CSV
– 1 5
–
201 8
Electrical specification
Th e
re q u i re m e n ts
of
IEC
62386-1 01 :201 4
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au se
5
appl y.
6
Interface power supply
If
a
IEC
7
bu s
p o we r
su ppl y
62386-1 01 :201 4
an d
is
I EC
i n te g rate d
i n to
a
c o n t ro l
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
g e ar,
C l au s e
6
th e
re q u i re m e n ts
of
appl y.
Transmission protocol structure
7.1
General
Th e
re q u i re m e n ts
I EC
fo l l o wi n g
62386-1 01 : 201 4
wi th
7.2
1 6 bit forward frame encoding
7.2.1
th e
of
appl y,
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au s e
ad d i ti o n s .
General
Fo r co m m an d s ,
th e
1 6
b i t fo rward
fram e
s h al l
be
e n co d e d
as
is
d e pi cte d
in
Tab l e
1 .
Table 1 – 1 6-bit command frame encoding B ytes/Bi ts Ad dress byte 15
14
13
0
12
64
Opcode byte
11
s h o rt
10
8a
9
ad d re s s e s
x
G ro u p
0
1
1
1
1
1
1
0
x
1
1
1
1
1
1
1
x
7.2.2 Th e
ad d re s s e s
S h o rt
0
S e l e cto r
g ro u p
1 01 0
0000
to
1 1 00
1 01 1
1 1 00
1 1 00
to
1 1 1 1
1 01 1
bi t,
see
7. 2. 2;
0
i n d i cate s
b yte
•
th e
m e th o d
•
th e
typ e
o f co m m an d
S p e ci al
i n d i cates
u sed
t ran s m i tte d
in
s ta n d a rd
Bi t 8
=’0’:
d i re c t arc p o we r c o n tro l
•
re s e r ve d
R e s e r ve d
Th e
1
ad d re s s i n g
=’1 ’:
ad d re s s
s paces
o th e r co m m an d
d e vi ce
sh ou l d
Opcode byte byte
th e
ap p l i cati o n
opcod e
co n tro l l e r;
byte ;
( D AP C )
co m m an d ;
co m m an d s ;
ad d re s s e s .
ad d re s s e s
o pco d e
b y th e
co m m an d ;
fo r s peci al
p ro vi d e s
n ot be
u n ad d re s s e d
co m m an d
R e s e rve d
D AP C ,
Bi t 8
•
ad d re s s i n g
B ro ad cas t
p ro vi d e s
o f d e vi ce
ad d re s s i n g
B ro ad cas t
Address byte
ad d re s s
7.2.3
7. ..0
x
1
a
1 6
Devi ce addressi ng meth od
u sed
b y th e
ap p l i cati o n
co n tro l l e r.
7
– 1 6
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
•
fo r D AP C
•
fo r s tan d ard
•
co m m an d
•
r e s e r ve d
8
Timing
Th e
co m m an d s ,
th e
co m m an d s ,
re q u e s te d
th e
re q u i re m e n ts
of
fo r s p e c i al
fo r re s e rve d
IEC
l i g h t o u tpu t;
opcod e;
s p e ci fi c i n fo rm ati o n
i n fo rm a ti o n
CSV 201 8
co m m an d s ;
co m m an d s .
62386-1 01 :201 4
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au se
8
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au se
9
appl y.
9
Method of operation
9.1
General
Th e
re q u i re m e n ts
app l y wi th
9.2
of
IEC
fo l l o wi n g
62386-1 01 :201 4
ad d i ti o n s .
Control gear
9.2.1
General
C o n tro l is
th e
g e ar
s pe ci fi e d
m ay
re c e i ve
by I EC
co m m an d s
62386-1 03:201 4
fro m
an d
an
I EC
ap p l i cati o n
co n tro l l e r.
Th e
appl i cati o n
co n tro l l e r
6 2 3 8 6 - 1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8 .
R e q u e s te d l i g h t o u tpu t
C o n tro l g e ar
Arc po we r
Li g h t o u tpu t
Actu al l e ve l
IEC
Figure 2 – Control gear directly operating a light source F i g u re a
2
s h o ws
co n tro l
th e re
is
kn o w n
N OTE
g e ar
a
as
h o w th e is
minimum th e
PHM
is
vari o u s
re fe rre d th at
ph ys i cal
c o n t ro l
to
th e
g e ar spe ci fi c,
Control gear phases
9.2.2.1
General
g e ar.
In
on
th e
g e n e ral
light
th es e
as
l e ve l
an d
s o u rce
are
1 00
co n t ro l
minimum
9.2.2
D epen d i n g
l e ve l s
as
is
l e ad
%.
to
Al l
g ear
l i g h t ou tpu t.
l e ve l s
can
are
su ppl y
Th e
m axi m u m
s peci fi e d wh i l s t
in
th e re
a is
( l i g h t)
re l ati ve s ti l l
light
o u tpu t l e ve l
way.
of
P h ys i cal l y
ou tpu t.
Th i s
is
(PH M ) .
g re ate r
va ri o u s
th an
0.
p h as e s
of
o p e ra ti o n
can
be
i d e n ti fi e d
wi th i n
a
co n tro l
fo l l o ws .
9.2.2.2 Standby D u ri n g are
0.
th i s
p h as e ,
th e
l am p
is
o ff
an d
on l y
in
th i s
p h as e
both
“
targetLevel
”
an d
“
actualLevel
”
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
9.2.2.3
– 1 7
–
Startu p
S tartu p p h as e
•
CSV
201 8
is
is
a
tran s i ti o n al
som e ti m es
p re h e at:
th e
p h as e
n o ti ce abl e
l am p
is
ch an g i n g
as
h e ate d
fro m
a d e l ay.
to
s tan d b y
E xam pl es
p re p a re
fo r
to
n o rm al
o p e rati o n
or
fa i l u re .
Th i s
are :
i g n i ti o n .
Th i s
is
typi cal l y
seen
fo r
fl u o re s ce n t
an d
fl u o re s ce n t
l i g h t s o u rce s ;
•
i g n i ti on :
th e
l am p
l i g h t s o u rce s
•
is
p o we r s tag e
Wh i l e
n o rm a l
9.2.2.5
e xce pti o n s
re fe r to
th e
an d
l am p
is
e m i tti n g
e xce p ti o n s
re fe r to
th e
fai l u re
p h as e
th e
an d
l am p can n o t b e
e xce p ti o n s
fo r
HID
light
s o u rce s
9. 1 6. 3.
l i g h t an d
can
be
o p e ra te d
as
e xpecte d .
9. 1 6. 3.
o p e ra te d
re fe r to
dimming
c u r ve
“actualLevel”
d e te rm i n e s
g re a te r
th an
l i g h t o u tp u t acco rd i n g
h o w th e
as
e xpe cte d .
9. 1 6. 3.
or
l e ve l
eq u al
to
1
Li g h t o u tpu t (
actualLevel
Li g h t
is
o u tpu t
g e ar- l a m p ends
at
1 00
re l a t i ve
N OTE
1
Th e
%
fo r
)
=
re l a ti ve
th an
or
i n to
e q u al
l i g h t o u tpu t.
to
254
s h al l
be
tran s l ate d
is
be
% .
to
dimming
“actualLevel”
cu rve
l ess
tran s l ate d
−1
3
1 0
Th e
accu racy s h al l
dimming
an d
be
253
e xp re s s e d
co m bi n ati o n .
1
s h al l
to
actualLevel −
th e
seen
Di mm in g cu rve
Th e
i n to
typ i cal l y
Fai l u re
F o r fu rth e r i n fo rm ati o n
An
an d
o p e ra ti o n
F o r fu rth e r i n fo rm ati o n
9.3
is
Norm al operati on
in
D u ri n g
Th i s
p re p ara t i o n .
F o r fu rth e r i n fo rm a ti o n
9. 2.2.4
i g n i ted .
afte r p re h e at;
th e
e q u al
±½
i n ten d ed
s te p .
to
m axi m u m
cu rve to
s tarts
0 xFE .
Th i s
Th e
sh al l
co m pe n s ate
possi bl e
at 0 , 1
th e
be
% fo r
dimming te s te d
light
light
cu rve
u sin g
s e n s i ti vi ty
o u tpu t
of
“actualLevel” is
s tri ctl y
a fad e ,
cu rve
of
th e
a
g i ve n
e q u al
h u m an
co n tro l -
0 x0 1
an d
m o n o to n i c,
an d
e xcl u d i n g
e ye .
to
PH M.
– 1 8
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
IEC
Figure 3 – Dimming curve Th e
accu racy
Tab l e ve rs u s
N OTE IEC
2
an d
th e
2
of
th e
l e ve l .
Th e
light
o u tp u t
dimming Th e
l am p
minimum
an d
is
s pe ci fi e d
cu rve type
are
o r l o ad
m axi m u m
by
th e
d epi cted u sed
val u e s
in
te s t
d u ri n g
a re
p o i n ts
F i g u re
3,
tes ti n g
bas e d
on
g i ve n an d
s h al l
th e
in
Tab l e
Tabl e be
test
3
2.
Th e
s h o ws
s tate d
val u e s
te s t
th e
p o i n ts
light
of
o u tpu t
fo r re pro d u ci b i l ty.
th at
can
be
fou n d
in
62386-1 02:2009.
Table 2 – Dimming curve tolerance (%, rounded to two decimals) Level Mi ni mu m val ue Nomi nal val ue Maxi mum val ue
1
60
85
1 26
1 45
1 70
1 95
21 6
229
243
0, 05
0, 25
0, 50
2, 00
3, 93
7, 00
1 5, 00
27, 28
40, 00
63, 53
0, 1 0
0, 50
0, 99
3, 04
5, 1 0
1 0, 09
1 9, 97
35, 43
50, 53
74, 05
0, 20
1 , 00
2, 00
4, 50
7, 50
1 5, 0
30, 00
52, 09
71 , 00
86, 1 4
254
1 00, 00
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 1 9
–
201 8
Table 3 – Dimming curve Level
Li g ht ou tpu t
Level
Li g h t output
Level
Li g ht ou tpu t
Level
Li g h t output
Level
Li g h t ou tpu t
1
0, 1 00
52
0, 402
1 03
1 , 620
1 54
6, 520
205
26, 241
2
0, 1 03
53
0, 41 4
1 04
1 , 665
1 55
6, 700
206
26, 967
3
0, 1 06
54
0, 425
1 05
1 , 71 1
1 56
6, 886
207
27, 71 3
4
0, 1 09
55
0, 437
1 06
1 , 758
1 57
7, 076
208
28, 480
5
0, 1 1 2
56
0, 449
1 07
1 , 807
1 58
7, 272
209
29, 269
6
0, 1 1 5
57
0, 461
1 08
1 , 857
1 59
7, 473
21 0
30, 079
7
0, 1 1 8
58
0, 474
1 09
1 , 908
1 60
7, 680
21 1
30, 91 1
8
0, 1 21
59
0, 487
1 1 0
1 , 961
1 61
7, 893
21 2
31 , 767
9
0, 1 24
60
0, 501
1 1 1
2, 01 5
1 62
8, 1 1 1
21 3
32, 646
1 0
0, 1 28
61
0, 51 5
1 1 2
2, 071
1 63
8, 336
21 4
33, 550
1 1
0, 1 31
62
0, 529
1 1 3
2, 1 28
1 64
8, 567
21 5
34, 479
1 2
0, 1 35
63
0, 543
1 1 4
2, 1 87
1 65
8, 804
21 6
35, 433
1 3
0, 1 39
64
0, 559
1 1 5
2, 248
1 66
9, 047
21 7
36, 41 4
1 4
0, 1 43
65
0, 574
1 1 6
2, 31 0
1 67
9, 298
21 8
37, 422
1 5
0, 1 47
66
0, 590
1 1 7
2, 374
1 68
9, 555
21 9
38, 457
1 6
0, 1 51
67
0, 606
1 1 8
2, 440
1 69
9, 820
220
39, 522
1 7
0, 1 55
68
0, 623
1 1 9
2, 507
1 70
1 0, 091
221
40, 61 6
1 8
0, 1 59
69
0, 640
1 20
2, 577
1 71
1 0, 371
222
41 , 740
1 9
0, 1 63
70
0, 658
1 21
2, 648
1 72
1 0, 658
223
42, 895
20
0, 1 68
71
0, 676
1 22
2, 721
1 73
1 0, 953
224
44, 083
21
0, 1 73
72
0, 695
1 23
2, 797
1 74
1 1 , 256
225
45, 303
22
0, 1 77
73
0, 71 4
1 24
2, 874
1 75
1 1 , 568
226
46, 557
23
0, 1 82
74
0, 734
1 25
2, 954
1 76
1 1 , 888
227
47, 846
24
0, 1 87
75
0, 754
1 26
3, 035
1 77
1 2, 21 7
228
49, 1 70
25
0, 1 93
76
0, 775
1 27
3, 1 1 9
1 78
1 2, 555
229
50, 531
26
0, 1 98
77
0, 796
1 28
3, 206
1 79
1 2, 902
230
51 , 930
27
0, 203
78
0, 81 9
1 29
3, 294
1 80
1 3, 260
231
53, 367
28
0, 209
79
0, 841
1 30
3, 386
1 81
1 3, 627
232
54, 844
29
0, 21 5
80
0, 864
1 31
3, 479
1 82
1 4, 004
233
56, 362
30
0, 221
81
0, 888
1 32
3, 576
1 83
1 4, 391
234
57, 922
31
0, 227
82
0, 91 3
1 33
3, 675
1 84
1 4, 790
235
59, 526
32
0, 233
83
0, 938
1 34
3, 776
1 85
1 5, 1 99
236
61 , 1 73
33
0, 240
84
0, 964
1 35
3, 881
1 86
1 5, 620
237
62, 866
34
0, 246
85
0, 991
1 36
3, 988
1 87
1 6, 052
238
64, 607
35
0, 253
86
1 , 01 8
1 37
4, 099
1 88
1 6, 496
239
66, 395
36
0, 260
87
1 , 047
1 38
4, 21 2
1 89
1 6, 953
240
68, 233
37
0, 267
88
1 , 076
1 39
4, 329
1 90
1 7, 422
241
70, 1 21
38
0, 275
89
1 , 1 05
1 40
4, 449
1 91
1 7, 905
242
72, 062
39
0, 282
90
1 , 1 36
1 41
4, 572
1 92
1 8, 400
243
74, 057
40
0, 290
91
1 , 1 67
1 42
4, 698
1 93
1 8, 909
244
76, 1 07
41
0, 298
92
1 , 200
1 43
4, 828
1 94
1 9, 433
245
78, 21 3
42
0, 306
93
1 , 233
1 44
4, 962
1 95
1 9, 971
246
80, 378
43
0, 31 5
94
1 , 267
1 45
5, 099
1 96
20, 524
247
82, 603
44
0, 324
95
1 , 302
1 46
5, 240
1 97
21 , 092
248
84, 889
45
0, 332
96
1 , 338
1 47
5, 385
1 98
21 , 675
249
87, 239
46
0, 342
97
1 , 375
1 48
5, 535
1 99
22, 275
250
89, 654
47
0, 351
98
1 , 41 3
1 49
5, 688
200
22, 892
251
92, 1 35
48
0, 361
99
1 , 452
1 50
5, 845
201
23, 526
252
94, 686
49
0, 371
1 00
1 , 492
1 51
6, 007
202
24, 1 77
253
97, 307
50
0, 381
1 01
1 , 534
1 52
6, 1 73
203
24, 846
254
1 00, 000
51
0, 392
1 02
1 , 576
1 53
6, 344
204
25, 534
– 20
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
Cal cu l atin g “targetLevel”
9.4 An
appl i cati o n
b e h avi o u r
co n tro l l e r
d u ri n g
appro pri ate
th e
sh al l
•
0 x0 0
•
An y va l u e
be twe e n
•
An y val u e
be twe e n
•
“ M AS K”
sh al l
be
Th e
re q u e s te d on
cal cu l ate d
On
e ve ry
0 x0 1
no
sh al l
targ e t
ch an g e
be
to
“
9. 5
Fad i ng
on
th e
re q u e s te d to
light
ou tpu t
“targetLevel” by
th e
an d
on
th e
m ean s
of
bas i s
an d
tu rn
sh al l
0 xFE
of th e
re q u e s te d
o ff th e
l i g h t.
“targetLevel”=“maxLevel”.
re s u l t i n
“targetLevel”
fo l l o ws :
“targetLevel”=“minLevel”.
re s u l t i n
s h al l
l i g h t o u tpu t as
e xce pt
wh e n
a
fad e
is
ru n n i n g ,
see
l e ve l
g e ar
cal cu l ati o n
th e
“targetLevel”
of
s to re d
”,
“targetLevel”.
as
val u e ,
wi th
th e
sh al l
su ch
as
e xcepti o n
of
“limitError” “targetLevel”. targetLevel”
s h al l
n ew
u pd ate
th e
(see
If
“
al so
a
be
appl i e d
i n i ti al i s ati o n
s u bcl au s e
is
not
if
th e
re q u e s t
“powerOnLevel”
s ce n e ,
cau se d
9. 1 6. 5)
by
an d
a
is or
p o we r
s h al l
“lastActiveLevel”
0 x0 0 ,
,
set
s h al l
be
G eneral
F ad i n g
is
th e
A fad e
a
l i n e ar
tra n s i ti o n
l i g h t o u tpu t,
can
be
s h al l
s tarte d
•
u si n g
a fad e
ti m e :
•
u si n g
a fad e
ra te :
A fad e
Wh e n (see
th e
on
acce p te d
“targetLevel
of
co n tro l
se t to
on
an d
e ffe c t
i n te rn al l y
“lastLightLevel” targetLevel”.
th u s
g e ar
“actualLevel”
th e
“minLevel”
an d
“maxLevel”
h ave
an
th e
9. 5.1
co n tro l
“targetLevel”
as
“systemFailureLevel”.
c yc l e ,
th e
fro m
9. 5. 9.
o th e r val u e s
b as e d
be
acce p te d
s h al l
su bcl au se
Al l
i n s tru c ts
tra n s i ti o n
o pco d e s .
“targetLevel”
Th e
•
201 8
sh al l
a
n o t be
fad e
in
two
th i s
th i s
th e
ti m e
“actualLevel”
fro m
to
“targetLevel”
s tri c tl y m o n o to n i c acco rd i n g
to
th e
.
“actualLevel”,
Th e
appl i cabl e
dimming
an d
c u r ve .
ways :
s e ts
a ti m e
s e ts
s tarte d
s tarts ,
in
be
to
a speed
i f th e
fad e
use
to
u se
cal cu l ate d
ti m er
s h al l
fo r th e
fad e
fo r th e
fad e
“targetLevel”
be
s tarte d
p ro ce s s ;
pro ce ss .
is
an d
eq u al
“actualLevel”
to
“fadeRunning”
.
s h al l
be
set
i d eal
fad i n g
to
TR U E
9. 1 6. 6. ) .
D u ri n g
th e
fad e ,
th e
light
o u tp u t
sh al l
be
m ai n tai n e d
as
cl ose
to
th e
cu rve
as
possi bl e.
D u ri n g th e
a
p ro ce s s
i n te rs e ct i o n
“actualLevel”
+
co rre s p o n d i n g
“actualLevel” usin g
is
If
m om en t
c o n fi rm e d
th e be
i t.
“
“actualLevel” fad i n g
wh e n
o r fad e
fad e
fad e
fad e
”
–
of 1 .
s h al l
be
wi th
th e
i d e al
F i g u re
4
/ fad e
rate
p l ace
i m m e d i ate l y
TR U E
fad e
ti m e .
At
m i d -po i n t
fad i n g
i l l u s trate s
at
s h al l
c u rve
a
ti m e
be
wi th
co rre s p o n d i n g
“actualLevel”
be twe e n
d e c re m e n te d th e
th i s ,
an d
s to p
con d i ti on
m i d - po i n t
appl i e s
fo r
at
a
to
an d ti m e
b e twe e n
fad e s
s tarte d
rate .
ti m e
is
i n cre m e n te d
“actualLevel”
d o wn ,
an
t a ke s
A
(see
c u r ve
fad i n g
i n t e rs e c t i o n
“actualLevel”
lampOn
F ALS E
u p,
i d e al
L i ke w i s e ,
TR U E .
appl i cabl e s e t to
an
ti m e
of
th e
fad i n g
th e
an d
M e as u re m e n ts
th e
1 . to
e i th e r fad e
tri g g e rs
of of
o r,
s h al l th i s
su bcl au se
in
s h al l
cas e
of
s tart
to tal
au to m ati cal l y
poi n t
th e
9. 1 6. 6. ) .
fad e
afte r
afte r
th e
s tartu p ,
l am p
en d ti m er
fai l u re ,
wh e n s h al l
th e be
of
m e as u re m e n t fro m fad e
th e
co m m an d
moment
ti m er
s topped
th e
s h al l
an d
h as
be “
done
th at fro m
lampFailure
been
acti ve
“fadeRunning”
”
fo r
sh al l
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
Th i s a
m ean s
l am p
is
th e
fad e
If
l am p
a
wh e n
N OTE
th at
to
co n tri bu te
0 x0 0
CSV
– 21
–
201 8
be
to
th e
ti m e
is
th e
fad e
h as
to
be
lit
th e
s ta rt u p
Th e
ti m e.
at
fro m
at
fad e s
th e
Th e
.
th e
sh al l
ph as e
t ran s i ti o n
g ear
o ff
e l apse d
“minLevel”
to
co n tro l
s wi tch e d
end
s te p
h as
0 x0 0
th e
ta rg e t
th e
fad e ,
fro m
beg i n n i n g
n ot
to of
of
co n tri bu te
“minLevel”
th e to
l e ve l th e
fad e
th e
an d
fad e
e ve n
s te p
to
0 x0 0
cas e
to
Th i s
a
of
a
"minLevel"
s h al l
di m med
ti m e .
in
fro m
be
t a ke n
ce rtai n
m ean s
to tal
th at
to
l am p
0 x0 0
e rro r. I f
s h al l
i m m e d i ate l y
va l u e , th e
th e
fad e
step
ti m e
not
after
fro m
s tarts
fi n i s h e d .
to
“minLevel”
i n co rp o rate s
s tartu p .
Fad i n g d o wn cu rve
MIN +3
Id
e
a
l
c
u
rv
e
,
fa
d
in
g
d
o
w
n
MIN +2
MIN +1
Id
e
a
l
c
u
rv
e
,
fa
d
in
g
u
p
MIN Fad i n g u p cu rve
S tartu p ti m e ( 0 wh e n fad i n g d o wn )
O ff S to p co n d i ti o n
Fad e ti m e s tart
1 /3 Fad e ti m e
2 /3 Fad e ti m e
Fad e ti m e
IEC
Fi g u re 4 – Level over time, fad i ng u p and down Te s ti n g
sh al l
9. 5.2 Th e
fad e
ti m e
q u e ri e d
Th e
if
•
in
Th e
•
s h al l
s h al l u sing
“fadeTime”
•
“DTR0” al l
fad e
if
done
wi th
“
minLevel” ≥ PH M +1 . For fu rth er i n formati on , see
An n e x
B.
Fad e ti me
“fadeTime” be
be
>
be
be
set
s h al l
1 5:
=
be
to
re ce i p t
set to
Tabl e
of
th e
4:
co m m an d
T I M E /F A D E
a val u e
“ S E T F AD E
TI M E
(
R ATE .
acco rd i n g
to
th e
fo l l o wi n g
s teps :
1 5
s h al l
“fadeTime”
on
Q U E R Y F AD E
o th e r cas e s :
ti m e
acco rd i n g
“DTR0”
be
0:
cal cu l ate d
u se
on
th e
b as i s
of
“fadeTime”
as
fo l l o ws :
DTR0
) ”.
“
fadeTime
”
can
– 22
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
Mi ni mu m fade rate
Nomi nal fade rate
Maxi mu m fade rate
s t e p s /s
s t e p s /s
s t e p s /s
1
322
358
394
2
228
253
278
3
1 61
1 79
1 97
“fadeRate”
4
1 1 4
1 27
1 39
5
80, 5
89, 4
98, 4
6
56, 9
63, 3
69, 6
7
40, 3
44, 7
49, 2
8
28, 5
31 , 6
34, 8
9
20, 1
22, 4
24, 6
1 0
1 4, 2
1 5, 8
1 7, 4
1 1
1 0, 1
1 1 ,2
1 2, 3
1 2
7, 1
7, 9
8, 7
1 3
5, 0
5, 6
6, 1
1 4
3, 6
4, 0
4, 3
1 5
2, 5
2, 8
3, 1
•
E xte n d e d
•
if
fad e
“fadeTime”
Tab l e
4
CSV 201 8
l i s ts
th e
ti m e
1 is
in
th e
ran g e
[1 , 1 5 ] :
2 possi bl e
fad e
ti m e
⋅
2
"fadeTime"
⋅1 s
val u e s .
Table 4 – Fade times “fadeTime”
Mi ni mum fade ti me
Nomi nal fade ti me
Maxi mu m fade ti me
s
s
s
0
E xten d e d
fad e
1
0, 6
0, 7
0, 8
2
0, 9
1 ,0
1 ,1
3
1 ,3
1 ,4
1 ,6
4
1 ,8
2, 0
2, 2
5
2, 5
2, 8
3, 1
6
3, 6
4, 0
4, 4
7
5, 1
5, 7
6, 2
8
7, 2
8, 0
8, 8
9
1 0, 2
1 1 ,3
1 2, 4
1 0
1 4, 4
1 6, 0
1 7, 6
1 1
20, 4
22, 6
24, 9
1 2
28, 8
32, 0
35, 2
1 3
40, 7
45, 3
49, 8
1 4
57, 6
64, 0
70, 4
1 5
81 , 5
90, 5
99, 6
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
9.5.3 Th e
fad e
rate
“DTR0”
if
•
if
•
in
“DTR0” al l
rate
ra te
5
set
s h al l
>
1 5:
=
0:
–
on
be
to
re c e i p t
s e t to
Tabl e
of
th e
5.
co m m an d
T I M E /F A D E
a va l u e
“ S E T FAD E
R ATE
(
DTR0
) ”.
“
fadeRate
”
can
R ATE .
acco rd i n g
to
th e
fo l l o wi n g
s te ps :
1 5
1
s h al l
be
“DTR0” cal cu l ate d
on
th e
b as i s
of
“fadeRate”
as
fo l l o ws :
506
= 2
Tab l e
acco rd i n g
Q U E R Y F AD E
o th e r cas e s :
fad e
Fad e
be
be
using
“fadeRate”
•
Th e
s h al l
sh al l
q u e ri e d
Th e
– 23
Fade rate
“fadeRate” be
CSV
201 8
l i s ts
"fadeRate"
th e
possi bl e
s t e p s /s .
fad e
ra te
val u e s .
Table 5 – Fade rates Mi ni mu m fade rate
Nomi nal fade rate
Maxi mu m fade rate
s t e p s /s
s t e p s /s
s t e p s /s
1
322
358
394
2
228
253
278
3
1 61
1 79
1 97
4
1 1 4
1 27
1 39
5
80, 5
89, 4
98, 4
6
56, 9
63, 3
69, 6
7
40, 3
44, 7
49, 2
8
28, 5
31 , 6
34, 8
9
20, 1
22, 4
24, 6
1 0
1 4, 2
1 5, 8
1 7, 4
1 1
1 0, 1
1 1 ,2
1 2, 3
1 2
7, 1
7, 9
8, 7
1 3
5, 0
5, 6
6, 1
1 4
3, 6
4, 0
4, 3
1 5
2, 5
2, 8
3, 1
“fadeRate”
9.5.4 If “
Extended fade time
fadeTime
an d
e q u al s
”
e q u al s
0,
Th e
e xten d e d
an d
Tab l e
7.
m u l ti pl i cati o n
th e
fad e Th e
0,
an d
th e
e xte n d e d
ti m e
can
e xte n d e d
facto r.
fas t
fad e
be
fad e
ti m e
set
fad e
ti m e
s h al l
u sin g
ti m e
as
be
a
can
d e fi n e d
in
I EC
62386
P art 2 0 7
is
i m p l e m e n te d
u sed.
b as e be
val u e
an d
cal cu l ate d
a
m u l ti pl i er
bas e d
on
th e
acc o rd i n g bas e
to
val u e
Tab l e an d
6
th e
– 24
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
F ad e
Th i s
ti m e
yi e l d s
=
extendedFadeTimeBase
a
ra n g e
of
1 00
ms
to
CSV 201 8
extendedFadeTimeMultiplier
*
1 6
min,
an d
a
s p e ci al
val u e
i n d i cati n g
no
fad e
( as
q u i c kl y
as
possi bl e) .
Table 6 – Extended fade time – base value Base bi ts
Base val u e
0000b
1
0001 b
2
001 0b
3
001 1 b
4
01 00b
5
01 01 b
6
01 1 0b
7
01 1 1 b
8
1 000b
9
1 001 b
1 0
1 01 1 b
1 1
1 01 1 b
1 2
1 1 00b
1 3
1 1 01 b
1 4
1 1 1 0b
1 5
1 1 1 1 b
1 6
Table 7 – Extended fade time – multiplier Mu l ti pl i er bi ts
Mu l ti pl i cati on factor Mi ni mu m
000b
0
001 b
95
01 0b
0, 95
01 1 b
9, 5
1 00b
a
On
No
1 00
s
1
s
1
s
min
R e s e rve d
1 1 1 b
R e s e rve d
( as
b as e d
q u i c kl y
of
–
“
–
“
>
“DTR0” .
an d th e
01 00
Th e
AAAAb base
F AD E
fo rm at
th e
ti m e
“targetLevel”
ms
1 , 05
s
1 0, 5
s
1 , 05
min
ti m e
s h al l
DTR0
(
be
bas e :
)”
th e
co n tro l
0 YYYA A AA b ,
Th e
re s u l ti n g
g e ar
s h al l
wh e re
fad e
set
YYYb
ti m e
th e
e q u al s
sh al l
be
th e
fad e
fo l l o wi n g th e
fad e
m o n o ti cal l y
i n cre as e s .
1 1 1 1 b:
” s h al l
no
TI M E
u sed
fad e
extendedFadeTimeBase extendedFadeTimeMultiplier
m ean i n g
a
possi bl e)
“ S E T E XTE N D E D
on
wh e n
DTR0”
as
ms
1 05
s
1 0
min
0
ms
1 1 0b
m u l ti p l i e r,
If “
ms
R e s e rve d
i n cre as i n g
•
ms
0, 95
e xe cu ti o n
ti m e
0
Maxi mum
a
1 01 b
fad e
va l u e s
ms
Nomi nal
a
fad e
( as
s h al l
t a ke
”
be
s e t to
s h al l
q u i c kl y pl ace
be as
0;
s e t to
0
m s,
possi bl e) .
i m m e d i ate l y
an d
e ffe cti ve l y s e tti n g
Th e th e
tra n s i t i o n light
fro m
ou tpu t
s h al l
ti m e
to
“actualLevel” be
ad j u sted
0
s to
as
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
q u i c kl y
In
al l
–
“
–
“
Th e
“
possi bl e,
be
0
fad e
ti m e
–
l ess
Tabl e
4) .
” s h al l
be
th an
0,8
s
wh i ch
re p re s e n ts
th e
m axi m u m
fad e
ti m e
be
”
s e t to
s h al l
q u e ri e d
wh e re
YYYb
be
AAAAb ;
se t to
usi ng
YYYb .
“ QU E R Y E XTE N D E D
eq u al s
“
F AD E
extendedFadeTimeMultiplier
TI M E ”.
”
an d
Th e
an s we r
AAAAb
e q u al s
”.
Using the fade time
be
•
If “
•
If
th at
fadeTime
“
If
u se
d e te rm i n e d
” >
fadeTime
e xte n d ed
“
”
0:
=
0:
fad e
Th e
targ e t
ti m e
h as
as
l e ve l
th e
sh al l
be
s h al l
o u tp u t
as
fad e
q u i c kl y
s u p p o rt .
fad e
”
=
0
ti m e
as
it
on
al s o
be
th e
th e
ap pl i cab l e
u sed ,
fad e
ti m e
as
bas i s
th e
s h al l
an
th e
“actualLevel” of
be
fad e
fad e
ti m e .
Th i s
ti m e
as
if
Tab l e
val u e
eq u al s
0
6
an d
an d
s,
th e
Tabl e
7.
Th e
m u l t i p l i e r.
m ean i n g
“targetLevel”
to
q u i c kl y a s
no
s h al l
fad e
t a ke
( as
pl ace
possi bl e.
co m m an d
bel ow
s u ch
e xte n d e d
re s p o n d
see
base
p aram e te r.
Afte r
th e
fad e
re ach e d .
ti m es
co m bi n ati o n s ,
wh e n
sh ou l d
be
ad j u s te d
s u pp o rts
s o u rce
s h al l
th e
fro m
targ e t l e ve l
possi bl e
H o we ve r,
usin g
b y m u l ti p l yi n g
ms,
tran s i ti o n
cal cu l ate d
light
fad e
ti m e
cal cu l ated
cal cu l ate d
an d
a
ru l e s :
4
l i g h t o u tpu t s h al l
be
th e
g e ar
Th e
s tart
fo l l o wi n g
e xte n d e d
can
th e
e xte n d e d
co n tro l
can n o t
Th e
ti m e
ti m e
on
Tab l e
possi bl e) .
e xp i re d ,
th e
al l
fad e
see
i m m ed i atel y an d
S i n ce
a
bas ed
extendedFadeTimeMultiplier
q u i c kl y
light
can
YYY A A A A b ,
Co m m an d s
by
m ean i n g
(see
extendedFadeTimeMultiplier
9.5.5
•
1
extendedFadeTimeBase
extendedFadeTimeBase
can
– 25
o th e r cas e s :
e xte n d ed
s h al l
as
“fadeTime ” =
fo r
•
CSV
201 8
fad e
th e
0, 7
co n tro l ti m e
fad e
s
is
h as
th at
g e ar
might
m ay
re q u e s te d
fi n i s h e d
not
be
si m pl y th at
wi th i n
re al i s e d
ad j u s t
it
th e
p h ys i c al l y
th e
re q u e s te d
ti m e .
9.5.6
Using the fade rate
9.5.6.1
Fading with “UP” and “DOWN” commands
C o m m an d s
“
targetLevel
rate .
1
s h al l
S i n ce
does
N OTE rate
”
Afte r th e
N OTE Th i s
“U P ” an d
at
2
not
d i ffe re n t
th e
B e cau s e
s l i g h tl y
fad e in
might
fad e
rate
th e
th e re
s h al l
cal cu l ate d
ms
d i ffe re n t
g e ar
“lastLightLevel”
be
200
re s u l t
“ D O WN ”
is
h as
on
are
used,
fad e
h ave
th e
it
is
rate
th e
possi bl e be i n g
val u e s
20
th e
to
ms
fad e .
“actualLevel”
cal cu l ate d
ta rg e t l e ve l
“minLevel”
re ach
d i ffe re n t
C o n s e q u e n tl y,
d i ffe re n t
of
±
using
sh al l
“maxLevel”
or
th e
be
appl i cabl e
fad e
re ach e d .
b e fo re
th e
end
of
th e
fad e.
cl e are d .
to l e ran ce s ,
rate s .
ms
bas i s
e xp i re d ,
“fadeRunning ” b i t
e ffe cti ve
s tart a 2 0 0
co n tro l
afte r
th e
g ear
“targetLevel”
fo r
can
p ro ce s s i n g (an d
re ac t of
to
th ese
th e re fo re
co m m an d s re l ati ve al s o
th at
use
dimming
fo r
“
th e
fad e
com m an d s,
actualLevel
”
an d
).
9.5.6.2 Fading with “CONTINUOUS UP” and “CONTINUOUS DOWN” commands C o m m an d
“C ON TI N U OU S
ap p l i cab l e
fad e
C o m m an d
“C ON TI N U OU S
th e
appl i cabl e
U pon one
fad e
e xe cu ti o n
s te p
sh al l
ra te .
of
be
Th e
rate .
e i th e r
m ad e ,
U P”
fad e
D O WN ”
Th e
a
sh al l
s h al l
fad e
set
sto p
s h al l
sh al l
“targetLevel” “maxLevel” maxLevel” to
wh e n
set
s to p
“ C O N TI N U O U S
u n l ess
th i s
is
“
is
an d
“targetLevel” “minLevel” minLevel” to
wh e n
U P”
p re cl u d e d
or
“
is
fad e
u si ng
th e
va l u e s
an d
s tart
a
fad e
u si n g
re ach e d .
“C ON TI N U OU S
by th e
s tart a
re ach e d .
of
D O WN ”
"minLevel"
i n s tru cti o n or
at
l e ast
"maxLevel"
.
– 26
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
R e fe r to
9. 5. 9
N OTE
1
b e fo re
th e
In
N OTE
2
fo r s to p pi n g
co n tras t
end
of
th e
S i m i l ar
“targetLevel”
,
“
to
th e
fad e .
to
“U P ”
an d
Th e re fo re ,
th e
actualLevel
a fad e
“U P” ”
an d
b e fo re
“ D O WN ”
i n s t ru ct i o n s ,
“fadeRunning ” b i t
“D OWN ”
is
afte r
it
goi ng
i n s tru cti o n s ,
“lastLightLevel”
an d
“minLevel”
re ach i n g
is to
not be
fad e
“maxLevel”
possi bl e
c l e a re d
d i ffe re n t
th e
or
g e ar
h as
to
at
might
been
en d
en d
.
“minLevel”
re ach
th e
of
up
s to pped
CSV 201 8
a
or
“maxLevel”
fad e .
wi t h
d i f f e re n t
ah e ad
of
val u e s
ti m e
(e. g .
fo r vi a
D AP C ( M AS K) ) .
9.5.7
System response to chang es d uri ng a fad e
“fadeTime”, ”extendedFadeTimeBase
If
ch an g e d fad e
d u ri n g
rate
9.5.8 If
a
to
“
fad e
is
fad e
re c al c u l ate d .
d u ri n g
”
th e
d u ri n g
we re
is
re acti o n
th en
Th e
extendedFadeTimeMultiplier
“,
th e
ru n n i n g
n e xt fad e
fad e
•
As
•
in
l e ve l
s h al l
fad e u se
sh al l
th e
fi n i s h
”
“fadeRate”
a n d /o r
wi th o u t
re cal cu l ate d
th e
fad e
ti m e
is
a n d /o r
va l u e s .
th e
d u ri n g
fad e
Th e
“minLevel”
s tart- u p ,
co m m an d s
sh al l
to
be
l e ve l
pen d ed
com m an d s
wi th
“
s h al l
actualLevel be
th e
”
e q u al
s am e
as
if
.
th e
s h al l
p ro ce s s
re acti o n
be
fad e th e
p ro c e s s sam e
sh al l
as
if
be
pen d ed
th e
at
“
actualLevel
l am p ( s )
we re
co n fi rm e d
TR U E
”.
Th e
o p e ra t i n g
at
s tart:
“lampOn ” i s
as
cas e
o f to tal
TR U E ,
l am p
F o r fu rt h e r i n fo rm a ti o n
9. 5.9
at
th e
ph ase .
.
sh al l
soon
s tan d b y,
s tartu p
o p e ra ti n g
i n i ti ate d
to
“actualLevel” Th e
fad e ,
i n i ti ate d
l am p( s )
a
ru n n i n g
System response to chang es d uri ng stand by and startup
minLevel
th e
If
bei n g
a
or
fai l u re ,
as
soon
“lampOn ” a n d
on
“
as
“
lampFailure
lampFailure
” see
”
is
9. 1 6. 3
an d
9. 1 6. 4.
Stoppi ng a fade
An y co m m an d
s e tti n g
one
o r m o re
of th e
fo l l o wi n g
vari a b l e s
“targetLevel” “minLevel” “maxLevel”
•
,
as
we l l
•
as
th e
,
e xe cu ti o n
“ D AP C ( M AS K) ” ,
s h al l
s to p
N OTE
1
Wh e n
a ru n n i n g
Th e
a
fad e
ru n n i n g
i m m e d i ate l y an d
th e
If
ru n n i n g
a
9.6
2
fad e
Th i s
eve n
i m pl i es
is
th e
fo l l o wi n g
co m m an d s
P E R S I S TE N T V AR I AB L E S ” ,
is
if
th e
be
ti m e r
s to p pe d
in
of th e
by
su ch
an
h as
e xe cu te d
s tartu p
th at
val u e
s to ppe d
fad e
sh al l
th e
o f th e
“ I D E N TI F Y D E VI C E ”
fad e .
fad e
Afte r
fi n i s h
“ S AVE
s to ps
co m m an d
g ear s h al l
N OTE
.
of on e
wh i l s t
affe cte d
vari a b l e
appl i cati o n
been
does
n ot
c o n tro l l e r,
s to ppe d ,
ch an g e .
th e
“targetLevel”
fad e
ti m e r
s h al l
be
sh al l
set
to
be
s to p pe d
“actualLevel”
( i f ap p l i cab l e ) .
it
was
pen d i n g
at
“minLevel”
d u ri n g
s tartu p ,
th e
co n tro l
p ro ce s s .
a
case
b o th
“targetLevel”
an d
“actualLevel”
are
e q u al
to
“minLevel”
.
Mi n and max l evel
C h an g i n g
th e
min
or
m ax
l e ve l
s h al l
s h al l
set
s to p
an y
ru n n i n g
fad e ,
b e fo re
th e
s to rag e
o r m ax l e ve l .
“SET M I N
LE VE L (
DTR0
)”
“minLevel”
depen d i n g
on
th e
“DTR0”
val u e :
of
th e
n ew
min
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© I EC
CSV
– 27
•
i f 0 ≤ “DTR0” ≤ PH M : PH M
•
if
•
in
“DTR0” ≥ “maxLevel” al l
“maxLevel”
o r M AS K:
“DTR0”
o th e r cas e s :
“actualLevel” “actualLevel” “targetLevel” “targetLevel” limitError
If
>
0
sh al l
ch an g e d
to
possi bl e.
As
if
•
if
•
in
If
a con seq u en ce,
“DTR0” al l
on
”
M AS K:
an d
h ave
th e
s h al l
as
th e
light
be
“maxLevel”
set
of
a
be
as
o f th e
light
a
n ew
o u tpu t
s e t to
new
min
sh al l
be
ad j u s te d
as
l e ve l ,
s h al l
be
q u i c kl y
as
TR U E .
d epen d i n g
on
“DTR0”
th e
val u e ,
as
fo l l o ws :
re s u l t
of
s e tti n g
a
n ew
m ax
“maxLevel” “actualLevel” .
s h al l
be
ad j u s te d
as
l e ve l ,
s h al l
q u i c kl y
as
be
“targetLevel” “targetLevel” sh al l
ch an g e d
possi bl e.
As
be
re -
to
a
co n se q u e n ce ,
val u e s
can
fo r
be
PHM,
u sed th e y
to
can
co m pen s ate be
m ad e
to
fo r
d i ff e re n c e s
b e h ave
in
a
in
si m i l ar
co n tro l
g e ar
wa y
by
ad j u s ti n g
p ro p e rt i e s .
it
is
E. g.
“minLevel”
if
.
G eneral
co n tro l
g e ar
Th e
sh al l
Th e
ch e ck
c o n tro l
co m m an d
“shortAddress”
is
th e
g ear
sen t
d e vi ce
s h al l
u sin g
ad d re s s i n g
e xe cu te
S h o rt
th e
sch em e
is
i d e n ti fi e d
•
Th e
co m m an d
is
•
Th e
a d d re s s i n g
an d
g i ve n
co m m an d
is
sen t by
using
G ro u p
“gearGroups”
Th e
co m m an d
fo l l o wi n g
Le ve l
sen t u si n g
sen t
is
ad d re s s i n g
R e s e rve d
u sing
n o t d e fi n e d
co m m an d
g ro u p s
(e. g .
can
an d
g i ve n
U n ad d re s s e d
re s e rve d
be
–
L e ve l
i n s tru cti o n s
wi th o u t fad e
–
L e ve l
i n s tru cti o n s
i n i ti ati n g
C o n fi g u rati o n
•
Q u e ri e s
•
S p e ci al
s h o rt
i n s tru cti o n s
–
I n s tru cti o n s
–
Q u e ri e s
e xte n d e d
co m m an d s
g ro u p
an y
ad d re s s e d of
ad d re s s
does
a d d re s s i n g
co m m an d ) .
i d en ti fi e d :
a fad e
co m m an d s
Ap pl i cati o n
if
is
th e
by
a
fo l l o wi n g
not
eq u al
to
not
m atch
an y
of
th e
is
not
ad d re s s i n g .
B ro ad cas t
i n s tru cti o n s
•
see
u n l ess
.
M AS K.
Th e
to
co m m an d ,
.
co m m an d
g ro u p s
•
a
Com m and s
hold:
•
s e tti n g .
o u tp u t
s e t to
of
“minLevel” “actualLevel”
TR U E .
“maxLevel”
an d
co n d i ti o n s
•
re s u l t
new
“DTR0”
d i ffe re n t
Th e
•
an d
”
s h al l
bas i s
0 xFE
b as i s th e
s h al l
co m m an d .
•
)”
“
“maxLevel”
>
th e
“minLevel” g e ar
9.7.1 A
=
o th e r cas e s :
limitError
9.7
DTR0
“minLevel”
<
th e
:
i m m ed i atel y
N OTE
on
i m m e d i ate l y
“actualLevel”
c o n t ro l
re - c al c u l a te d
“minLevel” ≥ “DTR0” “minLevel”
cal cu l ate d
“
an d
be
“ S E T M AX L E V E L (
•
–
201 8
an d
“shortAddress”
– 28
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
9.7.2
Level i nstru cti ons wi thout fade
L e ve l th e
i n s tru c t i o n s
tran s i ti o n
o u tpu t s h al l
Th e s e
•
–
R e l a t i ve
–
•
U P”,
i n s tru cti o n s
th e
Th e s e
0
th e
co m m an d s
R e l a t i ve
(
fad e
sh al l
be
i m m e d i ate l y
cal cu l ate d ;
an d
th e
light
cate g o ri e s :
AN D
S TE P
DTR0
) ”,
U P”,
“ STE P
“ S E T M AX LE V E L (
be
) ”,
fro m
ad j u s ted
“U P”,
–
“ C O N TI N U OU S
i n to
u si n g
TO
i n s tru cti o n s
i n s tru ct i o n s
wh e re
u si n g
d i vi d e d
“G O
are
“targetLevel” “actualLevel”
th e
i n s tru cti o n s
level
l e ve l
a
to
be
–
D O WN
AN D
OFF”
DTR0
)”
as
th e
SCEN E
u si n g
th e
“targetLevel” fad e
sh al l
sh al l
be
cal cu l ate d ;
t i m e /r a t e .
t a ke
p l ace
If
th e
fad e
i m m e d i ate l y
possi bl e.
ca te g o ri e s :
fad e
(
th e
appl i cabl e
“targetLevel”
to
q u i c kl y a s
two
th e
ti m e
sceneNumber
) ”,
fad e
“G O
TO
L AS T AC T I VE
LE VE L”
ra t e
“ D O WN ”
U P”,
“C ON TI N U OU S
D O WN ”
Confi g u rati on in structi ons
C o n fi g u rati o n
9. 7.5
i n s tru cti o n s
can
be
u sed
to
m o d i fy s e ve ral
co n tro l
g e ar pro p e rti e s .
Qu eries
Qu e ri e s
9.7.6
can
be
u sed
to
re q u e s t th e
va l u e
o f s e ve ral
c o n tro l
g e ar p ro p e rti e s .
Speci al com m ands
s peci al
co m m an d s
i n te rpre t th e
9.7.7
a re
s p e ci al
a
g ro u p
of
co m m an d s
th at
are
n ot
ad d re s s ab l e .
Al l
co n tro l
g ear
co m m an d s .
Appl ication extend ed com m and s
Co m m an d s fe atu re s .
wi th
pl ace
“ R E C ALL M AX LE VE L” ,
“ON
LE VE L (
tran s i ti o n
can
l e ve l
“ D AP C
9. 7.4
or
fad e
l i g h t o u tpu t s h al l
Abs o l u te
Th e
t ake
possi bl e.
th re e
LE VE L”,
D O WN ” ,
i n i ti ati n g
s,
e q u al s
s h al l
i n to
“targetLevel”
th e
s h al l
Level i nstru cti on s in iti ati ng a fad e
ti m e
•
“ S TE P
“SET M I N
s h al l
–
q u i c kl y a s
d i vi d e d
wh e re
“targetLevel”
co m m an d s
“R E S E T”,
Le ve l
•
be
i n s tru cti o n s
to
co m m an d s
“actualLevel” an d
are
co m m an d s
C o n fi g u rati o n
9.7.3
as
“ R E C ALL M I N
l e ve l
“STE P
–
can
l e ve l
fad e
“actualLevel”
ad j u s te d
co m m an d s
“OFF”,
wi th o u t
fro m
be
Ab s o l u te
•
CSV 201 8
wi th
th e i r
E ach
o pcod e
opco d e
d e vi c e
0 xFF
typ e
in or
th e
ran g e
fe atu re
0 xE 0
to
re - d e fi n e s
( “ Q U E R Y E XTE N D E D
0 xF F
are
th es e
VE R S I O N
re s e rve d
co m m an d s ,
N U M BE R”) .
fo r
spe ci al
e xce p t See
fo r
9. 1 8
d e vi ce th e
types
co m m an d
fo r
fu rt h e r
i n fo rm ati o n .
9. 8
Com mand i terations
9. 8.1 Th e wi th
G eneral re q u i re m e n ts th e
fo l l o wi n g
of
I EC
62386-1 01 : 201 4
ad d i ti o n s .
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
9. 4
appl y
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
9.8.2 “U P”
“
“D O WN ”
i n s tru cti o n
maxLevel
N OTE
Afte r
1
”,
i te rati o n cau s e
be
th e
200
tran s i ti o n
2
of
co m m an d
If
F i g u re
th at
s tep,
5
ms of
th e
th e
fad e
is
at
rate
an
e ffe ct
ms
ti m e
to ”
–
be
as
at
th e
s ta rt
sh al l
of
co m m an d is
an
s tart
d e te rm i n e d
occu r
an d
“
at
by
targetLevel ± ”
u sin g by
th e
th e
1 )
e xe cu ti o n
val u e s
sh al l
ap p l i cab l e
app l i cab l e
e xe cu te d
“targetLevel”
a
U po n
th e
be
of
of
minLevel
“
th e ”
or
m ad e.
i te rati o n .
acco rd i n g
o cc u rri n g
i te rati o n .
pre cl u d e d
i n s tru cti o n
re s tart e d
s te p ,
a
th i s
cal cu l ate d
“D O WN ”
s h al l
i n i ti al
” =
fad e
or
sen t
u n l ess
i n te rval s
“U P”
“ D O WN ”
be
targetLevel
actualLevel th e
can
i te rati o n ,
200
E ve ry
fad e
“
“
th e re
e xe cu te d
an d
N OTE
an
( fi n al
excl u d i n g
fi rs t “ U P ”
th i s
s te p
co n ti n u e s .
tra n s i t i o n , th e
su ch
e n s u re s
fi rs t
sh al l
i n s tru c ti o n s
of
one
Th i s
th at
s te ps
Th e
– 29
Command iteration of “UP” and “DOWN” commands an d
fi rs t
CSV
201 8
to
ti m e
9. 5. 1
as
to
of
1 /( 2 *
new
fad e
a
be
an d
fad e
fad e
ra te .
rate ,
p art
of
Su bseq u en t
as
th e
re cal cu l ate d
Fi g u re
4,
“fadeRate”
wi th )
long
as
i te rati o n
th e
s h al l
acco rd i n g l y.
th e
afte r
fi rs t
s u ch
e xecu ti o n
of
co m m an d .
ch an g e s
d u ri n g
a
co m m an d
i t e ra t i o n ,
th e
rate
is
not
u sed
d u ri n g
th e
e xe cu ti o n
i te rati o n .
s u m m a ri z e s
th e
re q u i re d
b e h avi o u r.
Th e
i te rati o n s
s tart
at
Cm d
1 ,
an d
en d
at
Ti m e
o u t.
1 /
fade Rate
(2*"
")
1 /"
fadeRate
"
1 /"
fadeRate
"
X S tep
S te p
S tep
Cm d 2
1
3
4
5
6
X
S tep
7
S te p
Cm d
Ti m e
9
out
8
Ti m e
Cm d
ou t
1
IEC
Figure 5 – Timing and response when executing command iteration 9.8.3
DAPC SEQUENCE (deprecated)
“ E N AB LE
D AP C
th at al l o ws
U pon ti m e
e xe cu ti o n of
200
ms
f a d e /e x t e n d e d sh al l
N OTE
Th e
be
arc
th e
D AP C (
of
±
“ E N AB L E 20
fad e
ms
ti m e .
s tarts
o f th e
D AP C
wh i l e Afte r
a
d i re ct
arc
p o we r
co n tro l
( D AP C )
co m m an d
i te ra t i o n
l i g h t o u tp u t.
SE QU EN CE”
th e th e
co m m an d l as t
fad e
th e
co n tro l
i te ra ti o n
of
th e
is
g e ar
sh al l
a c t i ve
s e q u e n ce
te m p o rari l y
i n depen den t
h as
fi n i s h e d ,
th e
u se
of
a
fad e
th e
actu al
o ri g i n al
val u e s
u sed .
As
“D AP C
SEQU E N CE”
d yn am i c co n tro l
fad e
level
po we r
i te rati o n ,
t i m e /ra t e
seq u en ce )”
s h al l
co m m an d .
co n tro l
sh al l
vari ab l e s
be
en d
Th e
co m m an d . d i s c ard e d .
do
n ot
if
D AP C
ch an g e ,
200
th e
ms
D AP C
t i m e /r a t e
el apse
s eq u en ce
“ E N AB L E
fad e
s h al l
can
wi th o u t be
be
th e
ab o rt e d
SEQU EN CE”
set
a n d /o r
co n tro l on
acce p te d
q u e ri e d
g ear
e xe cu ti o n d u ri n g
as
n o rm al .
acce p ti n g of
an
D AP C
a
i n d i re c t
co m m an d
– 30
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
Wh i l e 200
th e
ms
S i n ce
D AP C
s eq u en ce
is
se q u en ce
u ses
th e
D AP C
l i g h t s o u rce
possi bl e.
H o we ve r,
e xe cu ti o n
o f a “ D AP C
(
level
)”
co m m an d
be
re al i s e d
s h al l
s tart a
a fad e
co m bi n ati o n s ,
i t sh ou l d
ti m e
su ch
re s p o n d
as
of 200
ms
th at m i g h t n o t
g e ar m ay s i m pl y ad j u s t th e
i f th e
fad e
h as
fi n i s h e d
by al l
l i g h t o u tpu t as
wi th i n
th e
c o n tro l
q u i c kl y as
re q u e s te d
ti m e .
Mod es of operati on
9.9.1
G eneral
D i ffe re n t
o pe rati n g
“ S E T OP E R ATI N G m ean s
sh al l
m od es
M ODE
(
DTR0
o f “ Q U E R Y O P E R ATI N G
O pe rati n g be
m odes
0 x0 0
a va i l a b l e .
to
g e ar i s
in
9. 9.2 If a
an
I EC
Th e
be
s e l e cte d
cu rre n tl y
se l ected
by
m ean s
of
“operatingMode”
can
co m m an d
be
q u e ri e d
by
M OD E”.
are
d e fi n e d
m odes
0 x80
SPECI FI C
s tan d ard
in
th i s
to
0 xFF
M OD E”
o p e ra ti n g
can
mode
s tan d ard . a re
be
or i n
At
l eas t
o p e ra ti n g
m a n u fac tu re r
u sed
to
m od e
s pe ci fi c.
d e te rm i n e
Th e
wh e th e r
th e
0 x0 0 q u e ry
co n tro l
a m an u fac tu re r s p e ci fi c m o d e .
Operati ng m od e 0x00: stand ard mode
d e vi c e
per th i s
is
in
s tan d ard
s p e c i fi c ati o n ,
9.9.3
m ode
u n ti l
it is
(
“operatingMode”
set i n
an
=
o p e ra ti n g
0 x00 ) ,
mode
i ts
b e h avi o u r s h al l
d i ffe re n t fro m
be
as
is
re q u i re d
0 x0 0 .
Operati ng m od e 0x01 to 0x7F: reserved
O p e rati n g
9.9.4
m odes
0 x01
to
0 x7 F
are
re s e r ve d
an d
sh al l
n o t be
u sed .
Operati ng m od e 0x80 to 0xFF: man ufactu rer speci fic mod es
M an u fac tu re r are
62386
can ) ”.
0 x7F
O pe rati n g
“ Q U E R Y M AN U F AC TU R E R
not
mode,
th e
as
s p e c i fi c
c o ve re d
fo l l o wi n g
•
e ach
fad e .
g ear an d
9.9
acti ve ,
CSV 201 8
by
m odes
th e
b e h avi o u r
sh ou l d
s tan d ard .
of
th e
only
If
a
co n tro l
be
u sed
co n tro l
g e ar
if
g ear
m ay
be
th e is
fe atu re s
in
a
re q u i re d
m an u fact u re r
m an u factu re r
spe ci fi c
by
th e
ap p l i cati o n
s pe ci fi c as
we l l ,
o pe rati n g wi th
th e
62386-1 01 :201 4
an d
e xce p ti o n s :
far
as
th e
co n t ro l
g ear
acce s s e s
th e
bu s,
it
sh al l
ad h e re
to
I EC
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ;
•
th e
co n tro l
co m m an d s
–
g e ar are
sh al l
ad h e re
“ S E T O P E R ATI N G
M ODE
(
al l
s p e ci al
WR I TE NO
Fo r th e
It
is
th i s
9. 1 0
at
l e as t
as
far
as
th e
fo l l o wi n g
th at
be
“ Q U E R Y O P E R ATI N G
th e
vari o u s
e ve n
in
( )
DTR1 , DTR0, data an d
M OD E”,
an d
M OD E”.
(see ),
1 1 . 7) WR I TE
e xce pt
M E M O R Y LO C ATI O N
–
PI NG.
ad d re s s i n g
m an u factu re r
m e th o d s
s pe ci fi c
sh al l
m odes,
appl y,
th e
see
7. 2. 2.
com m an d s
as
s pe c i fi e d
in
o be yed .
Memory ban ks
9. 1 0.1
G eneral
M e m o ry co n tro l wi th i n
s ti l l
) ”,
com m an d s
DTR1 , DTR0, data
co m m an d s
re co m m e n d e d s tan d ard
s p e c i fi cati o n
SP ECI FI C
M E M O R Y LO C ATI O N
R E PLY (
ab o ve
th i s
DTR0
“ Q U E R Y M AN U F AC TU R E R
–
to
co n ce rn e d :
b a n ks
g e ar
a
m e m o ry
in
are a
m e m o ry ban k
fre e l y
s ys te m . b an k
not
l o cati o n s
of
acce s s i b l e Not
al l
m e m o ry
co n s e cu t i ve
al l
co n s e cu t i ve
al l
i m pl e m en te d
s p ace s m e m o ry
l o cati o n s m e m o ry
d e fi n e d b a n ks
need b a n ks
to
be
a re
fo r
n eed
e. g. to
i d e n ti fi cati o n
be
i m pl e m en ted .
re ad ab l e
of
i m pl em en ted .
u sin g
Al l
th e Al s o
i m pl e m en te d
m e m o ry
acce s s
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
co m m an d s . co n tro l
b a n ks
by
can
l e a ve s
th e
al l
m e m o ry
o th e r
– 31
m e m o ry
–
0
is
an d
1
to
ROM
l i m i ted
o f m axi m u m (if
m e m o r y b a n ks
an d
acce s s
acces s
R AM ,
s p ace
b a n ks
b an k
fo r 1 9 8
re ad - o n l y wri te
Wri te
using
m e m o ry
m e m o ry
is
p arts ,
m an u fac tu re r.
i m pl e m e n te d
256
ro o m
9.1 0.2 a
th e
be
i m pl em en t
i ts
of
For
ad d re s s a b l e
m axi m u m
If
P art
g e ar.
e n abl e d
Th e
CSV
201 8
p ro g ram m e d
using
by
m e m o ry
a m e m o ry
th e
m an u factu re r
acce s s
ban k l o cati o n
co m m an d s
can
be
l o c ke d .
of
th e
can
be
M e m o ry
o r N VM .
to
a
255
m axi m u m
b yte s
p re s e n t) ,
an d
of
e ach .
al m o s t
As
re s e r ve s
th i s
64
kB y t e s ,
s t an d ard
m e m o ry
b a n ks
fo r m a n u fac tu re r s p e ci fi c p u rp o s e s
in
o rg a n i z e d
p re s c ri b e s
th e
200
to
ran g e
in
h ow
255,
to
th i s
of [2, 1 99 ] .
Memory map
m an u fac tu re r
co n ten t s h al l
s p e ci fi c
m e m o ry
co m p l y wi th
th e
ban k
in
th e
m e m o ry m ap
ra n g e
of
p ro vi d e d
[2 , 1 9 9 ]
in
Tab l e
is
i m pl em en ted ,
al l o cati o n
of
8.
Table 8 – Basic memory map of memory banks Ad dress
Descri pti on
0 x0 0
Ad d re s s
of
l as t
acces si bl e
Defaul t val u e (factory)
m e m o ry
l o cati o n
F acto ry ran g e
0 x0 1
I n d i cato r
0 x0 2
M e m o ry
[0 x0 3 , 0 xFE ]
b
c
Al s o
Th e
used
b yte
Th e
1
It
c h e c ks u m
Th e
re ad
p o we r
a
in
be
m e m o ry
o n l y.
Th e
co n seq u en ce affe cti n g
Lo cati o n l o cati o n co n tro l “
DTR0
N OTE
th e
val u e
of
d i ffe re n t
a
in
0 xFF
0 xFF
f ro m
R AM
0 x5 5.
a
An y
an d
An s we r
m e m o ry
access
of
th es e
byte s
NO
No
s h al l
e xpl i ci tl y
is
s tate d
be
ch an g e
d e fi n e d
by
a
n . a.
th e
m a n u fa c t u re r.
ban k
s h al l
be
co n tai n s
in
th e
m an u fac tu re r
e xam pl e th e
sh al l
to
s to re
be
s h al l
cycl e
or
we l l
to
a
in
ch an g e
If
case th e
e n ti re
of
a
th e
l as t
acce s s i b l e
acce s s .
th e
th e
th e
g e ar
is
ban k not
M e m o ry
co n tai n s
m e m o ry
of
th e
“ R E S E T M E M O R Y B AN K (
wi th
of
th i s
b yte
m e m o r y b a n k) .
s tati c
co n te n t.
U si n g
a
u sefu l .
l o cati o n
an y
c o rre s p o n d i n g
val u e
u s ag e
co n te n t o f th e
m e m o ry
c o n tro l
l o cati o n
of
of
i m p l e m e n te d ,
th e
l o ck wri te
m e m o ry
" ( l o c ka b l e ) " n ot
as
by
ad d re s s
[0 x0 3 , 0 xFE ] .
s pe c i fi c .
ch an g e d
th i s
th e
ran g e
c h e cks u m
is
u sed
Wh i l e
m a r ke d
g e ar
a
co n te n t
o th e rwi s e .
0 x0 2
val u e
m e m o ry
l ock
DTR0
byte )”
or
i ts e l f
s h al l
d i ffe re n t
fro m
ban k
o th e r o th er
s h al l
th an
be
as
a
co m m an d
l o ck byte .
0 xFF s h al l
is
not
a be
g ear
s h al l
Th i s
l o cati o n
re s e r ve d
l o cati o n
i m pl e m e n te d
re s p o n d
as
if
as
th i s
a
in
e ve ry
n o rm al
l o cati o n
is
m e m o ry m e m o ry not
b a n k,
ban k
is
re s e rv e d
in
o rd e r to
s to p
th e
au to
an d
i m pl em e n te d ,
i n cre m e n t
of
is
l o cati o n .
”.
2
c
a
wh i l e
a
m an u factu re r ( as
l o cati o n s
p o we r
b yte s
re ad - o n l y
a
each
val u e
wri ti n g .
co n tro l
of
u n l ess
0 x0 1
fo r
ROM
M E M OR Y B AN K”.
0 x0 2
fo r
val u e
val u e
b an k wh e re
l o cati o n
l o c ke d
a
L o c ka b l e
be
i m pl em en ted
o n /re s e t
by th e
u sed
m e m o ry
h as
– not
Th e
l o cati o n
cou l d
ban k s h al l
0 x0 0
b a n k.
d e s c ri b e d
be al l
on
ch an g e
An y
ban k co n ten t
“RE SE T
l ocati o n
in
on
b yte
0 x5 5 ,
as
in
be
n e ve r
afte r
o f th e
byte
sh ou l d
N OTE
d e f a u l t /p o we r
val u e
l o cati o n
l o c k b yt e
R e s e rve d
P u rp o s e ,
Reset
th e
M e m o ry
0 xFF
a
m e m o ry
No
a
ban k l o ck byte .
th e
b u rn - i n ,
[0 x0 3 , 0 xFE ]
a
b yt e
RESET val u e b Memory type
D TR 0 .
an d
not
acce s s i b l e .
Wh e n it
ad d re s s e d ,
s h al l
not
Th i s th e
i n cre m e n t
– 32
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
9.1 0.3 In
Sel ecti ng a m emory bank locati on
o rd e r
l o cati o n
Th e
to
m e m o ry in
9.1 0.4
m e m o ry
sh al l
m e m o ry
s e l e cte d
m e m o ry
n o t i m pl e m e n te d ,
or
•
a b o ve
To
th e
s e l e cte d e ve n
if
al l o ws
byte
th e
fi rs t
co m m an d
th an
re ad i n g
va l u e
of
e rro r wh i l e
9. 1 0.5 Wri te
“
a
th e
a
th e
b an k
ban k
n u m ber
an d
by th e
m e m o ry val u e
n u m ber
“DTR0”
in
“DTR1 ”
in
.
Th e
.
can ) ”.
be
Th e
re ad
an s we r
by
s h al l
be
m e an s
th e
val u e
of of
co m m an d
th e
b yte
at
th e
i m pl e m e n te d ,
th e
co m m an d
m e m o ry ban k l o cati o n
of
”
l o cati o n
d ata
th e
to
is
is
bel ow
not
wh e n
re ad i n g
re ad i n g
be
a
sh al l
be
d i s card e d .
If
th e
is
of
byte s it
val u e
fro m
is
at
a
th e
0 xFF,
is
va l u e
l atch e s
an d
th at
DTR1 , DTR0
m e m o ry
sh al l
be
i n cre m e n te d
s h al l
not
by
ch an g e .
o f m e m o ry ban k l o cati o n s .
th at
re ad
(
“DTR0” “DTR0”
O th e rwi s e ,
m u l ti - b yte
i m pl e m e n te d
m u l ti - b yte
ve ri fy
l o cati o n
i m p l e m e n te d .
M E M O R Y L O C AT I O N
n u m ber
DTR0
not
m e m o ry l o cati o n ,
m e ch an i s m
“ R E AD
b an k,
a
bytes
u n l atch e s
m e m o ry
of
th e
th e
b a n k,
m u l ti - byte
b yte s
at
an y
it
is
val u e o th e r
) ”.
th e
e x p e c t e d /d e s i r e d
fro m
al l
ap pl i cati o n
l o cati o n .
co n tro l l e r
An y
sh ou l d
m i s m atch
ch e ck
i n d i cate s
an
re ad i n g .
co m m an d s co n t ro l
are
e xe cu ti o n
wh i l e
c o n tro l
s peci al
g e ar( s ) of
“writeEnableState” On l y
m e m o ry
Memory bank writi ng
co rre c t U pon
of
se tti n g
fo r e as y co n s e cu ti ve
co n s i s te n t
wh e n
is
b an k l o cati o n
m e m o ry
th at
Afte r
co m bi n ati o n
N O.
m e m o ry
th e
m ech an i s m
e n s u re
be
re co m m e n d e d
th e
by
s e l e cte d
l o cati o n
se l ected
l as t acce s s i b l e
an s we r s h al l
Th i s
be
DTR1 , DTR0
(
ban k
•
th e
a
m e m o ry b an k l o cati o n .
an d
one,
l o cati o n ,
re q u i re d .
s e l e cte d
ban k
m e m o ry b an k e xi s ts ,
If
be
m e m o ry b an k s h al l
M E M O R Y L O C ATI O N
ad d re s s e d
th e
ban k
m e m o ry ban k i s
ban k
th e
se l ected
th e
a
th e
Memory ban k read i ng
“ R E AD
If
sel ect
i n side
l o cati o n
A
201 8
th e
co m m an d s
ad d re s s ab l e
“ E N AB LE
to
th e re fo re
M E M O R Y” ,
not
ad d re s s ab l e .
“ E N AB LE th e
WR I TE
ad d re s s e d
In
o rd e r
M E M O R Y” co n tro l
to
sel ect
s h al l
g e ar( s )
be
th e
u sed.
s h al l
set
E N AB LE D .
“writeEnableState” g e ar
WR I TE
an d
co m m an d
sh al l
is
e xe cu te
E N AB L E D , th e
an d
fo l l o wi n g
th e
ad d re s s e d
com m an d s
to
m e m o ry
wri te
to
a
ban k
is
s e l e cte d
i m pl em e n te d , m e m o ry
ban k
l o cati o n :
•
“ WR I TE
M E M O R Y LO C ATI O N
m e m o ry l o cati o n
N OTE
•
1
Th e
val u e
wi th
th at
can
re ad
f ro m
“ WR I TE
M E M OR Y LOC ATI ON sh al l
n o t cau s e
g e ar s h al l
fo l l o wi n g
co m m an d s
“ WR I TE NO
•
be
“
set is
DTR0
th e
( d ata) ” ,
“
DTR1 , DTR0, data
th e
to
m e m o ry
– NO
co n t ro l
th e
RE PLY (
to
Th e
data
ban k l o cati o n
g e ar to
“writeEnableState”
) ”:
val u e
is
co n tro l
g e ar s h al l
co n fi rm
wri ti n g
a
.
n ot
n e ce s s ari l y
DTR1 , DTR0, data
) ”:
data
.
Wri ti n g
a
m e m o ry
re p l y.
D I S AB LE D
i f an y co m m an d
o th e r th an
on e
o f th e
acce p te d :
M E M O R Y LO C ATI O N
R E P LY ( D TR 1 ,
(
an s we r e q u al
l o cati o n
A co n tro l
•
an
D TR 0 ,
DTR1
( D TR 1 ,
D TR 0 ,
d ata) ”
( d ata) ” ,
“
DTR2
( d ata) ”
d ata) ” ,
“ WR I TE
M E M OR Y LOC ATI ON
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
•
“ Q U E R Y C O N TE N T D TR 0 ” ,
I f th e
s e l e cte d
n o t i m pl e m e n te d ,
•
a b o ve
•
l o c ke d
•
n o t wri te ab l e ,
If
th e
th e
to
sh al l
s u bcl au s e
“ WR I TE be
s e l e cte d
to
e n s u re
fo r wri ti n g
Afte r
2
“
“
or
b an k l o cati o n
“DTR0”
th at
afte r al l
a
a
s h al l
not
”
d ata
(
is
bel ow
ch an g e .
b yte s
to
wh e n
m e ch an i s m
n u m ber
DTR0
e rro r wh i l e
N OTE
9. 1 0. 2) ,
or
DTR1 , DTR0, data
)”
sh al l
be
NO
an d
no
m e m o ry
to .
co n s i s te n t
wri ti n g of
m e m o ry l o cati o n ,
l o cati o n Th i s
0 xFF,
“DTR0”
m e ch an i s m
sh al l
al l o ws
be
fo r
i n cre m e n te d
e as y
by
c o n s e c u t i ve
m e m o ry b an k l o cati o n s .
re co m m e n d e d
va l u e
“QU E R Y C ON TE N T D TR 2 ”
is
M E M O R Y L O C ATI O N
wri t te n
m e m o ry
O th e rwi s e ,
wri t i n g
To
–
or
l as t acce s s i b l e
(see
an s we r
l o cati o n
one.
– 33
“ QU E R Y C ON TE N T D TR 1 ”,
m e m o ry b an k l o cati o n
•
th e
CSV
201 8
o f th e
of
it
is
to
a
at
a
m u l ti - byte
i m pl e m e n te d
m u l ti - byte
byte s
ve ri fy
wri ti n g
be
val u e
m e m o ry
th e
th at
h ave
b a n k,
val u e
on l y
been
th e
i n to
acce p ts
m e m o ry n ew
b a n k,
m u l ti - byte
it
is
val u e
acce p te d .
appl i cati o n
e x p e c t e d /d e s i r e d
a th e
l o cati o n .
co n tro l l e r An y
sh ou l d
m i s m atch
ch e ck
i n d i cate s
th e an
wri ti n g .
DTR0
”
is
al s o
i n c re m e n te d
if
a
n o n - i m pl em en ted
m e m o ry
ban k
l o cati o n
is
ad d re s s e d
b e fo re
0 xFF
is
re ach e d .
9.1 0.6
Memory bank 0
M e m o ry
ban k 0
i m pl e m e n ted
M e m o ry th e
in
ban k
co n tai n s
al l
0
co n tro l
s h al l
be
m e m o ry l o ca t i o n s
i n fo rm ati o n
abo u t
th e
co n tro l
g e ar.
M e m o ry
b an k
0
s h al l
be
g e ar.
i m pl e m e n te d
u p to
ad d re s s
u sin g
th e
m e m o ry
0 x7 F i m p l e m e n te d ,
m ap
s h o wn
e xcl u d i n g
in
Tab l e
re s e r ve d
9,
wi th
at
l e as t
l o cati o n s .
Table 9 – Memory map of memory bank 0 Address
Descri pti on
0 x00
Ad d re s s
of
0 x01
R e s e rve d
0 x02
N u m ber
l as t
– n ot
of
l ast
acces si bl e
Defaul t val u e (factory)
m e m o ry
l o cati o n
i m pl em e n ted
acce ssi bl e
facto ry
an s we r
m e m o ry
ban k
facto ry ran g e
0 x03
G TI N
byte
0
(M SB)
a
b u rn - i n
NO
b u rn - i n ,
Memory type ROM
n . a.
ROM
[0, 0 xFF]
fac to ry
b u rn - i n
ROM
0 x0 4
G TI N
byte
1
facto ry
b u rn - i n
ROM
0 x0 5
G TI N
byte
2
facto ry
b u rn - i n
ROM
0 x0 6
G TI N
byte
3
facto ry
b u rn - i n
ROM
0 x0 7
G TI N
byte
4
facto ry
b u rn - i n
ROM
0 x0 8
G TI N
byte
5
facto ry
b u rn - i n
ROM
0 x0 9
F i rm ware
v e rs i o n
( m aj o r)
fac to ry
b u rn - i n
ROM
0 x0 A
F i rm ware
v e rs i o n
( m i n o r)
0 x0 B
I d e n ti fi cati o n
n u m ber
byte
0
0 x0 C
I d e n ti fi cati o n
nu m ber
byte
1
fac to ry
b u rn - i n
ROM
0 x0 D
I d e n ti fi cati o n
nu m ber
byte
2
fac to ry
b u rn - i n
ROM
0 x0 E
I d e n ti fi cati o n
n u m ber
byte
3
fac to ry
b u rn - i n
ROM
0 x0 F
I d e n ti fi cati o n
n u m ber
byte
4
fac to ry
b u rn - i n
ROM
(LS B )
(M SB)
fac to ry
b u rn - i n
ROM
fac to ry
b u rn - i n
ROM
– 34
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
Ad d ress
Descri pti on
Defau l t val u e (factory)
M em ory type
0 x1 0
I d e n ti fi cati o n
n u m ber
b yt e
5
facto ry
b u rn - i n
ROM
0 x1 1
I d e n ti fi cati o n
n u m ber
b yt e
6
facto ry
b u rn - i n
ROM
0 x1 2
I d e n ti fi cati o n
n u m ber
b yt e
7
facto ry
b u rn - i n
ROM
0 x1 3
H ard ware
ve rs i o n
( m aj o r)
facto ry
b u rn - i n
ROM
0 x1 4
H ard ware
ve rs i o n
( m i n o r)
facto ry
b u rn - i n
ROM
0 x1 5
1 01
fac to ry
b u rn - i n ,
ROM
ve rs i o n
(LS B )
b
n u m ber
acco rd i n g
0 x1 6
1 02
ve rs i o n
0 x1 7
1 03
ve rs i o n
N u m ber bu s
bu s
i n te g rate d
co n tro l
fac to ry
n u m ber
of
al l
i n te g rate d
co n tro l
l o g i cal
co n tro l
d e vi ce
u n i ts
in
th e
of
l o g i cal
co n tro l
g e ar u n i ts
in
th e
ran g e
n u mber
of
th i s
l o g i cal
co n tro l
g e ar
R e s e rve d
Ad d i ti o n al
0 xFF
a
R e s e rve d
It
is
re co m m e n d e d
– not
– not
th at
p ro d u ct
n u m ber
ROM
ROM
b u rn - i n ,
ROM
[0 , ( l o cati o n
0 x1 9 ) - 1 ]
NO
n . a.
ROM an s we r
G TI N
ve rs i o n
ROM
i m pl em e n ted
e
i m pl em en ted
th e
to
b u rn - i n ,
an s we r e
g e ar i n fo rm ati o n
n u m ber
b u rn - i n ,
facto ry
i m pl em en ted
c o n tro l
ve rs i o n
ROM
i m pl em en ted
[1 , 64]
ran g e
[0 x80 , 0 xFE ]
n u m ber
[0, 64]
facto ry
unit
ve rs i o n
b u rn - i n ,
facto ry ran g e
[0 x1 B, 0 x7F]
to
acco rd i n g
of
i m pl em en ted
b u rn - i n ,
facto ry
d
unit
I ndex
0 x1 A
al l
unit
N u m ber
0 x1 9
of
acco rd i n g
d e vi ce s
0 x1 8
n um ber
c
g e ar
to
201 8
is
n ot
re - u s e d
NO
n . a.
wi th i n
th e
expe cted
l i fe ti m e
of
th e
pro d u ct
afte r
i n s tal l ati o n .
b
c
d
F o rm at
of
th e
ve rs i o n
n u m ber i s
d efi n e d
in
I EC
F o rm at
of
th e
ve rs i o n
n u m ber
d efi n ed
in
4. 2.
F o rm at
of
not
e
If
P u rp o s e
th e re
s am e
A
bu s
is
sam e
unit
in
fi l l e d
as
Th e
b yte s bu s
Th e
b yte s
byte
7”)
n u m b e r.
in
bo th
byte s
IEC
sh al l
unit
wel l .
e. g .
th e
to
in
to
an d
I EC
an d
(“G TI N
bi n ary.
th e
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
I EC
4. 2.
6 2 3 8 6 - 1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
4. 2.
If
an d
can
al l
l o g i cal
Th e y
p ro b l e m s u sed ,
th e
i n cl u d i n g
u se
e i th e r
u n i ts
s h al l
h a ve
th e
0 x1 9 .
d e vi c e s .
a vo i d
to
u n i t,
i n cl u d i n g
sch e m e
up
m an u factu re r.
bu s
an d
co n tro l
To
co n tro l l e r are
by
on e
up
d e vi c e s
bo th
0 x0 8
E AN ,
i n to
0 x0 3
g e ar
d e fi n e d
ad d re s s i n g
appl i cati o n p ro vi d e d
0 x0 3 th e
be
n u m be r… ) .
fo r co n tro l
Th e
an d
62386-1 03: 201 4
bu i l t
c o n tro l
on
62386-1 01 :201 4
0 xFF.
l o g i cal
g ear an d
l ead i n g
s h are
wh e n
m e m o ry
l o cati o n
th e
1 02
vari o u s
re ad i n g ,
ban k l ayo u t
0 x1 9 .
or
n u m b e rs
an d
th e
Th e
1 03
g e tti n g are
th e
d ata s h al l
co m m an d s
i m p l e m e n te d .
0”
Th e
to
“ G TI N
b yte s
5”)
s h al l
sh al l be
co n tai n
s to re d
th e
m ost
G l o bal
Tra d e
s i g n i fi can t
fi rs t
I tem an d
z e ro e s .
l o cati o n s
0 x0 9
an d
0 x0 A
( “ fi rm wa re
ve rs i o n ” )
s h al l
co n tai n
th e
fi rm ware
ve rs i o n
u n i t.
in
sh al l Th e
n u m be r byte
Th e
by
th ese
d epen d i n g
l o cati o n s
in
d e fi n e d
i d e n ti fi cati o n
bas i c d ata,
( G TI N ) ,
wi th
o f th e
in
of
on e
co n tai n
unique
an s we rs
bytes
N u m ber
is
i n d i cate d
val u e
th an
might
s am e
n u m ber is
m e m o ry b an k l o cati o n s
fo r co n tro l
th e
th i s
( d e fau l t)
i d e n ti fy th e
Th e
ve rsi o n
m o re
G TI N ,
d i ffe re n t
be
an d
val u e s
(e. g .
to
th e
i m pl em en ted ,
is
l o cati o n s co n tai n
0 x0 B
64
b i ts
i d e n ti fi cati o n 7”
an d
co m bi n ati o n
0 x1 2
of
an
n u m ber
u n u sed
o f th e
to
bi ts
( “ i d e n ti fi cati o n
i d e n ti fi cati o n s h al l
sh al l
i d e n ti fi c ati o n
be
be
s to re d
fi l l e d
wi th
n u m ber an d
n u m ber
n u m ber wi th
of
byte
th e
l e as t
0”
bu s
to
“i d e n ti fi cati o n
u n i t,
s i g n i fi can t
p re fe rab l y byte
in
G TI N
n u m be r s h al l
be
s e ri al
“ i d e n ti fi cati o n
0.
th e
n u m ber
th e
unique.
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
Th e th e
b yte bu s
b yte
bu s
u n i t.
u n i t.
Th e
th e
Th e
Th e
b yte th at
ve rs i o n ” )
sh al l
co n tai n
th e
th e
i m pl e m e n ted
I EC
62386-1 01
in
l o cati o n
0 x1 6
s h al l
co n tai n
th e
i m p l e m e n te d
I EC
62386-1 02
co n tro l
l o cati o n
in
in
in
As
0 x1 7
co n tro l
0 x1 8
Th e
l o cati o n Th e
val u e
usi ng
3
s h al l
s h al l
0 x1 A th at
co n tro l
t h e re
th es e an d
co n tai n
s h al l
yi e l d s
9. 5. 2
of
a
h as
th e
a
in
be
th e
th e
h ard ware
ve rs i o n
of
index
unit minus
G TI N g e ar
an d is
of
co n tro l
ra n g e
co n tro l of 1
th i s
n u m be r o f th e
ve rs i o n
n u m be r o f th e
ve rs i o n
be
d e vi ce to
n u m be r o f th e
0 xFF.
u n i ts
i n te g rate d
64.
g e ar
to
n u m ber
u n i ts
i n te g ra te d
i n to
64.
of
i n dex
th e
l o g i cal
n u m ber
is
co n tro l 0
to
g e ar
th e
to tal
d i ffe re n t
s h o rt
on e.
t h re e
l o g i cal
i d e n ti fi cati o n
re p o rte d
acco rd i n g
of 0
ve rs i o n
0 xFF.
62386-1 03
ran g e
ran g e
be
n u m b e r s h al l
l o g i cal
th e
unique
f ra m e
b ac kwa rd
I EC
l o g i cal
in
of
in
co n tai n i n g
co n tro l
of
be
va l i d
bu s
sam e
b ac kwa rd
( o ve rl ap p i n g
s h al l
n u m ber
p ro d u ct th e
n u m be r s h al l
ve rs i o n
n u m ber
Th e
th e
th re e
th e
sh al l
b an k.
be
g e ar
index
th e
re p re s e n t
g e ar u n i ts
might
th e
u n i ts
ve rs i o n
i m p l e m e n te d
u n i ts
co n tai n
m e m o ry
c o n t ro l
th e
b ro ad cas t
1 0 1 : 2 0 1 4 /AM D 1 : 2 0 1 8 ,
th e
th e
i m pl em en ted ,
n u m be r o f l o g i cal
0 x1 9
e xam pl e of
co n tai n
is
n u m ber o f l o g i cal
l o cati o n
an
i m pl em e n ted ,
s h al l
d e vi ce
l o cati o n u n i t.
E ach
th e
9.1 0.7
g e ar i s
i m pl e m e n ts
ad d re s s e s .
0 x1 A
( “ h ard ware
co n tai n
n u m be r o f l o g i cal
d e vi ce s
0 x1 4
s h al l
u n i t.
unit
N OTE
an d
0 x1 5
bu s
b yte bu s
0 x1 3
l o cati o n
If no
b yte
i n to
–
in
in
u n i t.
Th e
l o cati o n
If no
b yte
bu s
th e
in
b yte
bu s
– 35
u n i t.
Th e
Th e
CSV
201 8
as
to
0,
d e vi ce s n u m b e r,
1
IEC
or
2
wi t h e ach
th re e
re p o rts
re s p e ct i ve l y.
62386-1 01 : 201 4
as
n u m ber
Read i n g an d
of
l o cati o n
I EC62386-
fram e ) .
Memory ban k 1
M e m o ry l u m i n a i re
ban k 1
is
re s e rve d
m a n u fac tu re r)
fu n cti o n al i ty
of
th e
for
to
co n tro l
u se
s to re g e ar.
by
an
OE M
ad d i ti o n al Th e
( o ri g i n al
eq u i pm en t
i n fo rm a ti o n ,
co n tro l
g ear
wh i ch
m a n u fac t u re r
m an u factu re r,
h as
no
i m pact
m ay
i m pl em en t
e. g . on
a
th e
m e m o ry
b an k 1 .
If
i m pl e m e n te d ,
i n cl u d i n g
m e m o ry
a d d re s s
m e m o ry m ap
0 x1 0 .
u s ag e
ban k Th e
1
sh al l
fi xe d
fo r l o c ati o n
at
u s ag e
0 x03
to
l e ast fo r
0 x1 0
is
i m pl em en t
l o cati o n s h o wn
th e
0 x00 in
to
Tab l e
m e m o ry 0 x0 2 1 0.
l o cati o n s
an d
th e
up
to
an d
re co m m e n d e d
– 36
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
Table 1 0 – Memory map of memory bank 1 Address
Descri pti on
0 x0 0
Ad d re s s
of
l as t
acces si bl e
m e m o ry
Defau l t val u e (factory)
l o cati o n
RESET Memory val u e type b
facto ry
no
b u rn - i n ,
ch an g e
ROM
ran g e [0 x1 0 , 0 xFE ]
0 x0 1
I n d i cato r
0 x0 2
M e m o ry be
0 x0 3
0 x0 5
G TI N
OEM
0 x0 6
G TI N
OEM
0 x0 7
G TI N
OEM
0 x0 8
G TI N
OEM
0 x0 9
G TI N
OEM
0 x0 A
i d e n ti fi cati o n
Ad d i ti o n al
0 xFF
5
i d e n ti fi cati o n
OEM
0 x1 1
byte
R e s e rve d
co n tro l
– not
a
in
th e
val u e
m e m o ry
d i ffe re n t
ban k s h al l
fro m
(MSB)
0 xFF
0 xFF
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
0 xFF
0 xFF
0 xFF
(LSB )
0 xFF
n u m ber
n u m ber
n u m ber
n u m ber
n u m ber
n u m ber
n u m ber
byte
0
b yte
(MSB)
0 xFF
1
b yte
0 xFF
2
b yt e
0 xFF
3
b yt e
0 xFF
4
b yte
0 xFF
5
b yte
0 xFF
6
byte
0 xFF
7
(LSB )
g e ar i n f o rm ati o n
R AM
0 xFF
0 xFF
n u m ber
c
a
0 x5 5 .
4
i d e n ti fi cati o n
OE M
0 x1 0
byte
byte s
h as
3
i d e n ti fi cati o n
OEM
0 x0 F
byte
L o c ka b l e
l o ck byte
2
i d e n ti fi cati o n
OE M
0 x0 E
byte
th e
1
i d e n ti fi cati o n
OE M
0 x0 D
byte
0
i d e n ti fi cati o n
OEM
0 x0 C
l o ck byte .
wh i l e
byte
a
an y
i d e n ti fi cati o n
OEM
0 x0 B
≥
G TI N
OEM
a
ban k 1
re ad - o n l y
OEM
0 x0 4
byte
a
0 xFF
a
a
i m pl em en ted
an s we r
NO
ch an g e
( l o c ka b l e )
a
a
no
n . a.
ch an g e
a
b
c
P u rp o s e ,
Reset
Al s o
Th e
val u e
used
byte s
i d e n ti fy be
d e f a u l t /p o we r
s to re d
as
in
th e
Th e
b yte s
bytes
p o we r
on
in
u sed
0 x0 3
m e m o ry
access
of
th es e
byte s
s h al l
be
d e fi n e d
by
th e
m a n u fa c t u re r.
0 x0 8
th e
bi t
(“OEM
co n tro l
fi rs t
an d
G TI N
g e ar. fi l l e d
If
0”
th e
wi th
to
“OE M
bytes
l ead i n g
are
G TI N u sed
z e ro e s .
5”)
for
sh ou l d
G TI N
Th e s e
th e
b yte s
be
u sed
byte s
to
sh al l
sh ou l d
be
OEM .
0 x0 9
shou ld
fo r
to
co n tai n i n g
l o cati o n s 7”)
an d
M E M O R Y B AN K” .
s i g n i fi can t
by th e
val u e
val u e .
l o cati o n s
m ost
b yte
are
“RE SE T
p ro d u c t
p ro g ram m e d
n u m ber
afte r
o n /r e s e t
th e
to
0 x1 0
co n tai n
64
i d e n ti fi cati o n
(“OEM bi ts
of
i d e n ti fi cati o n an
n u m be r,
n u m be r b yte
i d en ti fi cati o n it
s h al l
be
n u m ber
s to re d
wi th
0”
of th e
to
th e
“OEM
OEM
l e as t
i d e n ti fi cati o n
p ro d u c t.
s i g n i fi c an t
If
th e
b yte
in
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
“ I d e n ti fi cati o n p ro g ram m e d
Th e
n u m ber
by th e
co m bi n ati o n
9.1 0.8 Th e
an d
u n u sed
bi ts
s h al l
be
fi l l e d
wi th
0.
Th e s e
b yte s
shou l d
be
G TI N
an d
OEM
i d e n ti fi cati o n
n u m ber sh ou l d
be
uniqu e.
m ay
u se
Th e
ad d i ti o n al
m e m o ry
m e m o ry m ap
b a n ks
o f ad d i ti o n al
in
th e
b a n ks
ran g e
s h al l
of
2
to
co m p l y wi th
1 99
Tabl e
to
s to re
8.
200
to
255
are
re s e r ve d
fo r fu tu re
u se
an d
sh al l
n ot be
i m p l e m e n te d .
Reset Reset operati on
co n tro l
(see
Th e
g e ar
Tab l e
N OTE
Fo r
som e
re s e t
s h al l
va ri ab l e s
o p e rati o n th e
o p e rati o n
is
a
o p e rat i o n
t a ke
g ear
co m pl e te ,
re s e t
co n tro l l e r
or
o f th e
can
ms
to
cou l d
at
m ay
none
wai t at l e as t 3 5 0
9. 1 1 .2
o pe rati o n
to
set
al l
va ri ab l e s
to
th e i r
re s e t
val u e s
h ave
m ost m ay
no
300
not
tri g g e r
th e al l
ms
at
to
to
vari ab l e s
re s e t
al l .
co m p l e te .
re s p o n d
affe cte d
e n s u re
e ffe ct
an y
n eeds
o p e rati o n
g e ar h ave
Wh i l e
th e
co m m an d . to
h a ve
u sing
fi n i s h e d
th e
re s e t
a d e fi n e d
th e
o pe rati o n
H o we ve r,
u n ti l
th e
is
in
re s e t
va l u e .
“R E S E T”
i n s tru c t i o n
an d
re s e t o p e rati o n .
Reset memory ban k operati on
co n tro l
g ear
b a n ks
to
N OTE
Fo r
Th e
th i s
s h al l
co n tro l
ap p l i cati o n
sh ou l d
i m pl em en t
1 4) .
p ro g re s s ,
som e
re s e t
i m pl em en t
m e m o ry
o pe rati o n
is
co n tro l
appl i cati o n
wai t
s h al l g ear
co m p l e te ,
i m pl e m e n te d
co n tro l l e r
at
at
or
1 0,1
so
o p e rati o n
m ost
1 0
not
th e
to
set
th e
to
h ave
no
an y
o p e ra ti o n
at
Wh i l e
th e
co m m an d .
fo r
al l
g ear
al l
u n l o c ke d
m e m o ry
al l .
a
s p e ci fi c
enough
re s e t
ti m e
o p e rati o n
H o we ve r,
h ave
“ R E S E T M E M O R Y B AN K (
al l o w
of
m e m o r y b a n ks .
e ffect
co m pl e te . to
co n te n t
th e
m e m o ry b an k l o cati o n s
re s e t
th e
as
cou l d
s
to
b y l o c ki n g
re s p o n d
affe c te d
u si n g
s
o p e ra ti o n
fo l l o we d
m ay
tri g g e r
b a n ks ,
l e as t
th i s
o f th e
can
re s e t
9. 1 0) ,
t a ke m ay
none
m e m o ry
fo r
a
(see
b an k l o cati o n s
o p e ra ti o n th e
sh ou l d
sh al l
t h e i r re s e t va l u e s
p ro g re s s ,
An
7”
Reserved mem ory banks
9.1 1 .1
A
byte
i n fo rm ati o n .
M e m o r y b a n ks
An
–
OEM.
of OEM
m an u factu re r
9.1 0.9
A
– 37
Manufactu rer speci fi c mem ory ban ks
ad d i ti o n al
9.1 1
CSV
201 8
a d e fi n e d
m e m o ry
DTR0
to
u n ti l
)”
fi n i s h
in
re s e t
val u e .
b an k,
or
i n s tru cti o n th e
is
th e
re s e t
fo r an d
al l it
m e m o ry
b an k o pe rati o n .
9. 1 2 If
System fai lu re
th e
co n tro l
g ear
d e te cts
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 , sh al l
be
cal cu l ate d
“targetLevel”
s h al l
on
th e
t ake
b as i s
p l ace
a
of
s ys te m
fai l u re
(see
“systemFailureLevel” “systemFailureLevel”
4. 1 1 )
an d
.
i m m ed i atel y
an d
th e
light
Th e
o u tpu t
I EC is
62386-1 01 : 201 4
not
t ran s i ti o n s h al l
be
fro m
ad j u s te d
to
as
possi bl e.
If
“systemFailureLevel”
On
re s to ra ti o n
o f th e
is
bu s
M AS K,
idle
th e
co n tro l
vo l tag e
th e
g ear sh al l
co n tro l
n o t re act to
g ear s h al l
a s ys te m
n o t re act.
an d
“targetLevel” “actualLevel”
M AS K,
fai l u re .
q u i c kl y
as
– 38
“systemFailureLevel” “ Q U E R Y S YS T E M
Wh e n
bu s
po we r
p o we r- o n
can
is
sh al l
N OTE
o f al l
is
done
to
Power on
Afte r
an
4. 1 1 . 1 ) ,
•
th e
e xte rn al
th e
sh al l
s ys te m
sh al l
re l ati n g
(see
i ts
e n ab l e
s h al l
be
s topped
•
“powerCycleSeen”
sh al l
be
s e t to
•
“actualLevel”
•
“lampOn”
•
“limitError”
•
“targetLevel”
•
th e
co n tro l
Al l
“
set to
be
m ay
Th e
not
DTR0
an d
LE VE L (
)”
b e l o w.
co n tro l
g e ar,
co n fo rm
c o n tro l
g e ar
s h al l
C o n s eq u e n tl y, i n cl u d i n g
to
th e
fo l l o w
th e
th e
va ri ab l e
b u s - p o we re d
co n tro l
re q u i re m e n ts
of
th e
i t.
th i s
vari abl e
c o n tro l
is
n o rm al l y
62386-1 01
sh al l
not
appl i cabl e
fo r
bu s
p o we re d
g e ar.
an d
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
be
d i sabl ed
wi th
fo r
th e
al l
fo l l o wi n g
m e m o ry
e xce pti o n s :
b a n ks
an d
th e
l o ck
ke e p i n g
th e
l am p
o ff;
0 x0 0 ;
pre h e ati n g
s h al l
in
be
th e
l am p
ke p t a t 0 x 0 0
Tab l e
va r i a b l e s
be
c a n c e l l e d /r e s e t ;
F ALS E ;
s tart ”
an d
TR U E ;
0 x0 0
se t to
m en ti o n ed
s h al l
201 8
F ALS E ;
set to
actualLevel
co l u m n .
co l u m n
be
s h al l
vari ab l e s
val u e
be
s e t to
g e ar
p re h e a ti n g ,
•
sh al l
s h al l
of
al l an d
to
I EC
s tate
ti m e rs
be
CSV
© I EC
0 xFF;
al l
sh al l
F AI LU R E
b u s - p o we re d
9. 1 3
m o s t re ce n t co n fi g u ra t i o n ,
•
ru n n i n g
fai l u re ,
al th ou g h
co n d i ti o n s
c yc l e
re tai n
wri te
s e t to
test
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
“ S E T S YS TE M
s u bcl au se
N e ve rth e l e s s ,
co m m an d s
s e p arate
ban k
be
a
in
u sed .
wi th
IEC
re s p e c t i ve l y.
“systemFailureLevel”
p o we r
d e vi c e
m e m o ry
byte
not
th e
avo i d
9.1 3
afte r
“systemFailureLevel”
I m pl em en ti n g
d e vi ce s ,
is
q u e ri e d
LE VE L”
d e fi n ed
m ai n tai n
s p e ci fi cati o n s
s e t an d
re s to re d
p ro ce d u re
“systemFailureLevel” g e ar,
be
FAI LU R E
–
1 4
th at
co n s i d e re d .
sh al l
a re
Th e
bu t
th e
c o n t ra ry to
be
set
m a r ke d
to
wi th
vari abl e s
l am p
n o rm a l
s h al l
s tartu p
th e
val u e
“n o
ch an g e ”
d e fi n e d
in
not
i n d i cate d in
th e
i m pl e m e n ted
i g n i te .
Wh i l e
acti vi ty.
in
th e
po we r
p o we r
P arts
on
2 xx
on
va l u e
sh al l
be
i n cl u d ed .
Bu s
p o we re d
d e vi c e s
If
a
th e
l e ve l
co n tro l
sce n e
eq u al s
If
TO
“G O
co n tro l
d e vi c e s
fo l l o wi n g
s h al l
co m m an d
M AS K an d
SCEN E
(
g e ar s h al l
ac t i va te
th e
p o we r
on
l e ve l
i m m e d i atel y.
For
e x te rn al l y
p o we re d
holds:
o th e r
th an
o th e r th an
sceneNumber
)”
d i s card
th e
“G O
TO
SCEN E
D AP C ( M AS K)
wh e re
co m m an d
th e an d
is
val u e
(
sceneNumber
)”
acce p te d
of
th e
co n ti n u e
as
i t s h al l
scen e if no
e q u al s
l e ve l
wh e re
be
th e
va l u e
of
th e
acce p te d ,
th e
e xecu te d .
M AS K
co n tro l
is
co m m an d
h as
been
acce p te d .
I f D AP C ( M AS K)
N OTE
Th e
1
S i n ce
co n tro l
be
set
e xe cu te d ,
“actualLevel ” =
g ear
“targetLevel” s h al l
is
s h al l
on
to
“
th e
0,
If
co m m an d
l e ve l be
co n tro l
e xe cu te d
is
th e
g ear s h al l
ke e p s
p o we r
as
q u i c kl y a s
acce p te d
i m m e d i ate l y an d
th e
th e
on
powerOnLevel “actualLevel”
“
”.
ad j u s te d
co n tro l
e ffe cti ve l y
of
lastLightLevel be
a
th i s
ac t i va te
b as i s
l i g h t o u tpu t s h al l
s h al l
th e
”.
s to p
l am p
l e ve l If
“
s h al l
an y s ta rt u p
acti vi ty.
o ff.
acco rd i n g
to
Tab l e
1 1
powerOnLevel “targetLevel” ”
be
set
e q u al s
to
by
cal cu l ati n g
M AS K,
“
th e
targetLevel
i m m ed i atel y
an d
”
th e
possi bl e.
be fo re
co n t ro l
th e
p o we r
g e ar s h al l
on
l e ve l
is
n o t ac t i va te
ac t i va te d , th e
th i s
p o we r o n
com m an d
l e ve l .
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 39
–
201 8
Table 1 1 – Power on timing Power on system response Lam p
G re y
540
are a
on
2
o b e ye d
>
l e vel
is
Th u s ,
th e re
is
an
so
possi bl e
th at
a
systemFailureLevel “systemFailureLevel”
s ys te m
”
“powerOnLevel”
re ce i vi n g on l y
is
d u ri n g
wh i ch
or
a
<
660
ms
ms
c o n t ro l
D AP C ( M AS K)
an d
ON
th e
fa i l u re
not
can
“QU E R Y P O WE R
Af te r
i n te rval
D AP C ( 0 x0 0 )
ms
ms
d e vi ce can
can
be
sen d
used
a
to
l evel
c o n tro l
p re v e n t
fro m
com m an d g oi n g
wi l l
be
au to m ati cal l y
wh i c h
to
.
“
sh al l
540
660
i m m e d i ate l y,
“powerOnLevel” It
Maxi mu m ti me
o ff
P o we r
N OTE
Mi ni mum ti me
th e
be
fi rs t
set
1 6
d e te cte d
bi t
to
l e ve l
an d
b e fo re
th e
p o we r
“targetLevel”
th e
po we r o n
LE VE L”
re s p o n d
is
M AS K,
s h al l
q u e ri e d
n ot be
wi th
is
on
l e ve l
h as
re cal cu l ate d
been
on
re ach e d .
th e
bas i s
If of
a c ti va t e d .
“ S E T P O WE R
ON
LE VE L (
DTR0
)”
an d
re s pe cti ve l y.
fo rward
fram e s
on
th e
d e s cri b e d
fram e
in
i n te rface I EC
afte r
p o we r- o n ,
th e
62386-1 01 :201 4
c o n t ro l
an d
g ear
I EC62386-
1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 .
9.1 4 Assig ning short addresses 9.1 4.1
General
“shortAddress” be
sh al l
set
be
d e ri ve d
on
“ S E T S H O R T AD D R E S S
•
if
•
if
•
in
data data al l
9.1 4.2 A
“DTR0”
or
co n tro l l e r ad d re s s e s
g ear
)”
as
M AS K:
=
1 xxxxxxxb
“DTR0”
d epen d i n g
“ P R OG R AM
on
th e
com m an d
S H O R T AD D R E S S
(
u sed.
data
It
)”
sh al l or
fo l l o ws :
M AS K ( e ffe c ti ve l y d e l e ti n g
o r xxxxxxx0 b :
( 0 AAAAAA1 b ) :
sh al l
i m pl em en t
i d e n ti fi e d
to
d e te ct
to
(
“ I N I TI ALI S E
(
no
th e
s h o rt ad d re s s )
ch an g e
0 0 AAAAAAb .
) ”.
D I S AB L E D ,
•
E N AB LE D ,
•
WI TH D R AWN ,
fo l l o wi n g
is
It
)”
i n i ti al i s ati o n
s tate ,
onl y
a s e t o f co m m an d s
i d en ti fy
cau se
not in
a
co n tro l
th e
h ave
“ R AN D O M I S E ” ,
•
“ S E AR C H AD D R H
was
g e ar
in
are
wh i ch ,
e n abl ed
a va i l a b l e
on
in
ad d i ti o n
to
th at al l o w an
th e
bu s
an d
th e
o th er
appl i cati o n
as s i g n
“ C O M P AR E ”
) ”,
g e ar to
possi bl e
is 1 5
Ad d i ti o n al l y,
l e ave
va l u e s
th e
fo r
e n te re d
min a
±
1 ,5
power
i n i ti al i s ati o n
wi th
th e
min
afte r
s h o rt
cycl e
or
s tate
“initialisationState”
co m m an d th e
th e
:
s tate ,
are
an d
ye t i d e n ti fi e d
i n i ti al i s ati o n
an d
wi th d rawn .
co m m an d s :
“ WI TH D R AW”
“ S E AR C H AD D R M
(
data
)”
an d
“ S E AR C H AD D R L (
data
)”
l as t
co m m an d
i m m e d i ate l y.
s tate ;
co m m an d s
data
wh i ch
s tate ;
i n i ti al i s ati o n
(
s tate
au to m ati cal l y
e xe cu te d .
co n tro l
i n i ti al i s ati o n
(s peci al )
•
en d
th re e
i n i ti al i s ati o n
in
te m p o rary
sh al l
com m an d
g ear s h al l
•
an
s tan d ard ,
u ni quely
s tate
device device
in
th i s
d e vi ce s .
“ TE R M I N ATE ” s h al l
co n tro l
in
an d
th ese
i n i ti al i s ati o n
“ I N I TI ALI S E
Th e
DTR0
or
of
Random address allocation
co n tro l
Th e
(
=
o th e r cas e s
o pe rati o n s
Th e
“DTR0”
or
data
fro m
re c e i p t
– 40
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
•
“ P R O G R AM
S H O R T AD D R E S S
(
data
) ”,
“ VE R I F Y S H O R T AD D R E S S
(
data
CSV 201 8
)”
an d
“ Q U E R Y S H O R T AD D R E S S ”
•
“ I D E N TI FY D E VI C E ”
N OTE
“I D E N TI FY D E VI C E ”
9.1 4.3
D u ri n g
i ts el f
not
an
i n i ti al i s ati o n
co m m an d ,
bu t
typi cal l y
used
d u ri n g
i n i ti al i s ati o n
G eneral
i d e n ti fi cati o n
no
ap pro p ri ate ,
vari abl e s
t h e re
side
are
Wh e n
no
” an d
I d e n ti fi cati o n I N I TI ALI S E
(
“
a
1 0
i d e n ti fy th e
N OTE
Th e
Wh i l e
s h al l
be
affe c te d
te m p o rari l y
u n less
i g n o re d ,
so
th at
expl i ci tl y
s tate d
afte r
i d en ti fi cati o n
th e
o th e rwi s e .
Wh e re
h as
en ded,
),
be
th e
we l l
light
as
s to ppe d ,
an d
“
th e
ou tpu t
m ay
actualLevel
s to ppe d
R E C ALL M I N
h as ”
” as
u pon
LE VE L,
th e
be
bei n g
at in
an y
l e ve l
be twe e n
o ff
an d
1 00
%,
e ffe c t te m p o rari l y i g n o re d .
e xe cu ti o n
of
an y
i n s tru cti o n
o th e r
th an
R E C AL L M AX L E VE L o r I D E N TI F Y D E VI C E .
light
co m m an d
”
o u tpu t
s h al l
be
sh al l
be
e xe cu te d
ad j u s te d
as
q u i c kl y
as
possi bl e
to
( i f ap p l i cab l e ) .
Meth od on e: si ng l e instructi on
I d e n ti fi c ati o n re s tart
be
a c t i ve ,
s h al l
device
actualLevel
9.1 4.3.2
is
maxLevel
i d e n ti fi cati o n
re fl e ct “
vari ab l e s
can
e ffe c ts .
i d e n ti fi cati o n
minLevel
Af te r
by
I d enti fi cati on of a devi ce
9.1 4.3.1
“
is
can s
±
be
1
s
s e l e cte d
actu al
s tarte d ti m e r. co n t ro l
p ro ce d u re
i d e n ti fi cati o n
by sen di n g
Wh i l e
is
is
th e
g e ar s h al l
m an u f ac t u re r
ac ti ve ,
th e
th e
i n s tru c t i o n
ti m e r ru n .
is
“ I D E N TI FY D E VI C E ”.
ru n n i n g ,
I f th e
a
p ro c e d u re
ti m e r e xp i re s ,
Th i s
en abl i n g
i d e n ti fi cati o n
s h al l
an
s tart o r
o b s e r ve r
sh al l
to
s to p.
s p e ci fi c.
co n tro l
g ear
s h al l ,
” an d
“
wi th o u t
i n t e rru p ti n g
th e
i d e n ti fi cati o n
p ro ce d u re :
•
on
R E C ALL M I N
•
on
R E C ALL M AX LE VE L:
Wh e n
i d e n ti fi cati o n
can ce l l e d
9.1 4.3.3
•
.
on
set “
o f h o w to
u se
actualLevel
set “
s to ppe d
R E C AL L M I N light
by
th e
o u tp u t
is
LE VE L: as
set
q u i c kl y
“
set
R E C ALL M AX LE VE L: l i g h t o u tp u t as
Al te rn ati ve l y, i d e n ti fi cati o n
It
an d
see
is in
th e
“
” to
targetLevel
co n tro l l e r,
”
to
th e
“
minLevel “
”;
maxLevel
”.
co rre s p o n d i n g
ti m e r
s h al l
be
An n e x A.
co n tro l
g e ar
possi bl e %,
“
th e n
”
to
th e
actualLevel
possi bl e
s h al l
to
e xe cu te
”
co n tro l
an d i ts
“
targetLevel
PH M
l am p
an d
1 00
g e ar s h al l :
l e ve l .
s h al l
“
be
”
to
I f,
“
minLevel
h o we ve r,
”,
an d
PH M
is
te m p o rari l y s wi tch e d
targetLevel
”
to
“
maxLevel
”,
th en
ad j u s t
not
vi s i b l y
o ff i n s te ad ;
an d
th e n
ad j u s t
%.
“ I D E N TI FY D E VI C E ”,
s tarti n g
or
re - tri g g e ri n g
th e
p ro ce d u re .
acce ptab l e an
q u i c kl y as
th e
actualLevel
as
on
N OTE
”
ap p l i cati o n
n o t D I S AB L E D ,
1 00
execu ted
an
co m m an d s ,
s i g n i fi can tl y d i ffe re n t fro m
th e
actualLevel
targetLevel
Meth od two: u si ng “RECALL MAX LEVEL” and /or “RECALL MIN LEVEL” (d eprecated)
“initialisationState”
th e
•
is
i m m ed i atel y
Fo r e xam pl e s
Wh i l e
LE VE L:
for
al te rn a ti n g
I d e n ti fi c ati o n
s h al l
be
th e
p ro ce s s
of
i d e n ti f yi n g
i n d i vi d u al
co n tro l
g ear
to
depen d
upon
bo th
co m m an d s
seq u en ce.
s to ppe d
i m m e d i ate l y wh e n
one
of th e
fo l l o wi n g
co n d i ti o n s
hold:
bei n g
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
•
th e
•
CSV
– 41
–
201 8
“initialisationState”
u pon
e xe cu ti o n
of
ch an g e s
an y
to
D I S AB LE D ;
i n s tru cti o n
o th e r
th an
I N I TI ALI S E
(
device
),
R E C AL L M I N
a
s h o rt
LE VE L,
R E C AL L M AX L E V E L o r I D E N TI F Y D E VI C E .
Fo r e xam pl es
9.1 4.4
o f h o w to
use
th e
co m m an d s ,
see
An n e x A.
Direct address allocation
“ S E T S H O R T AD D R E S S ad d re s s e d
(
DTR0
)”
can
be
u sed
to
d i re ct l y
p ro g ram
a d d re s s
to
th e
g e ar.
9.1 5 Failure state behaviour If
th e
co n tro l
i n te n d e d fo l l o wi n g
Th e an d
co n tro l co n tro l
N OTE
If
of
Fo r
g e ar th e
in
b e twe e n
a
d am ag e
fa i l u re
fai l u re
s tate ,
co n tro l
in
wh i c h
g ear
o p e ra t i o n
fai l u re )
s tate
as
th at
“actualLevel”
co n tro l by
“targetLevel”
cal cu l ate
i n s o far
g ear
l i m i ti n g
is
“actualLevel”
b e twe e n
a
a n d /o r
s h al l
l am p
e xam pl e ,
th e rm al
th e
is
fai l u re
it
of
s h al l
th e
l am p( s )
re act
to
is
l e ve l
not
possi bl e
co m m an d s
in
as th e
way:
re l ati o n s h i p
ri s k
g e ar
( l am p
ight
in
acco rd a n ce
p rac ti ca b l e .
an d
m i g h t,
th e
re s o l ve d , an d
is
As
a
l i g h t o u tpu t co u l d
on
d e tecti n g
an
wi th
th e
co n s e q u e n ce
co m m an d s
of
th e
fau l t,
e xe cu te d , th e
n o rm al
te m p o rari l y ch an g e .
e xces si vel y
high
te m p e ratu re ,
p ro te ct
i tsel f
f ro m
th e
ou tpu t.
th e
co n tro l
l i g h t ou tpu t
.
g ear
s h al l
re - e s tab l i s h
th e
n o rm al
re l ati o n s h i p
9.1 6 Status information 9.1 6.1 E ach
General co n tro l
Tabl e
g e ar
s h al l
expose
i ts
statu s
as
a
co m bi n ati o n
of
d e vi ce
p ro p e rt i e s
as
g i ve n
in
1 2.
Table 1 2 – Control gear status Bi t 0
2
3
4
5
6
7
d e vi ce
s i tu ati o n
s tatu s
“lampOn”
is
“limitError” “resetState”
" YE S "
9. 1 6. 2
"1 "
=
" YE S "
9. 1 6. 3
TR U E ?
"1 "
=
" YE S "
9. 1 6. 4
is
TRU E ?
"1 "
=
" YE S "
9. 1 6. 5
is
"1 "
=
" YE S "
9. 1 6. 6
"1 "
=
" YE S "
9. 1 6. 7
"1 "
=
" YE S "
9. 1 6. 8
"1 "
=
" YE S "
9. 1 6. 9
is
TRU E ?
TR U E ?
TRU E ?
“shortAddress”
is
M AS K?
“powerCycleSeen”
can
be
TRU E ?
See
=
is
is
Val u e "1 "
“fadeRunning”
is
q u e ri e d
wi th o u t d e l ay u n l e s s
9.1 6.2
TR U E ?
u sing
“ Q U E R Y S T ATU S ” .
e xp l i ci tl y s tate d
Th e
bi ts
s h al l
re fl e c t
th e
actu al
o th e rwi s e .
Bit 0: Control gear failure
A co n tro l o pe rate
N OTE
“controlGearFailure” “lampFailure”
1
Th e
Descri pti on
g e a r fai l u re
as
E xam pl e s
I f a c o n tro l
acco rd i n g
to
th i s
s tan d ard
is
a
s i tu ati o n
in
wh i ch
th e
co n tro l
i n te n d e d .
are
m ai n s
g e ar fa i l u re
un der
is
vo l tag e ,
d e te cte d ,
ove r
te m p e rat u re ,
u n e xpe cte d
“controlGearFailure”
wat ch d o g
sh al l
be
ti m e rs
s e t to
f i ri n g
TR U E .
etc.
g e ar
can n o t
– 42
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
If
th e
fai l u re
is
no
“controlGearFailure” C o n tro l
g e ar fai l u re
9.1 6.3 A
fai l u re
i n ten d ed
d e tecti o n
to
m e th o d on
If
fai l u re
l am p
d e te cte d cas e be
th e
wi th
If
“
an d
l am p
s ti l l
th e
d e tected ,
se t to
an d
n o rm al
o pe rati o n
h as
been
re s u m e d ,
FALS E .
d e te cte d
F ALS E .
is
fro m
th i s
l am p
an d
is
s ta n d ard
i n d i cate d
type
l ate s t t ake s
a l am p
is
a
l ate s t afte r 3 0
s i tu ati o n
l am p
l am p
(see
s.
30
s
fa i l u re
to
wi th
wh i ch
d i sco n n ect,
wh e n
l o n g e r th an p h as e
in
co n n e cti o n
or
th e
l am p
l am p
u n l ess
can n o t
d e fe cts .
e xpl i ci tl y
be
Th e
s tate d
o pe rate d minimum o th e rwi s e
1 1 . 5. 1 9) .
“lampFailure”
afte r
s tartu p
is
i n co rre c t
fai l u re
d e te cte d ,
o f th e
fai l u re
som e
s i tu ati o n
ch an g e s
fo r
to
e xam pl e
l i g h t s o u rce
ph as e
en d
lampFailure
l am p
fo r
i n d i cated
s tartu p
se t at th e
A to tal
be
acco rd i n g
due
d epen d i n g
a
sh al l
be
Bi t 1 : lamp fai l u re
l am p
as
l on g er
s h al l
CSV 201 8
30
th e
no
s,
sh al l th e
be
set
co n tro l
to
TR U E .
g ear
fo r e xam p l e
is
not
fo r H I D
Lam p in
fai l u re
s tan d b y
l am ps ,
s h al l
(see
be
9. 2) .
“lampFailure”
In
s h al l
c o r re c t va l u e .
l i g h t ou tpu t.
A p a rt i al
l am p
fai l u re
is
a
l am p
fai l u re
l i g h t o u tp u t.
”
is
TR U E ,
h as 0 x0 0
th e
i m p ro ve d . to
co n tro l Th i s
g e ar
ch eck
a g re at e r va l u e .
sh al l s h al l
p e ri o d i cal l y be
e xe cu te d
Afte r a s u cce s s fu l
ch e ck at
s tartu p ,
to
l eas t
d e te rm i n e wh e n e ve r
“lampFailure”
wh e th e r “
th e
targetLevel
s h al l
be
”
s e t to
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 43
–
201 8
Bus
i n t e rf ace
Com m an d t u rn
Li g h t
on
th e
to
l am p
o u tpu t
Li g h t
on
Li g h t
off
TRU E
lampOn
F AL S E
TRU E
C as e
lampFailure
A
F AL S E
TRU E
fadeRunning
F AL S E S ta rt u p
i n cl u d i n g
val i d ati o n
TRU E
lampOn
F AL S E
TRU E
C as e
lampFailure
B
F AL S E
TRU E
fadeRunning
F AL S E
Val i d ati on
S tart u p
<0,3
N o rm al S tan d by
s
o p e rati o n
S tartu p F a i l u re
Lam p
f ai l u re
N o rm al
p re s e n t
wh e n
e n te ri n g
stan d by
o p e rati o n
F a i l u re
IEC
Fi g u re 1 1 – Correlati on between “ lampFailure ”, “ lampOn ”, an d “ fadeRunning ” bits Th e
s tartu p
co n ti n u i n g an d
appl i es
“
•
th e
in
l am p
s tartu p
F i g u re
“
•
th e
th i s
s
N OTE
C as e
l am p
s i tu ati o n
th e
1 1
For
light no
part o f th e
m ay
is
b e fo re
val i d ati o n fai l u re .
e n te ri n g
l o n g e r th an
e xcl u d e
F AL S E
th e
th e
b e fo re
t a ke s
al s o
th at
Th i s
th e
l am p
b e h avi o u r
s tan d by,
0, 3
is
s tabl e
is
i l l u s trate d
an d
e m i tti n g in
light
F i g u re
1 1
be fo re
C as e
A
or
s.
val i d ati o n
is
type fo r
e n te ri n g
th an
shou l d
Th i s
of
th e
l am p
in
th e
fo l l o wi n g
s i tu ati o n ,
i l l u s trate d
0, 3
be
i m pl i es
s tan d b y an d ,
s.
p art
th at
of
“
th e
n o rm al
lampOn
”
o p e ra ti o n
might
be
an d
i n co rre c t
sh al l fo r
a
be
e xe cu te d
m axi m u m
of
fi n i s h e d .
i l l u s trate s
s o u rc e
l ess
va l i d a t i o n
s tartu p .
s u ppo rt
I EC
or
si tu ati o n s :
t a ke s
val i d ati o n
ab o ve .
is
”
th e
B:
afte r
Fi g u re
th e
TR U E
val i d ati o n
d e s cri b e d
th e re
is
p h as e
1 1
u n ti l
”
i n cl u d e
o p e ra ti o n
fo l l o wi n g
val i d ati o n
i m m ed i atel y 0, 3
th e
lampFailure
•
In
to
s h al l
n o rm a l
lampFailure
•
Th e
ph as e
wi th
th e
e ffe ct
“ u n kn o w n
th e
l am p
6 2 3 8 6 - 2 xx s e ri e s .
of
“
lampFailure
light
fa i l u re
s o u rce
bi t,
th i s
”
on
“
lampOn
typ e ” , s h al l
”
an d
th e re
be
“
fadeRunning
sh al l
m ad e
be
”
bi ts
s u pp o rt
expl i ci t
in
th e
fo r
th e
fo r
s c e n a ri o s
th i s
bi t.
If
c o rre s p o n d i n g
– 44
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
For
th e
light
e xcl u d ed m ad e
th i s
e xp l i ci t i n
9.1 6.4
In
9.1 6.5 th e
typ e
light
th e
sh al l al l
s o u rce ” , If
t h e re
p art o f th e
th e re
is
m ay
s u p po rt
I EC
be
fo r
s u p po rt
th e
l am p
fo r
th i s
fa i l u re
bi t.
bi t,
Te s ti n g
th i s
s h al l
is be
6 2 3 8 6 - 2 xx s e ri e s .
be
s e t to
F ALS E
o th e r cas es
wh e n
i t sh al l
be
th e
se t to
l am p
is
o ff,
d u ri n g
s tartu p ,
an d
in
case
o f to tal
l am p
TR U E .
Bit 3: l im i t error l as t
re q u e s te d
targ e t
l i m i tati o n s ,
or
“
th e
light type .
co rre s p o n d i n g
“maxLevel” “maxLevel”, limitError If
“n o
s o u rce
Bit 2: l amp on
“lampOn” fai l u re .
If
s o u rce
fo r
CSV 201 8
l as t
”
ta rg e t
s h al l
l e ve l
l e ve l
h as
“targetLevel” be
s e t to
re q u e s te d
been
h as
m o d i fi e d
been
in
m o d i fi e d
acc o rd an ce
due
to
a
wi th
ch an g e
of
“minLevel” “minLevel”
or or
TR U E .
by
“ D AP C
(
level
)”
eq u al s
“ M A S K” ,
“
limitError
”
s h al l
n ot
ch an g e .
In
al l
o th e r cas es
9.1 6.6
“
limitError
”
sh al l
be
ru n n i n g . u n ti l
th e
en d
of
th e
sh al l
“
In
re s e t
al l
”
va l u e
al l
to
F ALS E
be
ti m e,
be
set
e xcept
to
TR U E
re g ard l e s s
set
be
to
TR U E
if
of
al l
at th e i r re s e t val u e .
co l u m n
o th e r cas es
fo r
th e
fro m
wh e th e r
ti m e
th e
d u ri n g
beg i n n i n g
“targetLevel”
wh i ch
of
th e
th e
fad e
fad e
“actualLevel”
an d
ti m e r
(afte r
is
s tartu p )
re ach
th e
s h al l
not
th e
Th e
be
N VM
N VM
vari ab l e s
va ri ab l e s
co n s i d e re d .
N VM
m e n ti o n e d
th at are
in
m a rke d
va ri a b l e s
Tabl e
wi th
d e fi n e d
1 4
‘no
in
e xce pt
ch an g e ’
in
i m pl e m e n te d
i n cl u d ed .
th e
bi t s h al l
be
se t to
F AL S E .
Bit 6: m i ssin g sh ort add ress
bi t
i n d i cates
“shortAddress” In
set s h al l
fad e
are
2 xx sh al l
9. 1 6.8 Th i s
F AL S E .
Bit 5: reset state
“resetState” lastLightLevel P arts
s e t to
l e ve l .
9. 1 6.7
th e
be
Bit 4: fade ru nn i ng
“fadeRunning” “fadeRunning” sam e
s h al l
.
o th e r cas e s
9.1 6.9
wh e th e r
Th e
bi t sh al l
th e
a
s h o rt
be
b i t s h al l
ad d re s s
TR U E
be
if
se t to
h as
been
“shortAddress”
=
as s i g n ed
to
th e
g e ar,
by
c h e c ki n g
M AS K.
F AL S E .
Bit 7: power cycl e seen
“powerCycleSeen” 1 01 :201 4
an d
sh al l
be
set
to
TR U E
afte r
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
“powerCycleSeen”
s h al l
be
set
to
F ALS E
an
4. 1 1 )
on ce
e x te rn a l h as
one
of
p o we r
cycl e
(see
IEC
62386-
o ccu rre d .
th e
fo l l owi n g
co m m an d s
h as
been
e xe cu te d :
“ R E S E T” ,
“ D AP C
(
level
) ”,
“OFF”,
“ R E C ALL M AX LE VE L” , “STE P “G O
D OWN
TO
AN D
SCEN E
(
OFF”,
“U P”,
“ R E C AL L M I N “ON
sceneNumber
AN D
) ”.
S TE P
“ D O WN ” ,
LE VE L”,
U P”,
“ S TE P “G O
“C ON TI N U OU S
TO
U P”,
U P”,
“ S TE P
D O WN ” ,
L AS T AC TI VE
LE VE L” ,
“C ON TI N U OU S
D O WN ” ,
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
201 8
9. 1 7
Non-vol ati l e m em ory
P h ys i cal
n o n - vo l a ti l e
va ri ab l e s
are
A
g ear
co n tro l
th e
i n te n d e d
p h ys i cal l y co n tro l
S i n ce
is
shou ld
is
d e fi n e d
fo rc e
to
al l
is
an
i m p o rtan t
s h o rt
o f ti m e s
N OTE g e a r’ s
to
to
th e
Typi cal l y
ad d i ti o n
or
a
be
in
a
l i m i ted
n eed
s u ch
way
Th i s
vari ab l e s
th at
Th e re
to
of
wri te
cycl e s .
Si n ce
m an y
atte n ti o n .
th e i r
m ean s
i m m e d i atel y.
th e
n u m ber
som e
a
re ac h e d .
va r i a b l e
to
can n o t
va ri a b l e s ,
g e ar th e
m ad e
to
an
wri te
wri ti n g
of
i m p o rtan t
l e ve l
th e
co n te n t
th at
m ay
N VM ,
co n tro l
i n s tru cti o n
ap pl i cati o n
o th e r
e ve ry
kn o w
th e
p h ys i cal l y
n o rm a l
by
s e tti n g
afte r
e n ti re
th e
can
ph ys i cal l y wri te
co n tro l
u sed
fo r an
s u p p o rts
l i m i tati o n s
vari a b l e s
co n tro l l e r
ch an g e s
be
in
–
it
m ay
be
is
n e ve r
not
be
s i tu ati o n s
e s peci al l y
if a
lost
an d
possi bl e
in
wh i ch
to
th e
p arti cu l ar N VM
ve ry fre q u e n t l y.
p e rs i s t e n t
ad d re s s e s
i n te n d e d
N VM d e vi c e
ch an g e
app l i cati o n s a vi n g
th at
th e
– 45
typi cal l y
ph ys i cal
s to re
n o t abl e
p h ys i cal l y
co m m an d
th e
of
e ve ry
ch an g e d
th e
m e m o ry
typ e ,
l i fe ti m e
wri te
g e ar
va ri ab l e
N VM
CSV
N VM
of
vari ab l e s .
typ e
I ts
can n o t
s tabl e )
Typ i cal l y,
i n te rn al
N VM
to
i n ten d ed
be
l os t,
co n fi g u rati o n
th i s
m ech an i s m
fo r
P E R S I S T E N T V AR I AB L E S ”
vari ab l e s
co n tro l l e r
( an d
ch an g e .
al l
g e ar’ s
“ S AV E
co m m an d
u se
e. g .
d ata.
is
m e m o ry. is
to
afte r
e n s u re
as s i g n i n g
C l e arl y
u sed
is
Th i s
onl y
it
a
is
not
h an d fu l
i n s tal l ati o n .
com m an d
can
be
used
a
fe w
th o u san d
ti m es
be fo re
cau si n g
ph ys i cal
d am ag e
to
th e
co n tro l
N VM .
P h ys i cal l y
s avi n g
co m pl e te .
Wh i l e
co n tro l
g e ar
th e th e
m ay
or
co m pl e te ,
th e
wh e n
i n s tru cti o n
th e
va ri a b l e s s a vi n g
val u e
m ay
of
th e
in
re s p o n s e
o pe rati o n
not
is
re s p o n d
affe cte d
is
e xe cu te d ,
not
fl u ctu ate
to
to
an y
va ri ab l e s th e
th e
i n s tru c ti o n
on -g oi n g ,
light
th e
light
co m m an d .
m ay
s h al l
be
s h al l
o ff;
in
at
m ay
H o we ve r,
u n d e fi n e d .
s tay
t a ke
o u tpu t
m ost
u n ti l
th e
M o re o ve r,
th i s
cas e ,
300
fl u ctu ate
if
no
ms
an d
o p e rati o n
th e
light
f l i c ke r
to
th e is
is
o ff
sh al l
be
vi s i bl e .
Th e
light
o u tp u t
m ay
d u ri n g
s avi n g
o p e rati o n s
u n l ess
th es e
are
tri g g e re d
by
th i s
co m m an d .
An
appl i cati o n
“ S AVE
g e ar h a ve
9. 1 8
fi n i s h e d
wi th
fe atu re s .
wi th
Th e
o pco d e
se l ecti o n
th e
an d
s ave
sh ou l d
wai t
o p e ra ti o n
at
l eas t
350
u sin g
ms
to
th e
e n s u re
al l
o p e ra ti o n .
e n ab l i n g
co n t ro l
co n tro l
TYP E
sh al l
of
an d an
g e ar if
g e ar.
th e
ra n g e
sel ect
to
VE R S I ON
co m m an d
0 xFF
th e s e
are
re s e rve d
co m m an d s ,
fo r
s p e ci al
e xce p t
fo r
d e vi ce
th e
type s
co m m an d
N U M BER”) .
set
can
be
s e l e cte d
by
th e
i n s t ru c ti o n
n e xt
appl i cati on
) ”.
th e
1 1 . 6)
d e vi ce
co m m an d
appl i cati o n
sh al l
data
s pe ci fi c
data
0 xE0
re - d e fi n e s
d e vi ce is
val i d .
t y p e /f e a t u r e E xe cu ti n g
fo r
th i s
wh i ch
onl y
i n s tru cti o n
th e
s h al l
can ce l
an y p re vi o u s
type .
th e
th at
(
( re fe r to
o f a d e vi ce
co m m an d s
in
t y p e /f e a t u r e
t y p e /f e a t u r e
co m m an d
wh e th e r i t i s
opco d e
d e vi ce
D E VI CE
co m m an d ,
A
tri g g e r
i n s tru cti o n
0 xFF ( “Q U E R Y E XTE N D E D
i n s tru cti o n
exten d ed
Th e
th e
th e i r
E ach
d e vi c e
“ E N AB LE
Th i s
can
Devi ce types and features
C o m m an d s or
co n tro l l e r
P E R S I S TE N T VAR I AB L E S ”
not
e q u al s
t y p e /f e a t u r e s h al l
e xte n d e d
re act
M AS K,
to 254
be
s h al l
e xe cu te d
co m m an d
be
can ce l l e d
acc o rd i n g
to
u po n i ts
e xe cu ti o n
s pe ci fi cati o n ,
of
th e
n e xt
re g ard l e s s
of
o r n o t.
co m m an d s
wh i ch
o r re p re s e n ts
a
bel on g
d e vi ce
to
th e
t y p e /f e a t u r e
app l i cati o n not
e xte n d e d
s u p po rte d
by th i s
– 46
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
Th e
d e vi ce
I EC
An
t y p e s /f e a t u r e s
s h al l
be
co d ed
as
s pe c i fi e d
in
th e
p arti cu l ar
201 8
p arts
th e
6 2 3 8 6 - 2 xx s e ri e s .
app l i cati o n
g e ar.
co n tro l l e r
“QU E R Y D E VI C E
d e vi c e
t y p e /f e a t u r e
ap p l i cati o n
is
can
“QU E R Y N E XT D E VI C E
be
re p o rte d
To
ch e ck th e
ch e ck
ch e ck
ve rs i o n
t y p e /f e a t u r e
Ap p l i cati o n b e twe e n
254
VE R S I ON
re p o rts
d e vi ce
is
M AS K.
by
as
an
fi rs t s u pp o rte d
th e
co n tro l
If
m o re
th an
In
th at
cas e ,
t y p e s /f e a t u r e s
re ce i ve d
th at th e
s u p po rte d
by
th e
re p e a ti n g
an s we r.
d e vi ce
one
I ssu i n g
t y p e /f e a t u r e
wi l l
s u pp o rte d
d e vi ce
D E VI C E
N U M BER”.
Th i s
t y p e s /f e a t u r e s ,
T YP E wi l l
(
data
re po rt
th e
)
app l i cati o n
co n tro l l e r
fo l l o we d
th e
ve rs i o n
by
n u m be r o f th at s p e ci fi c
i m pl em e n tati o n .
co n tro l l e rs
th e
TYP E ”
are
t y p e /f e a t u r e s .
TYP E ” .
“ E N AB L E
“Q U E R Y E XTE N D E D d e vi c e
u n ti l
n u m ber o f th e
d e vi ce
s u p p o rte d
a u to m a t i ca l l y e n s u re s
send
t y p e s /f e a t u r e s
s u p p o rt e d
al l
b y “ Q U E R Y N E XT D E VI C E
can
d e vi ce
th e
“QU E R Y D E VI C E
T YP E ”
T YP E ”
wh i ch
re p o rts
s u ppo rte d ,
co n tro l l e r
“QU E R Y D E VI C E
can
TYP E ”
g e ar' s
sh ou ld
i n d i vi d u a l
be
abl e
ad d re s s
to
i d e n ti fy
an d
i ts
i n d i vi d u al
d e vi c e
g ear
an d
t y p e s /f e a t u r e s
in
s to re
th e
re l ati o n s h i p
p e rs i s te n t m e m o ry.
9.1 9 Using scenes A
co n tro l
g e ar
s h al l
s u p po rt
th e
use
of
1 6
sce n e s .
Th e
fo l l o wi n g
co m m an d s
s h al l
be
s u pp o rte d :
“G O
TO
SCEN E
(
“QU ERY SCE N E
Th e s e
can
U pon
) ”,
co m m an d s
acc o m p l i s h e d used
sceneNumber sceneX
LE VE L (
by
th u s
e xecu ti o n
o pco d e :
actu al l y
s e l e cti n g
eas i l y be
of
o pco d e Bas e
can
be
an d
“SET SCEN E
co m pri s e
a
1 6
bl o ck o f 1 6
(
DTR0, sceneX
co m m an d s
co n s e cu ti ve
FROM
SCEN E
(
sceneX
) ”,
) ”.
each ,
o pco d es .
on e
fo r
Th e
e ach
n u m ber
of
scen e. th e
Th i s
scen e
is
to
be
cal cu l ate d .
on e
sceneNumber
“R E M OVE
) ”,
=
of
th e
scen e
o pco d e
fou n d
in
–
Tab l e
sceneNumber
com m an d s ,
o pco d e B as e .
Th i s
i d e n ti fi e s
sh al l
th e
be
s ce n e
d e ri ve d to
be
fro m
u sed.
th e Th e
1 3.
Table 1 3 – Scenes Command GO
TO
SCEN E
RE M OVE
(
FR OM
SET
Th e
“sceneX”
th e
ra n g e
On
acce p ti n g
d epen d eq u al s
al so
(
0 x1 0
[0 x1 0 , 0 x1 F]
LE VE L
(
0 x5 0
[0 x50 , 0 x5F]
(
0 xB0
[0 xB 0 , 0 xB F]
0 x40
[0 x40 , 0 x4F]
sceneX
)
sceneX
)
DTR0, sceneX
)
s tan d s
fo r
1 6
i n d i vi d u a l
vari ab l e s ,
wh e re
X
e q u al s
sceneNumber
in
o f [0 , 1 5 ] .
u pon
co m m an d th e
M AS K,
e xactl y as
N OTE
vari ab l e
SCEN E
Opcode rang e
sceneNumber)
SCENE
QU ERY SCE N E
opcodeBase
“
“D AP C
(
(
level
)”
)”
TO
val u e
targetLevel level
i f “ D AP C
Usi ng
“G O
cu rre n t
”
s h al l h ad
i m pl i es
sceneNumber sceneX
SCEN E
of
“
n ot
been
th e
(
)”
”,
be
wh e re
affe c te d .
acce p te d
tran s i ti o n
is
wi th
m ad e
X
is
th e
re acti o n
d e ri ve d
fro m
O t h e rwi s e ,
th e
l e ve l
to
u si n g
th e
e q u al
set
fad e
"
of
th e
co n tro l
sceneX
ti m e .
co n tro l
sceneNumber ".
g e ar
.
g e ar If
s h al l
“
sh al l
sceneX
”
b e h ave
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 47
–
201 8
1 0 Declaration of variables Th e
d e fau l t
va l u e s ,
m e m o ry o f th e
Th e
va ri a b l e s
th e
d e fi n e d
th at are
re s e t
va l u e s ,
va ri ab l e s
d e cl are d
s h al l
in
th i s
p o we r be
as
on
va l u e s ,
g i ve n
cl au s e
in
s h al l
th e
Tabl e
n ot be
ran g e
of
va l i d i t y
an d
th e
type
of
1 4.
m ad e
ava i l ab l e
fo r wri ti n g
th ro u g h
a
m e m o ry b a n k.
Table 1 4 – Declaration of variables VARI ABLE
DEFAULT VALU E (factory)
“actualLevel”
RESET VALU E
POWER ON VALUE
0 xFE
0 x0 0
RANGE OF VALI DITY
MEMORY TYPE
0,
R AM
a
“minLevel” “maxLevel”
[
“targetLevel”
0 xFE
“lastActiveLevel”
See
9. 1 3
0 xFE
0 xFE
0xFE
0,
“minLevel” “maxLevel”
on
[
“maxLevel”
a
“lastLightLevel”
c
no
“minLevel” “maxLevel”
[
ch an g e
“powerOnLevel” “systemFailureLevel” “minLevel” “maxLevel”
,
R AM
]
N VM , ]
0 xFE
no
ch an g e
[0 , 0 xFF]
N VM
0 xFE
0 xFE
no
ch an g e
[0 , 0 xFF]
N VM
PHM
PHM
no
ch an g e
[PH M ,
0 xFE
0 xFE
no
ch an g e
[
7
7
no
ch an g e
[1 , 0 xF]
N VM
0
0
no
ch an g e
[0 , 0 xF]
N VM
“fadeTime” “extendedFadeTimeBase” “extendedFadeTimeMultiplier”
“maxLevel”
“minLevel”
]
N VM
, 0 xFE ]
N VM
0
0
no
ch an g e
[0 , 1 1 1 1 b]
N VM
0
0
no
ch an g e
[0, 1 00b]
N VM
no
ch an g e
M AS K (no
]
0 xFE
“fadeRate”
“shortAddress”
R AM ,
0,
“minLevel” “maxLevel”
[
no
ch an g e
[0, 63] ,
M AS K
N VM
ad d re s s )
“searchAddress” “operatingMode”
]
a
P o we r
“randomAddress”
,
a
0 xFF
facto ry
“initialisationState”
FF
FF
b u rn - i n
0 xFF
FF
FF
0 xFF
FF
FF
no
ch an g e
no
ch an g e
0 xFF
FF
FF
no
ch an g e
no
ch an g e
[0 , 0 xFF
FF
FF]
R AM
[0 , 0 xFF
FF
FF]
N VM
0 , [0 x8 0 , 0 xFF]
N VM
[E N AB LE D ,
R AM
a
D I S AB LE D
D I S AB LE D , WI TH D R AWN ]
“writeEnableState”
a
D I S AB LE D
D I S AB LE D
[E N AB L E D ,
R AM
D I S AB L E D ]
“controlGearFailure”
a
b
d
d
a
FALS E
“fadeRunning”
d
FALS E
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TR U E ,
FALS E ]
R AM
a
FALS E
TRU E
“powerCycleSeen”
TRU E
FALS E
TR U E
d
a
FALS E
0 x0 0
(n o
e
b
FALS E
“limitError”
“sceneX”
a
FALS E
“lampOn”
“gearGroups”
b
FALS E
“lampFailure”
“resetState”
a
00
g ro u p )
M AS K
0x0 0
(no
00
TR U E
no
ch an g e
no
ch an g e
[0 , 0 xFF
FF]
N VM
g ro u p )
M AS K
[0 , 0 xFF]
N VM
– 48
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
VARI ABLE
DEFAULT VALU E (factory)
“DTR0”
a
“DTR1 ”
a
“DTR2”
a
PHM
fac to ry
“versionNumber” a
b
c
d
e
N ot
Th e
b u rn - i n
2. 1
POWER ON VALUE
RANGE OF VALI DITY
MEMORY TYPE
no
ch an g e
0 x0 0
[0 , 0 xFF]
R AM
no
ch an g e
0 x0 0
[0 , 0 xFF]
R AM
no
ch an g e
0 x0 0
[0 , 0 xFF]
R AM
no
ch an g e
no
ch an g e
[1 , 0 xFE ]
ROM
no
ch an g e
no
ch an g e
00001 001 b
ROM
appl i cabl e .
val u e
co u l d
ch an g e
Th i s
N VM
Th e
val u e
sh ou l d
X
in
ran g e
is
RESET VALU E
th e
va ri ab l e
is
a
con seq u en ce
e xcl u d e d
re fl e c t
0 x0
as
to
th e
0 xF,
for
actu al
“
of
th e
resetState
”.
s i tu ati o n
as
e ffe cti ve l y
th e re
CSV 201 8
is
RESET
soon
on e
as
com m an d
execu ti on .
possi bl e.
vari ab l e
fo r
e ach
of
th e
1 6
scen es.
201 8
General
U n u sed
o pco d e s
a re
re s e r ve d
fo r fu tu re
n eeds.
1 1 .2 Overview sheets g i ve s
an
o ve rvi e w o f th e
s tan d ard
co m m an d s .
Th e
s pe ci al
co m m an d s
o ve rvi e w ca n
be
fo u n d
in
Tab l e
1 6.
Table 1 5 – Standard commands
TO
Send twi ce
Answer
DTR2
DTR1
DTR0
OFF
Device
1
0 x0 0
0
9. 7. 2
1 1 . 3. 2
UP
Device
1
0 x0 1
1
9. 7. 3
1 1 . 3. 3
D OWN
Device
1
0 x0 2
2
9. 7. 3
1 1 . 3. 4
UP
Device
1
0 x0 3
3
9. 7. 2
1 1 . 3. 5
D OWN
Device
1
0 x0 4
4
9. 7. 2
1 1 . 3. 6
Device
1
0 x0 5
5
9. 7. 2,
9. 1 4. 2
1 1 . 3. 7
Device
1
0 x0 6
6
9. 7. 2,
9. 1 4. 2
1 1 . 3. 8
Device
1
0 x0 7
7
9. 7. 2
1 1 . 3. 9
UP
Device
1
0 x0 8
8
9. 7. 2
1 1 . 3. 1 0
SEQU EN CE
Device
1
0 x0 9
9
9. 8
1 1 . 3. 1 1
Device
1
0 x0 A
9. 7. 3
1 1 . 3. 1 2
R E CALL
GO
–
-
R E CALL
E N AB LE
Command reference
level
S TE P
ON
References
0
(
S TE P
S TE P
Opcode byte
Device
D AP C
level )
See 7.2. 2
M AX
MIN
D OWN
AN D
LE VE L
AN D
S TE P
D AP C
LAS T
LE VE L
AC TI VE
OFF
LE VE L
– 49
Command name
CSV
Ad dress byte Ed. 1 cmd nu mber
1 5
Sel ector bi t
Tab l e
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
1 1 .1
I EC
© I EC
1 1 Definition of commands
9. 4,
9. 7. 3,
9. 8
1 1 .3.1
GO
TO
SCEN E
(
S AVE
0 x0 C
9. 7. 3
1 1 .3.1 5
Device
1
Device
1
0 x20
32
D TR 0
Device
1
0 x21
33
VAR I AB LE S
Device
1
0 x22
DTR0 )
Device
1
0 x23
DTR0 )
Device
1
0 x24
Device
1
0 x25
DTR0 )
Device
1
0 x2A
42
DTR0 )
Device
1
0 x2 B
43
Device
1
0 x2C
44
Device
1
0 x2 D
45
DTR0 )
Device
1
0 x2 E
46
DTR0 )
Device
1
0 x2F
47
LE VE L
IN
M OD E
(
(
I D E N TI FY D E VI C E
S YS T E M
SET
SET
SET
LE VE L
ON
FAD E
FAD E
SCEN E
(
FAD E
TI M E
(
SCEN E
GROU P
FROM
(
DTR0 )
DTR0, sceneX)
(
(
sceneX)
group )
G ROU P
a
(
a
a
group )
a
– 31
1
Device
1
Device
1
Device
1
0 x60
+
group
96
Device
1
0 x70
+
group
1 1 2
0 x3 0
0 x5 0
+
+
Device
0 x40
9. 7. 3,
sceneNumber
64
– 79
scene Number
80
– 95
– 1 1 1
– 1 27
9. 1 9
9. 1 1 . 1 ,
1 0
1 1 . 3. 1 3
1 1 . 4. 2
1 1 . 4. 3
9. 1 7,
1 0
1 1 . 4. 4
9. 9. 4
1 1 . 4. 5
9. 1 1 . 2
1 1 . 4. 6
9. 1 4. 2
1 1 . 4. 7
9. 6
1 1 . 4. 7
9. 6
1 1 . 4. 9
9. 1 2
1 1 . 4. 1 0
9. 1 3
1 1 . 4. 1 1
9. 5. 2
1 1 . 4. 1 2
0
1 1 . 4. 1 3
0
1 1 . 4. 1 4
9. 1 9
1 1 . 4. 1 4
9. 1 9
1 1 . 4. 1 6
1 1 . 4. 1 7
1 1 . 4. 1 8
CSV
R E M OVE
DTR0 )
R ATE
FR OM
TO
(
(
DTR0 )
1 6
201 8
AD D
LE VE L
(
sceneNumber
© I EC
RE M OVE
LE VE L
TI M E
E XTE N D E D
SET
(
FAI LU R E
P OWE R
SET
(
+
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
SET
MIN
LE VE L
0 x1 0
IEC
SET
M AX
Send twi ce
1
M E M OR Y B AN K
SET
Answer
Device a
–
RESET
DTR2
1 1 .3.1 4
sceneNumber)
OP E RATI N G
DTR1
9. 7. 3
D OWN
P E R S I S TE N T
DTR0
0 x0 B
– 50
SET
AC TU AL
Command reference
1
UP
RESET
S TO R E
References
Device
CON TI N U OU S
C ON TI N U O U S
See 7.2. 2
Opcode byte
Sel ector bi t
Command name
Ed. 1 cmd number
Ad dress byte
SH ORT
E N AB LE
AD D R E S S
WR I TE
(
DTR0
)
M EM ORY
QU E R Y S TATU S
G E AR
QU E R Y LAM P
QU E R Y LAM P
FAI LU R E
P OWE R
ERROR
S TATE
SH ORT
QU E RY VE RS I ON
AD D R E S S
NU MBER
QU E RY CON TE N T
QU E RY D E VI CE
Q U E R Y P H YS I C A L
D TR0
T YP E
MINIMUM
FAI LU RE
Device
1
0 x81
1 29
Device
1
0 x90
1 44
Device
1
0 x91
1 45
Device
1
0 x92
1 46
Device
1
0 x93
1 47
Device
1
0 x94
1 48
Device
1
0 x95
1 49
Device
1
0 x96
1 50
Device
1
0 x97
1 51
Device
1
0 x98
1 52
Device
1
0 x99
1 53
Device
1
0 x9 A
1 54
Device
1
0 x9 B
1 55
QU E RY CON TE N T
D TR1
Device
1
0 x9 C
1 56
QU E RY CON TE N T
D TR2
Device
1
0 x9 D
1 57
Device
1
0 x9 E
Device
1
0 x9 F
Device
1
0 xA0
1 60
Device
1
0 xA1
1 61
Device
1
0 xA2
1 62
Q U E R Y O P E R ATI N G
QU E RY LI G H T
M ODE
SOU RCE
Q U E R Y AC TU AL
QU E R Y M AX
QU ERY M I N
T YP E
LE VE L
LE VE L
LE VE L
Send twi ce
Answer
DTR2
DTR1
DTR0
Ed. 1 cmd number
Sel ector bi t
1 28
9. 1 4. 4
1 1 . 4. 1 9
9. 1 0
1 1 . 4. 20
9. 1 6
1 1 . 5. 2
1 1 . 5. 3
1 1 . 5. 4
1 1 . 5. 6
1 1 . 5. 7
1 1 . 5. 8
9. 1 4. 2
1 1 . 5. 9
1 1 . 5. 1 0
9. 1 0
1 1 . 5. 1 1
9. 1 8
1 1 . 5. 1 2
1 1 . 5. 1 3
1 1 . 5. 1 5
9. 1 0
1 1 . 5. 1 6
1 1 . 5. 1 7
9. 9. 4
1 1 . 5. 1 8
1 1 . 5. 1 9
1 1 . 5. 20
1 1 . 5. 21
1 1 . 5. 22
–
QU ERY RESET
QU E R Y P OWE R
ON
0 x8 0
– 51
QU E RY LI M I T
QU E RY M I SSI N G
PRESEN T
1
Command reference
CSV
QU E RY C ON TR OL
Device
References
201 8
SET
See 7.2. 2
Opcode byte
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
Command name
I EC
© I EC
Ad dress byte
QU E R Y P OWE R
Q U E R Y S YS T E M
QU E RY FAD E
ON
1 63
LE VE L
Device
1
0 xA4
1 64
R ATE
Device
1
0 xA5
1 65
Device
1
0 xA6
D e vi ce
1
0 xA7
D e vi ce
1
0 xA8
D e vi ce
1
0 xAA
Device
1
0-7
Device
1
0 xC 0
1 92
8-1 5
Device
1
0 xC 1
1 93
T I M E /F A D E
QU E R Y N E XT
D E VI CE
QU E R Y E XTE N D E D
QU E R Y C ON TR OL
QU E RY SCEN E
SPE CI FI C
T YP E
FAD E
G E AR
LE VE L
QU ERY G ROU PS
QU ERY G ROU PS
M ODE
TI M E
F AI LU R E
(
sceneX)
a
0 xB0
+
sceneNumber
1 76
(H )
Device
1
0 xC 2
1 94
QU E R Y R AN D OM
AD D R E S S
(M )
Device
1
0 xC 3
1 95
(L)
Device
1
0 xC 4
1 96
DTR1 , DTR0 )
Device
1
0 xC 5
1 97
Device
1
Device
1
QU E R Y R AN D OM
R E AD
M E M ORY LOC ATI ON
Appl i cati o n
e xte n d e d
QU E R Y E XTE N D E D
Th e re
AD D R E S S
is
one
(
co m m an d s
VE R S I ON
com m an d
N U M BER
p e r s ce n e ,
so
th e re
a re
actu al l y
1 6
co m m an d s
fo r sce n es
0 xE 0
– 0 xFE
224
0 xFF
0
– 5.
An al o g u e
– 254
?
255
fo r
th e
1 6
g ro u p
?
Send twi ce
Answer
DTR2
DTR1
DTR0
?
?
1 1 . 5. 23
9. 1 2
1 1 . 5. 24
9. 9
1 1 . 5. 27
9. 1 8
1 1 . 5. 1 3
0
1 1 . 5. 26
9. 1 6. 2
1 1 . 5. 4
9. 1 9
1 1 . 5. 28
1 1 . 5. 29
1 1 . 5. 30
1 1 . 5. 31
1 1 . 5. 32
1 1 . 5. 33
?
9. 1 0
1 1 . 5. 34
9. 1 8
1 1 .6
1 1 . 6. 2
co m m an d s.
© I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
AD D R E S S
9. 1 3
1 1 . 5. 25
– 1 91
QU E R Y R AN D OM
IEC
0 xA3
Command reference
–
1
References
– 52
Device
LE VE L
FAI LU RE
QU E R Y M AN U FAC TU R E R
a
See 7.2. 2
Opcode byte
Sel ector bi t
Command name
Ed. 1 cmd number
Ad dress byte
CSV
201 8
D TR0
(
data
I N I TI ALI S E
(
)
device
0 xA9
0 x0 0
260
WI TH D R AW
0 xAB
0 x0 0
261
PI NG
0 xAD
0 x0 0
VE RI FY S H OR T
AD D R E S S
DE VI CE
D TR1
(
D TR2
(
0 xB3
)
0 xB5
AD D R E S S
QU E RY SH ORT
(
(
data
T YP E
data data
(
data
)
0 xB7
)
0 xB9
0 xBB
)
0 xC1
)
0 xC3
)
0 xC5
(
DTR1 , DTR0, data
M E M OR Y LOC ATI ON
R E P LY (
data
AD D R E S S
M E M OR Y LOC ATI ON
NO
data
)
)
0 xC7
–
DTR1 , DTR0, data
0 xC9 )
data data data data data 0 x0 0
data data data data data
Send twi ce
Answer
9. 1 4. 2
1 1 . 7. 1
9. 1 0
1 1 . 7. 3
9. 1 4. 2
1 1 . 7. 4
9. 1 4. 2
1 1 . 7. 5
9. 1 4. 2
1 1 . 7. 6
9. 1 4. 2
1 1 . 7. 7
1 1 . 7. 1 9
264
9. 1 4. 2
1 1 . 7. 8
265
9. 1 4. 2
1 1 . 7. 9
266
9. 1 4. 2
1 1 . 7. 1 0
9. 1 4. 2
1 1 . 7. 1 1
–
SH ORT
(
data
0 xB1
Command reference
– 53
(
)
References
CSV
C OM P AR E
data
258
259
S E AR C H AD D R M
WR I TE
device 0 x0 0
(
E N AB LE
0 xA5
257
0 xA7
S E AR C H AD D RH
P R OG R AM
)
data
256
R AN D OM I S E
S E AR C H AD D R L
WR I TE
0 xA3
DTR2
0 x0 0
DTR1
0 xA1
DTR0
TE R M I N ATE
Ed. 1 cmd nr
Opcode byte
201 8
Address byte
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
Command name
I EC
© I EC
Table 1 6 – Special commands
267
268
269
272
273
1 1 . 7. 1 2
1 1 . 7. 1 3
9. 1 4. 2
1 1 . 7. 1 4
9. 1 0
0
274
275
9. 1 4. 2
9. 1 4. 2
1 1 . 7. 1 6
9. 1 0
1 1 . 7. 1 7
9. 1 0
1 1 . 7. 1 8
– 54
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
1 1 .3 Level instructions 1 1 .3.1
DAPC ( level)
U pon on
e xe cu ti o n
th e
Th e
bas i s
tran s i ti o n
of
“ D AP C
“level”
of
s u bcl au s e s
1 1 .3.2
OFF
Th e be
sh al l
tran s i ti o n
ad j u s te d
s u bcl au s e
1 1 .3.3
UP
Dim
up
To
using
e n s u re
cal cu l ate d Afte r
th at
fad i n g
is
a
th at “
9. 7. 2
fi rs t
step,
ms
fad e
th e
s e t fad e
s h al l
to
be
no
DOWN using
e n s u re
th at
cal cu l ate d Af te r
th at
fad i n g
is
“
200
step,
ru n n i n g .
ms
fad e
an d
th e
s e t fad e
Th e re
a
s h al l
to
be
be
s h al l
be
cal cu l ate d
s h al l
s tart u s i n g
th e
appl i cabl e
fad e
ti m e
.
fo r fu rth e r i n fo rm ati o n .
th e
l am p( s )
“targetLevel”
to
th e
be
sh al l
s wi tch
s h al l
be
o ff.
i m m ed i ate
an d
th e
light
o u tpu t
sh al l
to
set
fad e
th e
“targetLevel”
co m m an d ,
u po n
s h al l
be
i n s tru c ti o n
at
e xe cu ti o n
e xecu te d
e xecu te d
“targetLevel”
an d
rate .
sh al l
be
cal cu l ate d
on
th e
rate .
m ad e
s te ps
“U P”
to
is
fad e
th e
th e
a
”-1 )
“actualLevel”
9. 7. 3
an d
to
be
l eas t of
u sing
as
a
on e
th e
fi rs t
th e
p a rt
s te p
( fi n al
an on
“
com m an d
s pe c i fi e d
of
re cal cu l ate d
wi th
th e
re ac ti o n
n ext
be
s te ps
“ D O WN ” an d
to
“actualLevel”
if
9. 8. 2
s e t fad e
s h al l
re s tart e d
no
ch an g e
1 1 .3.5
STEP UP
if
“targetLevel”
co n tro l ) ,
fad e
i te rati o n th e
bas i s
targetLevel
of
an
rate
s h al l of
”
=
i te rati o n . wh i l e
th e
cau s e
th e
“actualLevel”
is
at
“maxLevel”
o r 0 x0 0 .
fo r fu rth e r i n fo rm ati o n .
set
fad e
ra te .
“targetLevel”
sh al l
be
cal cu l ate d
s h al l
“targetLevel”
9. 5. 1 ,
be
=
to
th e
m ad e sh al l
co m m an d ,
u pon be
e xe cu ted e xecu te d
“targetLevel”
at
e xe cu ti o n
i n s tru cti o n
set to :
0:
“actualLevel”
9. 7. 3
0 x0 0
an d
on
th e
rate .
to
be
l e as t of
using as
a
on e
th e
fi rs t
th e
part
s te p
( fi n al
s p e c i fi e d of
re cal cu l ate d
an
on
“
co m m an d fad e
i te rati o n
th e
bas i s
targetLevel
of
an
rate
sh al l of
9. 8. 2
if
“actualLevel”
is
at
“minLevel”
fo r fu rth e r i n fo rm ati o n .
”
=
i te ra t i o n . wh i l e
th e
cau s e
th e
“actualLevel”
rate .
s u bcl au s es
•
an d
re ac ti o n
n ext
ms
E ve ry
R e fe r to
“targetLevel”
9. 1 3
s e t fad e
sh al l
an d
th e re
200
a
9. 5. 1 ,
targetLevel
fi rs t
an d
wi th
th e
”+ 1 )
th e
“actualLevel”
of
fad e
ch an g e
1 1 .3.4
To
is
“targetLevel”
to
0 x0 0
re s tart e d
s u bcl au s es
d o wn
p o we r
rate .
R e fe r to
Dim
arc
fo r fu rth e r i n fo rm ati o n .
E ve ry
be
( d i re ct
possi bl e.
an d
th e re
an d
basi s
ms
targetLevel
ru n n i n g .
)”
“actualLevel”
200
200
Th e re
set to
“actualLevel”
of
9. 7. 3
q u i c kl y a s
R e fe r to
bas i s
9. 4,
be
fro m
as
level
“actualLevel”
fro m
R e fe r to
“targetLevel”
(
.
o r 0 x0 0 .
I EC
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© I EC
•
if
•
if
Th e
“minLevel” ≤ “targetLevel” “targetLevel” tran s i ti o n
s h al l
be
as
q u i c kl y a s
1 1 .3.6
STEP DOWN
“targetLevel”
•
if
•
if
Th e
s h al l
“targetLevel” “minLevel”
<
9 . 4 an d
be
=
9. 5. 9
s h al l
be
i m m e d i ate l y
an d
th e
light
o u tpu t
an d
th e
light
o u tpu t
fo r fu rth e r i n fo rm at i o n .
set to:
0:
0 x0 0
“targetLevel” ≤ “maxLevel”: “targetLevel”
tran s i ti o n be
“actualLevel”
fro m
ad j u s te d
as
q u i c kl y a s
-1
1 1 .3.7
RECALL MAX LEVEL
Wh e n
th e
“maxLevel” R e fe r to
9 . 4 an d
9. 5. 9
“initialisationState” i m m e d i ate l y an d
9. 7. 2
is
th e
th e
”
to
“
”,
te m p o rari l y i g n o ri n g
th e
d e vi ce
It
is
is
u n ab l e
acce ptabl e
R E C ALL
MIN
fo r
LE VE L
to
th e
i d e n ti fi cati o n
vari ab l e s
en ded,
th e re
si de
sh al l an d
R E C AL L M I N
Wh e n
th e
no
no
be
u pon
LE VE L,
can
s to p pe d
“
ad j u s t
th e
actualLevel
i d e n ti fy
“actualLevel”
an d
ad j u s ted
exe cu ted
sh al l be
be
th e
light
as
q u i c kl y a s
sh al l
be
set
to
possi bl e.
in
th e
g e ar as
an
th i s
way,
i d e n ti fi cati o n
i n d i vi d u al
in
co n tro l o u tpu t
s h al l
q u i c kl y
set as
“
actualLevel
possi bl e
to
”
an d
1 00
%
”.
i ts e l f
i d e n ti f yi n g
c o n t ro l
al te rn ati n g
affe cte d
te m p o rari l y
i m m e d i ate l y
e xe cu ti o n
g ear
th e
co n tro l
g ear
s h al l
e xe cu te
p ro c e d u re .
to
depend
upon
R E C ALL
M AX
LE VE L
seq u en ce.
e xce p t
i g n o re d ,
wh e n
so
th at
e xpl i ci tl y afte r
th e
s tate d
o th e rwi s e .
i d e n ti fi cati o n
h as
of
an y
wh e n
“initialisationState”
th e
i n s tru cti o n
o th e r
th an
ch an g es
I N I TI ALI S E
(
to
device
),
R E C ALL M AX L E VE L o r I D E N TI F Y D E V I C E .
ch an g e s
RECALL MIN LEVEL
to
D I S AB LE D ,
th e
i d e n ti fi cati o n
s h al l
s to p
i m m ed i atel y.
fo r fu rth e r i n fo rm ati o n .
“initialisationState” i m m e d i ate l y an d
9. 7. 2
i m m e d i ate l y
e ffe cts .
1 1 .3.8
R e fe r to
of
bei n g
9. 1 4. 3
th e
be
D I S AB LE D ,
o r re - tri g g e ri n g
R e fer to
Wh e n
an d
vari ab l e s
“initialisationState”
“minLevel”
n ot th e n
p ro c e s s
ap p ro p ri a te , are
”
co m m an d s
Wh e re
I d e n ti fi cati o n
“targetLevel”
D I S AB LE D ,
vi s u al l y
s ta rti n g
D u ri n g
D I S AB L E D
be
fo r fu rth e r i n fo rm at i o n .
l i g h t o u tpu t s h al l
is
an d
“
“ I D E N TI FY D E VI C E ” ,
N OTE
s h al l
fo r fu rt h e r i n fo rm a ti o n .
“initialisationState” targetLevel maxLevel maxLevel
Wh e n
“targetLevel”
to
possi bl e.
s u bcl au s e s
an d
“targetLevel”
to
possi bl e.
R e fe r to
If
+1
“targetLevel” = “minLevel”: “minLevel”
s h al l
“
–
“maxLevel”: “targetLevel”
<
“actualLevel”
fro m
ad j u s te d
s u bcl au s e s
if
– 55
“maxLevel”: “maxLevel”
=
R e fe r to
•
CSV
201 8
is
th e
D I S AB LE D ,
“targetLevel”
l i g h t o u tpu t s h al l
fo r fu rth e r i n fo rm a ti o n .
be
an d
ad j u s te d
as
“actualLevel” q u i c kl y a s
s h al l
possi bl e.
be
set
to
– 56
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
“initialisationState” targetLevel minLevel
Wh e n “
”
l e ve l
to
“
is
”
te m p o rari l y
i g n o ri n g
s i g n i fi can tl y d i ffe re n t fro m
If
th e
d e vi ce
is
u n abl e
“ I D E N TI FY D E VI C E ” ,
N OTE an d
It
is
acce ptabl e
R E C ALL
MIN
“
to
th e
i d e n ti fi cati o n ap p ro p ri a te ,
vari ab l e s
en ded,
th e re
si de
I d e n ti fi cati o n D I S AB L E D
sh al l an d
R E C AL L M I N
Wh e n
th e
be
u pon
LE VE L,
can
s to p pe d
•
if
Th e s h al l
“targetLevel” “minLevel”
R e fe r to
in
th e
i n d i vi d u al
in
an
”.
be
I f,
h o we ve r,
set
as
“
way,
c o n t ro l
al te rn ati n g
g ear
th e
actualLevel
possi bl e PH M
te m p o rari l y s wi tch e d
th i s
affe cte d
s h al l
q u i c kl y
i d e n ti fi cati o n
te m p o rari l y
i m m e d i ate l y of
ch an g e s
<
be
co n tro l
to
is
”
i ts
not
an d PH M
vi s i b l y
o ff i n s te ad .
g e ar
s h al l
e xe cu te
p ro c e d u re .
to
depend
upon
R E C ALL
M AX
LE VE L
seq u en ce.
e xce p t
i g n o re d ,
wh e n
so
th at
e xpl i ci tl y afte r
th e
s tate d
o th e rwi s e .
i d e n ti fi cati o n
h as
an y
wh e n
“initialisationState”
th e
i n s tru cti o n
o th e r
th an
ch an g es
I N I TI ALI S E
(
to
device
),
to
D I S AB LE D ,
i d e n ti fi cati o n
sh al l
s to p
i m m ed i ate l y.
=
set to :
0:
0 x0 0
“targetLevel” ≤ “maxLevel”: “targetLevel”
“targetLevel” = “minLevel” be
be
s h al l
g e ar as
fo r fu rth e r i n fo rm ati o n .
sh al l
tran s i ti o n
exe cu ted
be
actualLevel
i ts e l f
i d e n ti f yi n g
sh al l
o u tp u t
R E C ALL M AX L E VE L o r I D E N TI F Y D E V I C E .
STEP DOWN AND OFF
if
“
co n tro l
l am p
i d e n ti fy
e xe cu ti o n
1 1 .3.9
•
th e
th e light
e ffe cts .
9. 1 4. 3
if
of
bei n g
R e fer to
•
an d
th e n
vari ab l e s
“initialisationState”
“targetLevel”
”
th e
o r re - tri g g e ri n g
p ro c e s s
Wh e re
no
%,
vi s u al l y
D u ri n g
are
ad j u s t
minLevel
co m m an d s
no
D I S AB LE D ,
th e n
1 00
s tarti n g
fo r
LE VE L
not
an d
CSV 201 8
0 x0 0
“actualLevel”
fro m
ad j u s te d
:
as
s u bcl au s e s
q u i c kl y as
9. 4
an d
-1
to
“targetLevel”
sh al l
be
i m m e d i ate l y
an d
th e
light
o u tpu t
an d
th e
light
o u tpu t
possi bl e.
9. 5. 9
fo r fu rth e r i n fo rm a ti o n .
1 1 .3.1 0 ON AND STEP UP “targetLevel” •
if
•
if
•
if
Th e sh al l
sh al l
“targetLevel”
be
=
set to :
0:
“minLevel”
“minLevel” ≤ “targetLevel”
“maxLevel”: “targetLevel”
<
+1
“targetLevel” ≥ “maxLevel”: “maxLevel” tran s i ti o n be
R e fer to
“actualLevel”
fro m
ad j u s te d
as
su bcl au s e s
q u i c kl y a s
9. 4
an d
to
“targetLevel”
sh al l
be
i m m e d i ate l y
possi bl e.
9. 5. 9
fo r fu rt h e r i n fo rm a ti o n .
1 1 .3.1 1 ENABLE DAPC SEQUENCE I n d i cates
R e fe r to
th e
s tart o f a co m m an d
s u bcl au s e
9. 8. 3
i te ra ti o n
o f “ D AP C
fo r fu rth e r i n fo rm ati o n .
(
level
)”
co m m an d s .
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© I EC
CSV
– 57
–
201 8
1 1 .3.1 2 GO TO LAST ACTIVE LEVEL U pon
Th e
e xe cu ti o n
tran s i ti o n
R e fe r to
o f th i s
fro m
“targetLevel”
co m m an d
“actualLevel”
s u bcl au s e s
9. 7. 3
an d
“targetLevel”
to
9. 4
sh al l
be
s h al l
cal cu l ate d
s tart u s i n g
b as e d
th e
on
“lastActiveLevel”
s e t fad e
ti m e
.
.
fo r fu rth e r i n fo rm a ti o n .
1 1 .3.1 4 CONTINUOUS UP Dim
up
s tarte d
Th e re
u si n g usi ng
s h al l
R e fe r to
th e th e
be
9. 7. 3
set
fad e
s e t fad e
no
ch an g e
an d
9. 5. 6. 2
rate .
rate .
to
“
targetLevel
“
Th e
fad e
actualLevel
”
s h al l
”
if “
sh al l s to p
be
maxLevel maxLevel
set
wh e n
actualLevel
”
“
to
“
”
is
at “
is
”
an d
a
fad e
sh al l
be
s h al l
be
re ach e d .
maxLevel
”
or 0 x00 .
fo r fu rth e r i n fo rm at i o n .
1 1 .3.1 5 CONTINUOUS DOWN Dim
d o wn
s tarte d
Th e re
u sing
usi ng
sh al l
R e fer to
th e
th e
be
9. 7. 3
set
fad e
s e t fad e
no
ch an g e
an d
9. 5. 6. 2
rate .
rate .
to
“
“
Th e
targetLevel
fad e
actualLevel
s h al l
”
if “
”
s h al l
s to p
be
actualLevel
”
minLevel minLevel
set
wh e n
“
is
to
“
”
at “
is
”
an d
a
fad e
re ach e d .
minLevel
” o r 0 x0 0 .
fo r fu rth e r i n fo rm ati o n .
1 1 .3.1 3 GO TO SCENE ( sceneNumber) Th e
co n tro l
fro m
•
if
•
in
g e ar
s h al l
sceneNumber “sceneX” al l
N OTE
M AS K:
o th e r cas e s :
Usi ng
R e fe r to
=
re ac t
d epen d i n g
on
th e
actu al
val u e
of
“sceneX”
X
wh e re
is
d e ri ve d
:
“D AP C
(
co m m an d
s h al l
i n te rn al l y “ D AP C
level
s u bcl au s es
th e
)”
i m pl i es
9. 1 9
an d
th e
(
level
t ran s i ti o n
1 1 .3.1
is
targetLevel
n o t affe c t “
) ”,
wi th
m ad e
level
u si n g
th e
e q u al
set
fad e
to
”;
“sceneX”
sh al l
be
e xe cu te d .
ti m e .
fo r fu rth e r i n fo rm at i o n .
1 1 .4 Configuration instructions 1 1 .4.1 D e vi ce
General co n fi g u rati o n
o pe rati o n
of
d i s ca rd e d , 1 01 :201 4
U n l ess
Th e
i n s t ru c t i o n s
co n tro l
u n l ess
an d
it
is
g e ar.
are
For
acce p te d
u sed
th i s
twi ce
to
th e
s tate d
fo l l o wi n g
i n s tru cti o n
o th e rwi s e
ch an g e
re as o n
a
acc o rd i n g
to
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
e xpl i ci tl y
i n s tru cti o n ,
•
th e
in
th e
th e
co n fi g u rati o n
a n d /o r
d e vi c e
co n fi g u rati o n
i n s tru c ti o n
th e
re q u i re m e n ts
as
s tate d
th e
in
m od e sh al l
I EC
of be
62386-
9. 3.
d e s cri p ti o n
of
parti cu l ar
d e vi c e
c o n fi g u ra ti o n
hol ds:
s h al l
be
i g n o re d
if
so
re q u i re d
by
th e
p ro vi s i o n s
of
s u bcl au s e
9. 7
of
th i s
s tan d ard .
•
Th e
1 1 .4.2 Al l to
co n tro l
g ear s h al l
n o t re p l y to
th e
i n s tru cti o n .
RESET
va ri ab l e s co m m an d s
s h al l no
be
ch an g e d
l ate r th an
300
to
th e i r
ms
re s e t
afte r th e
va l u e s .
C o n tro l
e xe cu ti o n
o f th e
g e ar
sh al l
i n s tru cti o n
s tart h as
to
re act
been
p ro p e rl y
s tart e d .
– 58
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
I f d u ri n g
a re s e t m ai n s
R e fe r to
s u bcl au s e
1 1 .4.3
STORE ACTUAL LEVEL IN DTR0
“actualLevel”
Th e
1 1 .4.4 Th e
co n tro l
p a rts
co n tro l s ta rt
i n s tru cti o n
D u ri n g
an d
be
s h al l Th i s
Tab l e
s to re d
n o t g u ara n te e d
1 4
is
co m p l e te d .
fo r fu rth e r i n fo rm ati o n .
“DTR0”
in
th at “ R E S E T”
.
might
re act
h as
been
th e
of
b as e d
th e
As
might
th e re
of
on
is
not
re act
th i s
to
al l
vari ab l e s
ap pl i cati o n
sh al l
“targetLevel”
re co m m e n d e d
co n tro l
be
to
co m m an d s
co m m an d s
co m m an d ,
o u tp u t
wri te - c yc l e s
re acti o n ,
al l
i d e n ti fi e d
e xte n d e d
in
Tab l e
N VM
1 4
as
vari a b l e s
n o n - vo l a ti l e
d e fi n e d
in
th e
no
afte r
e xecu ti o n
l ate r
th an
300
of
th i s
ms
com m an d .
afte r
th e
C o n tro l
e xe cu ti o n
g e ar
of
th e
s tart e d .
light
co m m an d
n u m ber
s to re
i n cl u d e
p ro p e rl y
p ro ce s s i n g
co m m an d ,
p h ys i cal l y
s h al l
2 xx.
g ear to
co m pl e te d ,
Th i s
s h al l
g e ar
( N VM ) .
appl i cabl e
Th e
9. 1 1 . 1
it is
SAVE PERSISTENT VARIABLES
m e m o ry
sh al l
p o we r fai l s ,
CSV 201 8
of
to
light
th e
th e
be
sh ou l d
arte facts ,
th e
at
an d
p e rs i s t e n t
d e vi c e s
vi s u al
be
u sed
l i m i t th e
is
as
tra n s i t i o n
an d
u se
m ay
afte r
due
to
o f th i s
re c o m m e n d e d
fl u ctu ate .
e xpe cte d
th at was
typ i cal l y
m e m o ry
it
o u tp u t
l e ve l
b e fo re
ac t i ve
Afte r th e
fac t
of
is
th i s
( i f an y) .
co m m i ss i o n i n g .
th e
pro ce s s i n g
e xe cu ti o n
th at
Due
th e re
to
might
th e be
a
l i m i te d vi s i b l e
co m m an d .
to
u se
th i s
co m m an d
onl y
d u ri n g
th e
o ff
s tate .
R e fe r to
Tab l e
1 4
1 1 .4.5
SET OPERATING MODE ( DTR0 )
“operatingMode” If
“DTR0”
does
an d
su bcl au se
s h al l
not
be
set
9. 1 7
“DTR0”
co rre s p o n d
to
fo r fu rth e r i n fo rm ati o n .
.
an
i m p l e m e n te d
o p e ra ti n g
mode,
th e
co m m an d
s h al l
be
d i s ca rd e d .
R e fer to
su bcl au s e
1 1 .4.6
RESET MEMORY BANK ( DTR0 )
Th e as
co m m an d
s h al l
fo r fu rth e r i n fo rm at i o n .
tri g g e r th e
pro ce ss
to
ch an g e
th e
m e m o ry b an k co n te n t
to
i ts
re s e t val u e s
fo l l o ws :
•
if
“DTR0”
be
•
in
=
0:
al l
i m pl e m en te d
an d
u n l o c ke d
m e m o ry
b a n ks
e xcept
m e m o ry
ban k
0
s h al l
re s e t
al l
o th e r
cas e s :
i m pl e m e n te d
A
9. 9
m e m o ry
ban k
an d
th e
m e m o ry
b an k
i d e n ti fi e d
by
“DTR0”
s h al l
be
re s e t
p ro vi d e d
it
is
u n l o c ke d
n eeds
to
be
u n l o c ke d
to
al l o w
bo th
l o c ka b l e
an d
n o n - l o c ka b l e
l o cati o n s
to
be
re s e t.
C o n tro l th e
g e ar sh al l
i n s tru c ti o n
R e fe r to
s tart to
h as
s u bcl au s e
been
re ac t p ro p e rl y to
co m m an d s
s tarte d .
9. 1 1 . 2
fo r fu rt h e r i n fo rm a ti o n .
no
l ate r th an
1 0
s
afte r th e
e xe cu ti o n
of
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© I EC
1 1 .4.7 Th e
CSV
– 59
–
201 8
IDENTIFY DEVICE
co n tro l
p ro ce d u re p ro ce s s
g e ar
sh al l
fro m
sh al l
ru n
an y
i d e n ti fi cati o n
s tart
wh i ch
d e vi ce s
s h al l
(of
i d e n ti fi cati o n
Wh e re
ap p ro p ri a te ,
vari ab l e s
en ded,
th e re
si de
Wh e n
“
is
actualLevel
I d e n ti fi c ati o n I N I TI ALI S E
Wh i l e
no
no
i d e n ti fi cati o n
M AX an d
(
re s tart
th e
an
a
1 0
s
o b s e rve r
sam e
typ e )
±1 to
s
ti m e r.
Wh i l e
d i s ti n g u i sh
wh i ch
a re
not
th e
an y
ti m er
co n tro l
ru n n i n g
i t.
If
is
g ear th e
ru n n i n g , ru n n i n g
ti m e r
a
th i s
e xpi re s ,
s to p .
D u ri n g
are
or
e n abl es
s h al l
device
vari ab l e s
bei n g
be
),
be
th e in
s to ppe d
is
affe cte d
e xce p t
i g n o re d ,
wh e n
so
e xpl i ci tl y
th at
afte r
th e
s tate d
o th e rwi s e .
i d e n ti fi cati o n
h as
l i g h t o u tp u t m ay be
at an y l e ve l
be twe e n
o ff an d
1 00
%,
MIN,
o th e r
th an
e ffe c t t e m p o rari l y i g n o re d .
i m m e d i ate l y
R E C ALL M I N
i d e n ti fi cati o n
be
te m p o rari l y
e ffe cts .
acti ve ,
”
sh al l
can
ac ti ve ,
LE VE L,
th e
u pon
e xecu ti o n
of
an y
i n s tru cti o n
R E C AL L M AX L E VE L o r I D E N TI F Y D E VI C E .
co n tro l
g ear
s h al l ,
” an d
“
wi th o u t
i n te rru p t i n g
th e
i d e n ti fi cati o n
p ro ce d u re :
•
on
R E C ALL M I N
•
on
R E C ALL M AX LE VE L:
Wh e n
i d e n ti fi cati o n
can ce l l e d
Afte r
actualLevel
I d e n ti fi c ati o n th e
is
i m m e d i ate l y
i d en ti fi cati o n
re fl e ct “
LE VE L:
can
.
be
u sed
p a rt i c u l ar i d e n ti fi e d
Th e
i n d i cati o n
au d i bl e
can
m ean s .
d e scri be d
in
N OTE
appl i cati o n
Th e
be
Th e
th e
th e
actualLevel
by
sto pped ,
an d
actualLevel
set “
s to ppe d
h as ”
set “
th e
d u ri n g
d e vi ce
done
e xact
to
e. g .
by
pro ce ss
•
if
•
in
If
as
be
targetLevel
co n t ro l l e r,
s h al l
be
e xe cu te d
in
th at
”
“
to
th e
minLevel “
”;
maxLevel
”.
c o rre s p o n d i n g
ad j u s ted
as
q u i c kl y
ti m er
as
s h al l
possi bl e
be
to
( i f appl i cabl e ) .
it
al l o ws
th e
i n s tal l e r
to
e. g .
al l o cate
g ro u p .
fl as h i n g
a
u sed
i d e n ti fy
to
” to
LE D ,
by is
p ro d u c i n g
a
sou n d
m an u factu re r
or
s pe ci fi c
o th e r an d
vi s u al
sh ou l d
or be
m an u al .
c o n tro l l e r
be
9. 1 4. 3
can
al s o
SET MAX LEVEL ( DTR0 )
if
o u tp u t
s h al l
co m m i ss i o n i n g
1 1 .4.8
•
light
“
a p a rt i c u l ar d e vi ce
s u bcl au s e
sh al l
an d
ap p l i cati o n
co m m an d
R e fe r to
“maxLevel”
an
”
targetLevel
s to p
th e
i d e n ti fi cati o n
p ro c e s s
using
a
“RE S E T”
com m an d .
fo r fu rth e r i n fo rm at i o n .
s e t to :
“minLevel” ≥ “DTR0” “minLevel” :
“DTR0” al l
a
=
M AS K:
o th e r cas e s :
re s u l t
cal cu l ate d
on
of
0 xFE
“DTR0”
s e tti n g
th e
basi s
s tart i m m e d i ate l y an d
a of
th e
m ax
s u b cl au s e
1 1 .4.9
SET MIN LEVEL ( DTR0 ) s h al l
be
l e ve l .
Th e
l i g h t o u tp u t s h al l
R e fe r to
“minLevel”
9. 7. 2
n ew
“maxLevel”
“actualLevel” tran s i ti o n be
ad j u s te d
fo r fu rth e r i n fo rm a ti o n .
s e t to :
>
fro m as
“maxLevel” “targetLevel” “actualLevel” “targetLevel” ,
sh al l
to
q u i c kl y as
possi bl e.
be
s h al l
– 60
–
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•
i f 0 ≤ “DTR0” ≤ PH M : PH M
•
if
•
in
“DTR0” ≥ “maxLevel” al l
If
“
”
>
0
s h al l
to
possi bl e.
an d
be
as
a
re s u l t
cal cu l ate d
s h al l
R e fe r to
“maxLevel”
o r M AS K:
“DTR0”
o th e r cas e s :
actualLevel “targetLevel” “targetLevel”
CSV 201 8
be
on
of th e
i m m e d i ate l y
s u b cl au s e
9. 7. 2
s e tti n g b as i s an d
a
new
min
“minLevel”
of
th e
light
“actualLevel”
l e ve l .
o u tpu t
Th e
tra n s i t i o n
sh al l
be
“minLevel” “actualLevel”
<
fro m
ad j u s ted
,
as
q u i c kl y
as
fo r fu rt h e r i n fo rm a ti o n .
1 1 .4.1 0 SET SYSTEM FAILURE LEVEL ( DTR0 ) “systemFailureLevel” R e fe r to
s u bcl au s e
sh al l
9. 1 2
be
“DTR0”
s e t to
.
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 1 SET POWER ON LEVEL ( DTR0) “powerOnLevel” R e fe r to
s h al l
s u bcl au s e
be
9. 1 3
“DTR0”
set to
.
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 2 SET FADE TIME ( DTR0 ) Th e
“fadeTime” “DTR0”
•
if
•
in
If
“
is
is
a
n ew
b e fo re
not
ti m e
s e t to
a va l u e
acco rd i n g
to
th e
fo l l owi n g
s te ps :
1 5
“DTR0”
e q u al
e q u al
fad e
th e
R e fe r to
1 5:
be
o th e r cas e s :
fadeTime” fadeTime”
If “
al l
>
sh al l
to
is
to
th e
s to re d
n e w val u e
s u bcl au s e s
0,
is
0,
fad e
d u ri n g
u sed
9. 5,
th e
e xte n d e d
in
9. 7. 3,
th e
a
ti m e
fad e
ru n n i n g
fo l l o wi n g
1 1 . 4. 1 4
an d
s h al l
ti m e
be
s h al l
fad e
cal cu l ate d be
on
th e
b as i s
of
“fadeTime”
.
If
u sed.
p ro c e s s ,
th i s
p ro ce s s
s h al l
be
fi n i s h e d
fi rs t
fad e .
1 1 . 7. 1 9
fo r fu rt h e r i n fo rm a ti o n .
1 1 .4.1 3 SET FADE RATE ( DTR0) Th e
“fadeRate” “DTR0”
•
if
•
if
•
in
Th e
“DTR0” al l
in
th e
>
1 5:
=
0:
rate
fo l l o wi n g
s e t to
a va l u e
acco rd i n g
to
th e
fo l l o wi n g
s te ps :
1 5
1
s h al l
a ru n n i n g
R e fe r to
be
o th e r cas e s :
fad e
d u ri n g
sh al l
“DTR0”
be
fad e
cal cu l ate d
p ro c e s s ,
th i s
on
th e
p ro ce s s
bas i s
of
s h al l
be
“fadeRate” fi n i sh e d
.
If
a
new
fi rs t b e fo re
fad e
th e
ra te
is
n e w va l u e
s to re d is
u sed
fad e .
s u bcl au s e
9. 5
an d
9. 7. 3
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 4 SET EXTENDED FADE TIME ( DTR0) Th e
“extendedFadeTimeBase”
acc o rd i n g
•
If “
–
to
DTR0” “
th e
>
fo l l o wi n g
0 x4F (0 1 00
an d
“
extendedFadeTimeMultiplier
s te ps :
1 1 1 1 b) :
extendedFadeTimeBase
”
s h al l
be
s e t to
0;
”
s h al l
be
set
to
a
val u e
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© I EC
–
“
extendedFadeTimeMultiplier
E f fe c t i ve l y s e l e c t i n g
•
Fo r al l
• If
–
“
–
“
as
ti m e
fad e
th e
s h al l
ti m e
is
co m m an d
by s e l e cti n g
is
”
s h al l
0
R e fe r to
set to
0.
possi bl e.
of
sh al l
be
in
a
th e
s e t to
be
AAAAb
set to
YYYb
b y m u l ti pl yi n g
ru n n i n g
fo l l o wi n g
fad e
“DTR0” = xxxxAAAAb;
wh e re
th e
wh e re
b as e
p ro c e s s ,
“DTR0” = xYYYxxxxb.
va l u e
an d
th e
th i s
pro ce s s
e ach
sce n e .
m u l ti pl i e r.
s h al l
be
fi n i sh e d
fi rs t
fad e .
sceneX)
co m pri s e s
=
opcod e
9. 1 9
1 6
c o n s e c u ti ve
“SET SCEN E
s e t to
s u bcl au s e
be
fo r fu rth e r i n fo rm a ti o n .
actu al l y
sceneNumber
“sceneX”
be
” s h al l
d u ri n g
u sed
a bl o ck o f 1 6
e xe cu ti o n
o pco d e :
” s h al l
cal cu l ate d
s to re d
n e w val u e
s u bcl au s e
be
1 1 .4.1 5 SET SCENE ( DTR0,
U pon
–
o th e r cas e s :
fad e
R e fe r to
Th i s
– 61
q u i c kl y a s
extendedFadeTimeMultiplier
new
b e fo re
a fad e
extendedFadeTimeBase
Th e
a
CSV
201 8
(
DTR0, sceneX
) ”,
– 0 x4 0 .
“DTR0”
co m m an d s ,
one
fo r
Th i s
is
acco m p l i s h e d
o pco d es .
Th i s
th e
scen e
i d e n ti fi e s
th e
“
n u m ber
sceneX”
to
sh al l be
be
d e ri ve d
fro m
th e
u sed.
.
fo r fu rth e r i n fo rm ati o n
1 1 .4.1 6 REMOVE FROM SCENE ( sceneX) Th i s
co m m an d
by s e l e cti n g
U pon th e
actu al l y
e xe cu ti o n
opcod e:
“sceneX”
co m pri s e s
a bl o ck o f 1 6
o f “R E M OVE
sceneNumber
sh al l
be
set
to
1 6
c o n s e c u ti ve
=
FR OM
o pco d e
M AS K.
co m m an d s ,
SCEN E
– 0 x50 .
Th i s
one
fo r
e ach
sce n e .
Th i s
is
acco m p l i s h e d
o pco d es .
(
sceneX
),
Th i s
e ffe cti ve l y
th e
i d e n ti fi e s
re m o ve s
sce n e th e
th e
“
n u m be r s h al l
sceneX”
co n tro l
to
be
g e ar
be
d e ri ve d
fro m
u sed.
as
m em ber
fro m
th e
sce n e .
Re fer to
su bcl au s e
9. 1 9
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 7 ADD TO GROUP ( group ) Th i s
co m m an d
se l e cti n g
U pon
group
bi t[
actu al l y
a bl ock o f 1 6
e xe cu ti o n =
opco d e
group
]
of
of
co m p ri s e s
“ AD D
– 0 x6 0 .
TO
Th i s
“gearGroups”
m e m be r o f th i s
1 6
co n s e cu ti ve
co m m an d s ,
G ROU P
i d en ti fi e s
sh al l
one
fo r e ach
g ro u p .
Th i s
is
acco m p l i s h e d
by
o pco d e s .
be
(
group group group ) ”,
th e
set
to
to
be
TR U E .
sh al l
be
d e ri ve d
fro m
th e
opcod e:
u sed .
Th i s
i m pl i es
th at
th e
co n tro l
g e ar
is
a
g ro u p .
1 1 .4.1 8 REMOVE FROM GROUP ( group ) Th i s
co m m an d
se l ecti n g
U pon
group
actu al l y co m p ri s e s
a bl o ck o f 1 6
e xe cu ti o n =
o pco d e
o f “R E M OVE – 0 x70 .
1 6
c o n s e c u t i ve
Th i s
co m m an d s ,
one
fo r e ach
g ro u p .
Th i s
is
acco m pl i s h e d
by
o pco d es .
FR OM
group group
G ROU P
i d e n ti fi e s
th e
(
to
) ”,
be
group u sed.
s h al l
be
d e ri ve d
fro m
th e
o pco d e :
– 62
–
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bi t[
group
]
of
“gearGroups”
m e m be r o f th i s
sh al l
be
set
to
F ALS E .
Th i s
i m pl i es
th at
th e
co n tro l
g e ar
is
CSV 201 8
not
a
g ro u p .
1 1 .4.1 9 SET SHORT ADDRESS ( DTR0 ) “shortAddress” •
if
•
if
•
in
“DTR0” “DTR0” al l
s h al l
be
s e t to :
=
M AS K:
=
1 xxxxxxxb
o th e r cas e s
M AS K ( e ffe cti ve l y d e l e ti n g
or xxxxxxx0 b:
( 0 AAAAAA1 b ) :
no
th e
s h o rt ad d re s s ) ;
ch an g e ;
0 0 AAAAAAb .
1 1 .4.20 ENABLE WRITE MEMORY “writeEnableState” N OTE
Th e re
i n vo l ved
wi t h
R e fe r to
is
no
wri ti n g
sh al l
be
co m m an d i n to
s u bcl au s e
s e t to
to
m e m o ry
9. 1 0. 5
E N AB LE D .
e xpl i ci tl y b a n ks
d i sabl e
wi l l
m e m o ry
au to m ati cal l y
wri t e
set
acce ss ,
si n ce
“writeEnableState”
an y to
co m m an d
th at
is
n ot
d i re ctl y
D I S AB LE D .
fo r fu rth e r i n fo rm at i o n .
1 1 .5 Queries 1 1 .5.1
General
Q u e ri e s
are
u sed
to
th e
U n l ess
e xp l i ci tl y s tate d
•
Th e
Wh e n
in
1 1 .5.2 Th e
q u e ry s h al l
appl i cabl e ,
“DTR1 ” g i ve n
q u e ri e d
re tri e ve
re tu rn s
an d
be
th e
“DTR2”
Tabl e
pro p e rty
p ro p e r t y va l u e
)
o th e rwi s e
i g n o re d
q u e ry are
in
in
i f so
s h al l
o u ts i d e
val u e s
fro m
a b a c kw a r d
th e
d e s cri p ti o n
re q u i re d
be th e
b y th e
d i s card e d ran g e
of
be
th e
wh i ch
is
fo rm e d
1 1 .5.3
QUERY CONTROL GEAR PRESENT
an s we r s h al l
Th e
Th e
ad d re s s e d
if
o f a p arti cu l ar q u e ry,
p ro vi s i o n s
an y
va l i d i t y
of of
th e th e
th e
o f s u bcl au s e
p aram e te r ad d re s s e d
be
b y a co m b i n ati o n
co n t ro l
fo l l o wi n g
g e ar
hol ds:
9. 7.
va l u e s d e vi c e
o f co n tro l
(i n
“DTR0”
vari ab l e s ,
g e ar p ro p e rt i e s .
fo r fu rth e r i n fo rm ati o n .
YE S .
be
YE S
if
“controlGearFailure”
is
TR U E
an d
NO
o th e rwi s e .
QUERY LAMP FAILURE
an s we r s h al l
1 1 .5.6
Th e
QUERY CONTROL GEAR FAILURE
an s we r s h al l
1 1 .5.5
9. 1 6
s tatu s ,
s u bcl au s e
Th e
g e ar.
QUERY STATUS
an s we r s h al l
1 1 .5.4
co n tro l
1 4.
R e fe r to
Th e
a
fra m e .
be
YE S
if
“lampFailure”
is
TR U E
an d
NO
o th e rwi s e .
QUERY LAMP POWER ON
an s we r s h al l
be
YE S
if
“lampOn”
is
TR U E
an d
NO
o t h e rwi s e .
,
as
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© I EC
1 1 .5.7 Th e
an s we r s h al l
–
be
an s we r s h al l
be
if
“limitError”
is
TR U E
an d
NO
o th e rwi s e .
YE S
if
“resetState”
is
TR U E
an d
NO
o th e rwi s e .
QUERY MISSING SHORT ADDRESS
an s we r s h al l
N OTE
YE S
QUERY RESET STATE
1 1 .5.9 Th e
– 63
QUERY LIMIT ERROR
1 1 .5.8 Th e
CSV
201 8
Si n ce
b ro ad cas t
th e
mode
be
YE S
co n tro l
or if
g ear
g ro u p
if
“shortAddress”
an s we rs
ad d re s s i n g
onl y is
if
no
is
eq u al
s h o rt
to
a d d re s s
is
M AS K a n d
s to re d ,
th e
NO
use
of
o th e rwi s e .
th e
co m m an d
is
u sefu l
onl y
in
u sed.
1 1 .5.1 0 QUERY VERSION NUMBER Th e
an s we r s h al l
R e fer to
C l au s e
be
th e
4 an d
co n te n t o f m e m o ry ban k 0
Tab l e
9
l o cati o n
0 x1 6 .
fo r fu rth e r i n fo rm at i o n .
1 1 .5.1 1 QUERY CONTENT DTR0 Th e
an s we r s h al l
“DTR0”
be
.
1 1 .5.1 2 QUERY DEVICE TYPE Th e
an s we r s h al l
•
if no
•
i f on e
•
i f m o re
Th e
be:
P art 2 xx i s
d e vi ce
co d i n g
th an
i m pl e m e n te d :
t y p e /f e a t u r e
one
o f th e
d e vi c e
d e vi ce
is
254;
s u p p o rte d :
t y p e /f e a t u r e
t y p e s /f e a t u r e s
is
th e
d e vi ce
s u p po rte d :
sh al l
be
as
t y p e /f e a t u r e
n u m be r;
M AS K.
s pe ci fi e d
in
th e
p arti cu l ar P arts
2 xx
of I EC
62386.
R e fe r to
s u bcl au s es
9. 1 8
an d
1 1 . 5. 1 3
fo r fu rth e r i n fo rm ati o n .
1 1 .5.1 3 QUERY NEXT DEVICE TYPE Th e
•
an s we r s h al l
if
d i re ctl y
pre ce d e d
s u ppo rte d :
•
if
d i re ctl y
h a ve
• •
if
th e
p re c e d e d
re p o rte d :
in
o th e r cas e s :
Th e byte .
s e q u e n ce
of
by
TYP E ” ,
an d
t y p e /f e a t u r e
“Q U E R Y N E XT D E VI C E
th e
n e x t l o we s t d e vi c e
m o re
th an
one
d e vi ce
t y p e /f e a t u r e
is
d e vi c e
t y p e s /f e a t u r e s
n u m be r;
TYP E ” ,
t y p e /f e a t u r e
“QU E R Y N E XT D E VI C E
T YP E ” ,
an d
not
al l
n u m b e r;
an d
al l
d e vi ce
t y p e s /f e a t u r e s
h a ve
N O.
co m m an d s
s u bcl au s e
s h al l
tra n s m i tte rs
t y p e s /f e a t u r e s
R e fe r to
l o we s t d e vi ce
254;
M u l ti - m as te r
d e vi c e
“QU E R Y D E VI C E
by
re p o rt e d :
been
al l
by
fi rs t an d
pre ce d e d
been
d i re ctl y
be:
s h al l
9. 1 8
be
an d
on l y
s h al l
as
be
sen d
s pe c i fi e d
1 1 . 5. 1 2
acce p te d
s u ch in
as
l on g
se q u e n ce
th e
as
as a
p arti cu l ar P arts
fo r fu rth e r i n fo rm ati o n .
th e y
u se
t ran s ac ti o n . 2 xx o f I EC
th e
s am e
Th e
ad d re s s
co d i n g
62386.
of
th e
– 64
–
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CSV 201 8
1 1 .5.1 4 QUERY PHYSICAL MINIMUM Th e
an s we r s h al l
be
PH M .
1 1 .5.1 5 QUERY POWER FAILURE Th e
an s we r s h al l
be
YE S
if
“powerCycleSeen”
is
TR U E
an d
NO
o th e rwi s e .
1 1 .5.1 6 QUERY CONTENT DTR1 Th e
an s we r s h al l
“DTR1 ”
be
.
1 1 .5.1 7 QUERY CONTENT DTR2 Th e
an s we r s h al l
“DTR2”
be
.
1 1 .5.1 8 QUERY OPERATING MODE Th e
an s we r s h al l
R e fe r to
“operatingMode”
be
s u bcl au s e
9. 9
.
fo r fu rth e r i n fo rm a ti o n .
1 1 .5.1 9 QUERY LIGHT SOURCE TYPE Th e
an s we r s h al l
be
th e
n u m ber o f th e
l i g h t s o u rce
type
g i ve n
in
Tab l e
1 7.
Table 1 7 – Light source type encoding Type of l i g h t sou rce
Encodi ng
Lamp fai l ure detecti on Open ci rcu i t (Lamp di sconnected)
Low
p re s s u re
fl u o re s ce n t
HID
Low
2
vo l t ag e
h al o g e n
3
I n can d e s ce n t
4
LE D
6
OLE D
Oth er
7
th an
U n kn o wn
No
light
l i sted
light
light
above
s o u rc e
s o u rc e
M u l ti pl e
252
typ e
b
253
b
c
d
e
Te s ti n g
type s
See
in
u sed
cas e s
done
in
th e
wh e re
typ e ,
th e
wi t h
cas e
no
light
of
light
s u p p o rt e d
an s we re d
D TR 1
l i g h t s o u rce
Wh e n "no
on
M AS K i s
s o u rce th i rd
d
d
d
5,
e
[8, 251 ]
o u tpu t
si g n al
e
of
at
l e as t
c o n ve rs i o n ,
s o u rc e
is
5
%.
fo r e xam pl e
co n n ected ,
fo r
1
V
e xam pl e
a
to
1 0
V.
re l ay.
9. 1 6. 3.
D epen di n g
Wh e n
be
M AS K
1 ,
Typ i cal l y
U sed
a
a
254
so u rce
s h al l
a
a
d
c
R e s e rve d
a
0
Sh ort circu i t
th e
s o u rc e
type s .
co n te n t
re pre s e n t
o f D TR 0
th e
s e co n d
s h al l
co n tai n
l i g h t s o u rce
a
val u e
type ,
an d
re p re s e n ti n g D TR 2
s h al l
th e
fi rs t
light
re p re s e n t
th e
typ e .
e xactl y two
l i g h t s o u rce " .
sh al l
light
d i ffe re n t
l i g h t s o u rce
type s
are
avai l ab l e ,
D TR 2
s h al l
co n tai n
254,
i n d i cati n g
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© I EC
201 8
Wh e n
m o re
th an
th re e
CSV
– 65
d i ffe re n t l i g h t s o u rce
–
type s
are
avai l ab l e ,
D TR 2
s h al l
co n tai n
255.
1 1 .5.20 QUERY ACTUAL LEVEL Th e
an s we r s h al l
be:
“actualLevel”
•
if
•
In
al l
d u ri n g
–
no
s tartu p :
light
0 x0 0
(see
al so
9. 1 3) ;
al l
M AS K;
o u tpu t
e xpe cte d :
in
0 x0 0 :
o th e r cas es :
–
–
=
(e. g .
due
to
to tal
l am p
fai l u re ,
co n tro l
g ear
fai l u re )
wh i l e
light
o u tp u t
is
M AS K;
“actualLevel”
o th e r cas e s :
.
1 1 .5.21 QUERY MAX LEVEL Th e
an s we r s h al l
be
“maxLevel”
.
1 1 .5.22 QUERY MIN LEVEL Th e
an s we r s h al l
be
“minLevel”
.
1 1 .5.23 QUERY POWER ON LEVEL Th e
an s we r s h al l
R e fer to
be
su bcl au s e
“powerOnLevel”
9. 1 2
.
fo r fu rth e r i n fo rm ati o n .
1 1 .5.24 QUERY SYSTEM FAILURE LEVEL Th e
an s we r s h al l
R e fe r to
be
s u bcl au s e
“systemFailureLevel”
9. 1 2
.
fo r fu rth e r i n fo rm ati o n .
1 1 .5.25 QUERY FADE TIME/FADE RATE Th e
an s we r
“fadeRate”
s h al l
be
X X X X YYYYb ,
wh e re
XXXXb
“fadeTime”
e q u al s
an d
YYYYb
eq u al s
.
1 1 .5.26 QUERY EXTENDED FADE TIME Th e
an s we r
YYYYb
s h al l
e q u al s
“
be
0
X X X YYYYb ,
extendedFadeTimeBase
wh e re
XXXb
eq u al s
“
extendedFadeTimeMultiplier
”
an d
an d
NO
”.
1 1 .5.27 QUERY MANUFACTURER SPECIFIC MODE Th e
an s we r
s h al l
be
YE S
“operatingMode”
wh e n
is
in
th e
ran g e
[0 x80 , 0 xFF]
o t h e rwi s e .
1 1 .5.28 QUERY SCENE LEVEL ( sceneX) Th i s
co m m an d
by s e l e cti n g
U pon th e
Th e
e xe cu ti o n
opcod e:
actu al l y
co m pri s e s
a bl o ck o f 1 6
of
“QU ERY SCEN E
sceneNumber
an s we r s h al l
1 6
c o n s e c u ti ve
be
=
o pco d e
“sceneX”
.
co m m an d s ,
one
fo r
e ach
sce n e .
Th i s
is
acco m p l i s h e d
o pco d es .
LE VE L (
– 0 xB0 .
sceneX
Th i s
) ”,
th e
i d e n ti fi e s
scen e th e
“
n u m ber
sceneX”
to
s h al l be
be
d e ri ve d
u sed.
fro m
– 66
R e fe r to
s u bcl au s e
9. 1 9
–
I EC
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CSV
© I EC
201 8
bi t
e ach
fo r fu rth e r i n fo rm ati o n .
1 1 .5.29 QUERY GROUPS 0-7 Th e
an s we r s h al l
be
Th e
m e m b e rs h i p
of
g ro u p .
“0 ”
s h al l
g ro u p .
B i t[
X
]
be
sh al l
“gearGroups[7:0]” g ro u ps
0-7
i n te rp re te d
s h al l
as
.
be
n ot a
re p re s e n te d
m e m be r,
re p re s e n t m e m b e rs h i p
an d
o f g ro u p
X
,
as “1 ”
an
8-bi t
s h al l
wh e re
be
X
is
val u e ,
wi th
i n te rp re te d
in
th e
ran g e
one
as
fo r
m e m be r o f th e
[0 , 7 ] .
1 1 .5.30 QUERY GROUPS 8-1 5 Th e
an s we r s h al l
be
Th e
m e m b e rs h i p
of
g ro u p .
“0 ”
sh al l
g ro u p .
B i t[
X
]
be
s h al l
“gearGroups[1 5:8]” g ro u p s
8-1 5
i n t e rp re te d
s h al l
as
.
be
not a
re p re s e n te d
m e m be r,
re p re s e n t m e m b e rs h i p
an d
o f g ro u p
X
as
“1 ”
+8,
an
8-bi t
s h al l
be
X
wh e re
val u e ,
wi th
i n te rp re te d is
in
th e
on e
as
ran g e
bi t
fo r
each
m e m be r o f th e [0 , 7] .
1 1 .5.31 QUERY RANDOM ADDRESS (H) Th e
an s we r s h al l
“randomAddress[23:1 6]”
be
.
1 1 .5.32 QUERY RANDOM ADDRESS (M) Th e
an s we r s h al l
“randomAddress[1 5:8]”
be
.
1 1 .5.33 QUERY RANDOM ADDRESS (L) Th e
an s we r s h al l
“randomAddress[7:0]”
be
.
1 1 .5.34 READ MEMORY LOCATION ( DTR1, DTR0) Th e
If
q u e ry s h al l
e xe cu te d ,
wi th i n
Th e
If
1
th e
th e
d i s card e d
an s we r
Th i s
g e ar s h al l
al l o ws
ad d re s s e d
h ol es
i f th e
s h al l
“DTR1 ”
m e m o ry b an k
co n tro l
N OTE
be
be
th e
l o cati o n
th e
co n te n t
i f th e
m e m o ry
is
m e m o ry b an k i s
of
th e
n o t i m pl em en ted .
m e m o ry
l o cati o n
i d e n ti fi e d
by
“DTR0”
.
an s we r N O
in
ad d re s s e d
ad d re s s e d
m e m o ry l o cati o n
is
n o t i m pl e m e n te d .
ban k i m pl e m e n tati o n .
bel ow
l o cati o n
0 xFF,
th e
co n t ro l
g ear
s h al l
i n cre m e n t
“DTR0”
by
one.
N OTE
2
R e fe r to
Th i s
al l o ws
e ffi ci e n t
s u bcl au s e
9. 1 0
m u l ti - byte
re ad i n g
wi t h i n
a
tran s acti o n .
fo r fu rth e r i n fo rm ati o n .
1 1 .6 Application extended commands 1 1 .6.1
General
“ E N AB LE to
co m m an d
If
D E VI C E
en abl e
th e
“E N AB LE
“ E N AB L E
e xte n d e d
T YP E
co rre c t
data
D E VI C E
D E VI CE
com m an d
(
T YP E
is
)”
d e vi c e
(
sh al l
TYP E
data
acce p te d ,
be
e xe cu te d
t y p e /f e a t u r e
)”
(
is
th e
data
)”
be fo re
co m m an d
an d
an
s e t.
appl i cati o n For
fu rth e r
e xte n d e d
co m m an d
re q u i re m e n ts ,
see
1 1 . 7. 1 4.
d i s card e d appl i cati o n
or
not
re c e i ve d
exten d e d
d i re c tl y
co m m an d
b e fo re
sh al l
be
an
ap pl i cati o n
d i s card e d .
I EC
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Th e
CSV
– 67
–
201 8
d e fi n i ti o n
o f th e
e xte n d e d
co m m an d s
is
p art o f th e
R e fe r to
9. 1 8
1 1 .6.2
QUERY EXTENDED VERSION NUMBER
Th e
an s we r
d e vi c e
Th e
s h al l
an s we r s h al l
i f th e
•
if
be
th e
R e fe r to
th e
as
ve rs i o n
an
n u m ber
of
P a rt
2 xx
of
th i s
n o t i m pl e m en te d :
N O;
s tan d ard
fo r
th e
c o rre s p o n d i n g
8 - b i t n u m be r.
be:
en abl ed
d e vi ce
e n ab l e d
d e vi c e
s p e c i fi c s ta n d a rd s .
fo r fu rth e r i n fo rm a ti o n .
t y p e /f e a t u r e
•
app l i cati o n
t y p e /f e a t u r e
d e vi c e
t y p e /f e a t u r e
s u bcl au s e
is
t y p e /f e a t u r e
is
s u p p o rte d :
th e
ve rs i o n
n u m ber
bel on g i n g
to
th e
n u m b e r.
9. 1 8
fo r fu rth e r i n fo rm ati o n .
1 1 .7 Special commands 1 1 .7.1 Al l
General
s p e ci al
m od e
co m m an d s
s h al l
be
i n t e rp re te d
as
i n s tru c ti o n s
u n l ess
e xpl i ci tl y
s tated
o th e rwi s e .
1 1 .7.2 Th e
•
TERMINATE
fo l l o wi n g
pro ce s s e s
I n i ti al i s ati o n ,
•
“
Th e
co m m an d
wh e th e r LE VE L)
cou l d
R e fe r to
s u bcl au s e
1 1 .7.3
DTR0 ( data )
“DTR0”
sh al l
be
al s o
9. 1 4. 2
s e t to
1 1 .7.4
INITIALISE ( devic e )
i n s tru cti o n
s tate d
On l y in
in
d e vi ce s
Tab l e
s h al l
IEC
s h al l
as
be
i m m e d i ate l y u po n
s e t to
p art
a s tan d ard
e xe cu ti o n
data
be
D I S AB LE D .
of
i n i ti al i s ati o n
o p e rati o n
o th e r pro ce s s e s
(u si ng
R E C AL L M AX L E VE L ,
( I D E N TI F Y D E VI C E )
as
i d e n ti fi ed
in
th e
th e
u n l ess
an d
g i ve n
it
device
Devi ce
is
acce p te d
twi ce
s h al l
re s p o n d
to
Responsi ve d evi ce(s)
00000000b
Al l
Oth er
None
wi t h
“shortAddress”
g e ar wi th o u t
c o n tro l
s to ppe d .
acc o rd i n g
g e ar s h al l
e q u al
“shortAddress” re act
to
th e
re q u i re m e n ts
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 , 9 . 4.
th e
i n s tru cti o n ,
Table 1 8 – Device addressing with “INITIALISE”
C o n tro l
be
.
d i s ca rd e d ,
m atch i n g
1 1 1 1 1 1 1 1 b
sh al l
r e l e va n t 2 x x p a rts .
1 8:
D e vi ce (s )
i n s tru c ti o n :
fo r fu rth e r i n fo rm ati o n .
62386-1 01 : 201 4
0 AAAAAA1 b
o f th i s
fo r fu rt h e r i n fo rm a ti o n .
g i ve n
9. 1 0
”
te rm i n a te
s u bcl au s e
Th i s
te rm i n a te d
s tarte d
o r as
R e fe r to
as
be
initialisationState
I d e n ti fi cati o n , R E C AL L M I N
s h al l
to
0 0 AAAAAAb
s h al l
re act
as
fo l l o ws
– 68
–
I EC
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Th e
i n s tru cti o n
E N AB LE D
s h al l
i f i t was
s tart
R e fe r to
s u bcl au s e
1 1 .7.5
RANDOMISE
Th i s as
i n s tru cti o n
s tate d
Th e
in
i n s tru cti o n
I f e xe cu te d ,
9. 1 4. 2
s h al l
I EC
sh al l
th e
th e re
are
be
be
l og i cal
co n tai n e d
Th e re
th e
unit
sh al l
th e
be
bu s
no
s u bcl au s e
1 1 .7.6
COMPARE
q u e ry s h al l
I f e xe cu te d ,
•
if “
•
in
th e
co n tro l
o th e r cas e s :
s u bcl au s e
1 1 .7.7
WITHDRAW be
•
“randomAddress” i n s tru c t i o n
be
no
to
an s we r.
acce p te d
twi ce
acc o rd i n g
to
th e
re q u i re m e n ts
a ran d o m
val u e
wi th i n
an d
ad d re s s e s
th e
1 00
is
D I S AB LE D .
“randomAddress”
fo r ms
th e
not
bu s
fo u n d
,
in
th e
ran g e
of
for u s e .
i n s tru cti o n
wi th i n
th at
is
is
unit
in
e xecu te d sh al l
an y
of
be
th e
u si ng
b ro a d cas t
unique, o th e r
i. e.
e ve ry
l o g i cal
u n i ts
th i s
i n s tru cti o n .
fo r fu rth e r i n fo rm at i o n .
u n l ess
“initialisationState”
is
E N AB LE D .
an s we r:
”:
YE S ;
NO
“initialisationState”
th e
is
avai l ab l e
ad d re s s
g e ar s h al l
9. 1 4. 2
sh al l
it
p re s e n t
“
•
If
u n i ts
ran d o m
d i s card e d
”
i n s tru cti o n
“initialisationState”
s e tti n g
s h al l
u n i t.
R e fe r to
Th e
be
randomAddress ≤ searchAddress
al l
by
Th e re
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 , 9 . 4.
g e n e rate
ran d o m
9. 1 4. 2
be
s tate ,
ti m e r.
“initialisationState”
if
s h al l
l o g i cal
re p l y to
R e fe r to
Th e
sh al l
wh i ch
a
i n i ti al i sati o n
u n l ess
an d
d i s ca rd e d
h a ve
th e
( re - ) tri g g e r th e
d i s ca rd e d ,
g e n e ra te d
s h al l
in
an d
fo r fu rth e r i n fo rm a ti o n .
i n s tru cti o n
m u l ti pl e
ad d re s s i n g ,
p ro l o n g
62386-1 01 :201 4
[0 x0 0 0 0 0 0 , 0 xFFFFFE ]
If
or
D I S AB L E D
CSV 201 8
d i s card e d
is
is
fo r fu rth e r i n fo rm ati o n .
e q u al
eq u al
is
u n l ess
to
to
th e
fo l l o wi n g
E N AB LE D ,
co n d i ti o n s
hold:
an d
“searchAddress”
e xe cu te d ,
th e
co n tro l
g e ar
sh al l
“initialisationState”
ch an g e
to
WI TH D R AWN .
B e fo re
wi th d rawi n g
usin g
“ P R O G R AM
N OTE
Th e
appl i cati o n no
an s we r
e ffe ct
is
co n tro l l e r ( f ro m
an y
a
co n tro l
g e ar,
th at to
th e
co n tro l
con d u ct
co n tro l
a
g e ar)
on
th e
s u bcl au s e
1 1 .7.8
SEARCHADDRH ( data )
i n s tru cti o n
9. 1 4. 2
g e ar
( b i n a ry)
R e fe r to
Th e
th e
S H O R T AD D R E S S
sh al l
be
is
(
appl i cati o n
data
e xcl u d e d
s e arch
co n tro l l e r
m ay
ass i g n
it
a
f ro m
o pe rati o n
su bseq u en t a c ro s s
al l
“COM P AR E ”
d e vi ce s
u n ti l
o p e rat i o n s ,
th e
bu s.
if
“initialisationState”
is
e q u al
to
th u s
“COM P AR E ”
fo r fu rth e r i n fo rm at i o n .
d i s ca rd e d
s h o rt
ad d re s s ,
) ”.
D I S AB LE D .
al l o wi n g
q u e ry
th e
l ead s
to
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
I f e xe cu te d ,
“searchAddress[23:1 6]”
R e fer to
su bcl au s e
1 1 .7.9
SEARCHADDRM ( data )
Th e
CSV
– 69
–
201 8
i n s tru cti o n
I f e xe cu te d ,
R e fe r to
9. 1 4. 2
sh al l
be
d i s card e d
9. 1 4. 2
be
s e t to
th e
g i ve n
data
.
fo r fu rth e r i n fo rm ati o n .
“initialisationState”
if
“searchAddress[1 5:8]”
s u bcl au s e
sh al l
s h al l
be
s e t to
th e
is
e q u al
g i ve n
data
to
D I S AB L E D .
to
D I S AB L E D .
.
fo r fu rth e r i n fo rm at i o n .
1 1 .7.1 0 SEARCHADDRL ( data ) Th e
i n s tru cti o n
I f e xe cu te d ,
R e fe r to
sh al l
be
d i s ca rd e d
“searchAddress[7:0]”
s u bcl au s e
9. 1 4. 2
“initialisationState”
if
s h al l
be
s e t to
th e
is
g i ve n
e q u al
data
.
fo r fu rth e r i n fo rm a ti o n .
1 1 .7.1 1 PROGRAM SHORT ADDRESS ( data ) Th e
i n s tru cti o n
sh al l
be
•
“initialisationState”
•
“randomAddress”
I f e xe cu te d ,
•
if
•
if
•
in
data data al l
R e fe r to
is
d i s ca rd e d
is
e q u al
eq u al
“shortAddress”
=
M AS K:
=
1 xxxxxxxb
to
th e
E N AB LE D
fo l l o wi n g
hold:
an d
“searchAddress”
s h al l
be
s e t as
o r xxxxxxx0 b :
( 0 AAAAAA1 b ) :
9. 1 4. 2
co n d i ti o n s
o r WI TH D R AWN ,
fo l l o ws :
M AS K ( e ffe c ti ve l y d e l e t i n g
o th e r cas e s
s u bcl au s e
to
u n less
no
th e
s h o rt ad d re s s )
ch an g e
0 0 AAAAAAb .
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 2 VERIFY SHORT ADDRESS ( data ) Th e
If
q u e ry s h al l
e xe cu te d ,
th e
b y 0 AAAAAA1 b ,
R e fe r to
be
d i s card e d
an s we r an d
s u bcl au s e
NO
s h al l
“initialisationState”
if
be
YE S
if
is
e q u al
“shortAddress”
is
to
D I S AB L E D .
e q u al
to
0 0 AAAAAAb
fo r
data
g i ve n
o th e rwi s e .
9. 1 4. 2
fo r fu rth e r i n fo rm at i o n .
1 1 .7.1 3 QUERY SHORT ADDRESS Th e
q u e ry s h al l
be
d i s card e d
•
“initialisationState”
•
“randomAddress”
If
e xe cu te d ,
o r M AS K,
R e fer to
in
th e
is
is
“
su bcl au s e
e q u al
to
n o t eq u al
an s we r
cas e
i f:
sh al l
be
shortAddress 9. 1 4. 2
”
D I S AB L E D ,
to
or
“searchAddress”
0 AAAAAA1 b ,
e q u al s
.
wh e re
M AS K.
fo r fu rth e r i n fo rm ati o n .
“
shortAddress
”
is
eq u al
to
0 0 AAAAAAb ' ,
– 70
–
I EC
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CSV 201 8
1 1 .7.1 4 ENABLE DEVICE TYPE ( data ) Th i s
i n s tru c ti o n
co m m an d p re vi o u s
A
a
of
co n tro l
g e ar
co m m an d s co n tro l
Th e
a
is
th e
d e vi ce
val i d .
d e vi ce
n o n - app l i cati o n D E VI C E
T YP E
th at co m m an d
I EC
sel ect
1 1 . 6)
t y p e /f e a t u r e
E xe cu ti n g
t y p e /f e a t u r e .
fo r
“ E N AB LE Th e
wh i ch
th e
D E VI C E
se l ecti o n
is
n ext
T YP E
only
ap pl i cati o n
( d ata) ”
val i d
fo r
sh al l
th e
exten d e d
can ce l
n ext
an y
ap p l i cati o n
co m m an d .
“ E N AB LE an d
to
s e l e cti o n
exten d ed
If
s h al l
( re fe r
s h al l
data
if
sh al l
e xte n d e d
( d ata) ” ,
be
not
e q u al s
th e
e xe cu te d
re ac t
M AS K,
to
co m m an d of
th e
acco rd i n g
to
i ts
co m m an d s
254
is
e n abl i n g
afte r
t y p e /f e a t u r e
s h al l
e xe cu ti n g be
can ce l l e d
app l i cati o n
e xten d ed
s p e ci fi cati o n .
wh i ch
o r re p re s e n ts
accepted
d e vi ce
bel on g
a d e vi ce
to
th e
t y p e /f e a t u r e
n o t s u ppo rte d
by
th i s
g e ar.
d e vi ce
t y p e s /f e a t u r e s
s h al l
be
co d ed
as
s pe c i fi e d
i d e n ti fy
i n d i vi d u al
in
th e
p arti cu l ar
p arts
of
th e
6 2 3 8 6 - 2 xx se ri e s .
Ap p l i cati o n b e twe e n
co n tro l l e rs
th e
g e ar' s
sh ou l d
i n d i vi d u a l
be
abl e
ad d re s s
to
an d
th e
d e vi ce
g e ars
an d
t y p e s /f e a t u r e s
in
sto re
th e
re l a t i o n s h i p
a p e rs i s te n t m e m o ry.
1 1 .7.1 5 DTR1 ( data ) “DTR1 ” R e fe r to
sh al l
be
s e t to
s u bcl au s e
g i ve n
9. 1 0
data
.
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 6 DTR2 ( data ) “DTR2”
sh al l
be
s e t to
g i ve n
data
.
1 1 .7.1 7 WRITE MEMORY LOCATION ( DTR1 ,
DTR0, data
Th e
fo l l o wi n g
i n s tru cti o n
sh al l
be
•
th e
•
“writeEnableState”
N OTE wri t e
If
ad d re s s e d
1
Th i s
e n abl e
th e
i n s tru cti o n
i d e n ti fi e d
N OTE
2
m e m o ry b an k i s
o p e rati o n
co n d i ti o n
by
d i s card e d
is
is
a
i f an y o f th e
n o t i m pl e m e n te d ,
)
co n d i ti o n s
h old:
or
D I S AB LE D .
bro ad cas t
o p e rati o n .
S e l e cti ve
co n tro l
g e ar
ad d re s s i n g
can
be
ach i eve d
by
s e tti n g
th e
s e l e cti ve l y.
is
“DTR0”
S i m u l tan e o u s
e xecu te d , wi th i n
th e
co n tro l
m e m o ry b an k
wri t i n g
to
m u l ti pl e
can
re a d
co n tro l
g ear
“DTR1 ” g e ar
wi l l
s h al l an d
wri te
re tu rn
p ro b ab l y
data data
i n to
as
l e ad
to
an
fram i n g
th e
m e m o ry
l o cati o n
an s we r.
e rro rs
becau s e
of
col l i d i n g
an s we rs .
N OTE
I f th e
3
Th e
val u e
s e l e cte d
th at
n o t i m pl e m e n te d ,
•
a b o ve
•
l o c ke d
•
n o t wri te ab l e ,
th e
to
sh al l
th e
s u bcl au s e
“ WR I TE be
m e m o ry
ban k l o cati o n
is
n ot
n e ce s s ari l y
data
.
is
or
l as t acce s s i b l e
(see
an s we r
l o cati o n
f ro m
m e m o ry b an k l o cati o n
•
th e
be
m e m o ry l o cati o n ,
9. 1 0. 2) ,
or
M E M O R Y L O C ATI O N
wri tt e n
to .
or
(
DTR1 , DTR0, data
)”
s h al l
be
NO
an d
no
m e m o ry
I EC
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© I EC
If
th e
CSV
– 71
–
201 8
ad d re s s e d
l o cati o n
is
bel ow
l o cati o n
0 xFF,
th e
co n t ro l
g ear
s h al l
i n cre m e n t
“DTR0”
by
one.
N OTE
4
Th i s
R e fe r to
al l o ws
e ffi ci e n t
s u bcl au s e
9. 1 0
m u l ti - byte
wri t i n g
wi t h i n
a
tran s acti o n .
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 8 WRITE MEMORY LOCATION – NO REPLY ( DTR1 , Th i s
i n s tru cti o n
co m m an d
R e fe r to
is
i d en ti cal
e xce p t th at th e
s u bcl au s e
9. 1 0
to
re c e i vi n g
th e
co n tro l
“ WR I TE
DTR0, data
)
M E M OR Y LOC ATI ON
g e ar sh al l
n o t re p l y t o
th e
(
DTR1 , DTR0, data
)”
co m m an d .
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 9 PING Th e
pi n g
i n d i cate
com m an d
is
th e i r p re s e n ce .
1 2 Test procedures Vo i d
u sed Th e
by
si n g l e
pi n g
m as te r
co m m an d
appl i cati o n
s h al l
be
c o n tro l l e rs
i g n o re d
b y co n tro l
(see
I EC
g e ar.
62386-1 03)
to
– 72
–
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CSV 201 8
Annex A ( i n f o rm at i ve )
Exampl es of alg orith ms A.1
Rand om ad d ress al locati on
Th e
co n tro l
se tu p
a)
g e ar
o f th e
S tart
th e
Send 0
c)
co n n ecte d
al g o ri th m
fo r a ti m e
b)
are
pe ri o d
Th e
co n tro l
d e vi c e
al g o ri th m
ti m i n g
is
in
al l
+2
(
data
b a c kw a r d
At
d e vi ce
th at
u ses
ran d o m
ad d re s s
al l o cati o n
fo r
fo r th e
s h o rt
)”
re m ai n i n g
is
h)
Th e
g e ar
se q u e n ce
co n tro l
(
(
th e
Th e
co n tro l
ad d re s s i n g
co m m an d s
randomAddress
a
l owes t
fro m
d i ffe re n t
(
data
c o n tro l
d e vi c e
in
ra n d o m
) ”,
so
to
wi th
be
g e ar.
wh i ch
ad d re s s
by
th at
m e an s
“ S E AR C H AD D R M
g e ar
n eeds
co n tro l
randomAddress
data
data
can
of
Al s o ,
cas e
th e
ab l e
l o we s t
to
h an d l e
th e re
is
a
(
data
ran d o m d i ffe re n t
ch an ce
ra n d o m i s a ti o n
of ) ”,
th at
shou ld
be
)”
be
to
th e
co n tro l
to
can
be
u sed
i d e n ti fi e d
fo u n d
re co rd
can
be
sh al l
th e
to
by
l o cal
ch an g e d
be
g ear
fo u n d
wi th
ai d
of
) ”.
ve ri fy th e
using
“ R E C ALL M AX L E V E L”
s h o rt a d d re s s
g ear
ch o o s e
g e ar wi th
p ro g ram m e d
s h o rt ad d re s s
th e
th e
g e ar.
Th e
I f n eeded,
th e
s am e
f)
p ro g ram m e d
en abl es
“ S E AR C H AD D R H
“ C O M P AR E ” .
S H O R T AD D R E S S
co n tro l
wh i ch
g ear
co n tro l
com i n g
th e
“ V E R I F Y S H O R T AD D R E S S
g)
th e
po i n t,
e)
fo u n d
co n tro l
an d
fram e s
a d d re s s
al te rn ati n g
( d e vi c e ) ”
-2.
u ses
th i s
g e n e rate d
“ P R O G R AM
24
s e arch e s
fo u n d .
g ear
re s tarte d
Th e
co n tro l
“ I N I TI ALI S E
wh i ch
“ S E AR C H AD D R L
co n tro l
a
min.
“ R AN D O M I S E ” ;
ad d re ss
d)
wi th
of 1 5
≤ randomAddress ≤
an
to
s ys te m .
g oing
re m o ve d
“ I D E N TI FY D E VI C E ”,
an d
posi ti on
“ R E C ALL M I N
o f th e
b ack to
fro m
co rre c t p ro g ram m i n g .
th e
re s p e c ti ve
s te p
or
LE VE L” co n tro l
use
an
wi th
th e
g e ar
d)
s e arch
p ro ce s s
by
m e an s
of
“ WI TH D R AW” .
i)
Re peat
fro m
“ I N I TI ALI S E
j)
In
S to p
th e
th e
ad d re s s
A.2 On l y
p ro ce s s
e ve n t
ad d re s s i n g in
s tep
( d e vi ce ) ”
of
wi th
two
p ro ce d u re th e
seco n d
or
c) to
on
u n ti l
p ro l o n g
th e
no 1 5
fu rth e r
min
c o n tro l
g e ar
can
be
fo u n d .
U se
ti m er i f n e ed e d .
“ TE R M I N ATE ” .
m o re
on l y byte )
fo r
co n tro l th e s e
fo l l o we d
g ear
co n tro l by s teps
h avi n g g ear b)
to
th e
wi th
s am e
s h o rt
“ I N I TI ALI S E
(
ad d re s s ,
device
)”
re s ta rt
(u si n g
th e
th e
s h o rt
j).
One si ng l e control g ear connected to th e control device one
p ro g ram
co n tro l
g ear
is
co n n ected
to
a
co n tro l
d e vi ce
th at
u ses
th e
fo l l o wi n g
al g o ri th m
to
a s h o rt ad d re s s .
a)
Tran s m i t th e
n e w s h o rt ad d re s s
b)
Ve ri fy th e
c)
Sen d
“ S E T S H O R T AD D R E S S
s tated
in
co n te n t o f th e
I EC
D TR 0
62386-1 01 :201 4
( 0 AAA AAA1 b )
by “D TR 0
(
data
) ”.
b y “ Q U E R Y C O N TE N T D TR 0 ” .
(
DTR0
an d
wi th
th e
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
)”
twi ce
in
acco rd an ce
9. 3.
re q u i re m e n ts
as
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
A.3 A
co n tro l
d e vi ce
u si n g
co m m an d s
I n i ti al i s ati o n
b)
Q u e ry ' M AS K'
can
be
1 )
th e
th e
app l i cati o n
are
s u p po rte d
u sed
p ro ce s s
d e vi ce
d e vi ce
to
Send
e xte n d by
th e
co m m an d s
d i ffe re n t
n eeds
co n tro l
to
g e ar.
d e te ct
Th e
wh i ch
fo l l o wi n g
appl i cati o n
al g o ri th m
can
Th e
t y p e /f e a t u r e
co n tro l
of
m o re
al l o cati o n .
e ve ry
th an
d e vi ce
to
a)
d e vi ce
wi th
d e vi c e
co m m an d .
TYP E
al l
s h al l
(
data)
typ e
”
g e ar
d e vi c e
th e
data
in
type .
co n tro l
VE R S I ON wi th
th e In
s ys te m .
th i s
cas e
g e ar b e l o n g s
N U M BER”
e q u al
to
“0”.
If
th e
th e
an s we r
p ro c e d u re
to:
co m m an d I f th e re
re ce i ve d
fo l l o wi n g
is
an
p re ce d e d
an s we r,
th e
by co n tro l
0.
o th e r d e vi c e
send
co n tro l
one
type s
“ Q U E R Y E XTE N D E D
R e peat s te p
e xte n d e d
ad d re s s
s u pp o rts
D E VI C E
g e ar b e l o n g s
2)
an d
g e t a l i s t o f th e
“ E N AB LE
c)
–
u sed:
a)
is
– 73
U si ng appl i cati on extend ed com m and s
exten d ed be
CSV
201 8
typ e s
“ E N AB L E
s u p p o rt e d
D E VI C E
by th e
TYP E
(
co n tro l
data
)”
d e vi ce .
b e fo re
e ve ry
appl i cati o n
– 74
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
An n ex B ( n o rm at i ve )
High
A
high
re s o l u ti o n
i m pl em e n ted
Th e
di mm er
acco rd i n g
“actualLevel”
seen
in
Fi g u re
sh al l
a fad e
is
ru n n i n g
•
a fad e
is
s to p pe d
•
an o th e r d i m m i n g
•
a
was on
dimming
Wh e n
•
“actualLevel”
•
a
fad e
( vi a i d e al ,
b e fo re
cu rve
to
is
"in
th e
s tarts
poi n t on
fad e
j u m ps
•
th e re
–
–
sh al l
to
th e
is
th e
fro m
H o we ve r,
if
it
is
i m p l e m e n te d ,
it
s h al l
be
l e ve l ,
afte r
ro u n d i n g
of
an
i n te rn a l
va l u e
as
can
be
fad e
th e
wi th
re s o l u ti o n
ti m e
h as
an o th e r
fa i l u re
two
th e
s e l e cte d
i n te rn al
dimming
cu rve ,
e xce p t wh e n :
cu rve ) ;
e l apsed ;
dimming
l e ve l , in
th e
actu al an d
d i s cre te
s el e cte d
light
en ds
s to re
p o i n ts
two
o u tp u t
at
dimming
cu rve th e
o th e r cu rve s
n e a re s t o f th e s e
th e
an d
on
th e
as
th e
we l l
as
sce n e s , th e
i n cl u d i n g
c o rre s p o n d i n g
b ack wi th o u t l o s s ) .
s e l e cte d
dimming
cu rve :
po i n ts ;
( wh i ch targ e t
c u rve ,
( typ i cal l y
l e ve l
i . e.
m ay
not
light
wh e n
m atch
ou tpu t
a d i s cre te
( wh i ch
a p re s e t i s
u sed
m ay
poi n t on
n ot
th at was
th e
m atch
a
set u si n g
cu rve ) ;
fo l l ow
po i n t o n
th e
th e
co n se q u e n ce s
afte r
s to ppi n g
m o re
th an
a
a fu l l
wi th
poi n t on
sel ected ;
c u rve )
al ways
som e
te s ti n g
or hig h
be twe e n "
a d i s cre t e
are
n e are r
a d i s cre te
s ys te m
s e t to
an o th e r d i m m i n g
•
m an d ato ry.
al l o w re pre s e n ti n g
dimming
d i s cre te
m atch
an d
l i g h t ou tpu t i s
n ew
th e
p ro g ra m m e d
l e ve l
c u rve ,
se l ected
not
an n e x.
re p o rt
al ways
•
l e ve l
is
th i s
B. 1 .
Li g h t o u tp u t s h al l
p o we r
to
reso l u ti o n d i m m er
fad e , s tep
l e ve l s
or
in
or
i n t e rn al
dimming
high
re s o l u ti o n
c u r ve
wi th o u t
m aki n g
c u r ve ;
fo r te s ti n g :
s wi tch i n g
th e
fro m
i d e al
s e l e cte d
ac ti ve
m o re
dimming
dimming
th an
on e
cu rve ,
a
fi rs t
s te p
might
be
less
th an
or
c u r ve ;
dimming
c u r ve
at
a
ti m e
is
co m pl e x,
pe rh aps
b e tte r avo i d e d
B e h avi o u r th at can
be
e xp e ri e n ce d :
•
th e o re ti cal l y a m i n i m al
•
D i re ct high
•
a
STE P
s te p”; 0, 51
•
Arc
th e
UP
e. g .
" fad e
actu al
S p e ci al
•
STE P
wh i l e
ru n n i n g "
e ve n
l e ve l
can th at
is
" Ac tu al
set
wo rs t
to
to
th e
th e
case at
s te p
"1 "
is
“actualLevel” actu al
po i n t (l ess
ended
Le ve l "
re p re s e n ts
wh i l e
to
d i s cre te
re s po n s e
s tatu s
wh e n
al ways
D O WN
th e
( D AP C )
th e
di mm er
possi bl e
re s u l t
in
is
a
Fad e
1 , 49
ti m e
al re ad y at th e
n e are r d i s c re te
n o t ch an g e d ;
might
fad e
h al f a d i m
“h al f
s te psi z e+ 0 , 49
d o wn
at
l e ve l
th an
is
s te p”
s tart
fi n al
d e l ta
steps i ze :
s te ps i z e
to
an d
fro m
th e
poi n t
on
th e
s te p) ;
or
”o n e
re s p o n s e
en d
l as ts
to
an d
at a d i scre te
u n ti l
a
s te p
h al f
up
is
s te p;
Fad e Ti m e
h as
l e ve l ;
poi n t on
th e
dimming
c u r ve .
cas es :
Wh e n be
or
is
C o m m an d
d i m m e r to
H i g h Res
s te ps i z e ,
el apsed ,
•
P o we r
re s o l u ti o n
fad e
a fad e
m ad e
is
s tarte d
at fad e
fro m
s tart ti m e .
“Lam p Th e
o ff”
s tep
co n d i ti o n ,
fro m
o ff to
th e
min
fi rs t s t e p
l e ve l
is
fro m
o ff to
n o t p art o f th e
“M i n fad e
L e ve l ” ti m e .
mu st
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
•
Wh e n be
CSV
– 75
–
201 8
a
fad e
m ad e
fad e
at
is
s tarte d
fad e
s tart
to
“Lam p
ti m e
+
o ff”
co n d i ti o n ,
F ad e Ti m e .
Th e
th e
s te p
l as t fro m
s te p min
fro m l e ve l
“Mi n to
o ff
Le ve l ” is
not
to
o ff
p art
mu st
of
th e
ti m e.
actualLevel
MIN
High
+3
R e s o l u ti o n Li g h t Ou tpu t Le vel
MIN +2 M i n i m u m S tep U p d el ta
L
MIN
(I
d
e
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a
l
h
c
t
u
u
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e
tp
;
s
u
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t
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in
+1
L
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rv
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e
;
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tp s
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l
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ri
d
)
R e po rte d l e ve l
M axi m u m S tep D o wn d e l ta
MIN
P re h e at an d F ad e ru n n i n g bi t = “1 ”
I g n i ti o n ti m e ( 0 wh e n fad i n g d o wn )
Off S to pco n d i ti o n
Fad e ti m e s tart
1 /3 Fad e ti m e
2 /3 F ad e ti m e
Fad e ti m e
IEC
Fi g u re B. 1 – Level beh avi ou r i n cases of off-g ri d starti ng poin ts
– 76
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
B i bl i o g raph y
Luminaires – Part 1: General requirements and tests Switches for household and similar fixed electrical installations – Part 2-2, Particular requirements – Electronic switches Ballasts for tubular fluorescent lamps – Performance requirements Auxiliaries for lamps – Ballasts for discharge lamps (excluding tubular fluorescent lamps – Performance requirements D.C.-supplied electronic ballasts for tubular fluorescent lamps – performance requirements Lamp controlgear Equipment for general lighting purposes – EMC immunity requirements Digital addressable lighting interface – Part 102: General requirements – Control gear Limits and methods of measurement of radio disturbance characteristics of electrical lighting and similar equipment GS1 General Specification, Version 14: Jan-2014, [cited 2014-07-15] . Available at: IEC
60598-1 ,
IEC
60669-2-1 ,
I EC
60921 ,
IEC
60923,
IEC
60925,
I EC
61 347
I EC
61 547,
I EC
62386-1 02:2009,
CI SPR
(al l
p arts ) ,
1 5,
h t t p : //w w w . g o o g l e . c h /u r l ? s a = t & r c t = j & q = & e s r c = s & f r m = 1 & s o u r c e = w e b & c d = 2 & v e d = 0 C C I Q F j A B & u r l = h t t p % 3 A % 2 F % 2 F w w w . g s 1 . a t % 2 F i n d e x . p h p % 3 F o p t i o n % 3 D c o m _p h o c a d o w n l o a d % 2 6 v i e w % 3 D c a te g o ry % 2 6 d o w n l o a d % 3 D 2 8 9 % 3 Ag s 1 - g e n e ra l - s p e c i fi c a t i o n s - v1 4 e n % 2 6 i d % 3 D 9 % 3 A g s 1 - s p e z i f i ka t i o n e n - a ri ch t l i n i e n %2 6 I te m i d % 3 D 3 0 4 & e i = z n m 2 U 4 P q F o P 2 0 g XXm I H g A Q &u s g = AF Q j C N H o q aU j WXvLb y J fVJ o G xg O Al 6 3 m C w
______________
Edition 2.1 201 8-09
FI N AL VE R SI ON
VE R SI ON FI N ALE
colour i n si de
Di g i tal ad d ressabl e l i g h ti n g i n terface – Part 1 02: G en eral req u i rem en ts – Con tro l g ear
I n terface d ’ écl ai rag e ad ressabl e n u m éri q u e –
IEC 62386-1 02:201 4-1 1 +AMD1 :201 8-09 CSV(en-fr)
Parti e 1 02: E xi g en ces g én éral es – Apparei l l ag es d e com m an d e
– 2
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
C O N TE N TS
F O R E WO R D . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7
I N TR OD U C TI ON . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9
1
S co pe . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 1
2
N o rm a t i ve
3
Te rm s
4
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 4
re fe re n ce s
an d
.................................................................................................. 1 1
d e fi n i ti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 1
4. 1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 4
4. 2
V e rs i o n
n u m ber. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 4
5
E l e ctri cal
s pe ci fi cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
6
I n te rface
p o we r s u p p l y . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7
Tran s m i s s i o n
p ro to co l
s tru ctu re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 2
1 6
b i t fo rward
7. 2. 1
fram e
e n co d i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 2. 2
Ad d re s s
b yte . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
7. 2. 3
O pco d e
b yte . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
8
Ti m i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9
M e th o d
o f o p e rati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 2
C o n tro l
g e ar . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 2. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 2. 2
C o n tro l
g e ar p h as e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
9. 3
Dimming
9. 4
C al cu l ati n g
cu rve . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 7
9. 5
F ad i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 0
“targetLevel”
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20
9. 5. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 0
9. 5. 2
Fad e
ti m e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 1
9. 5. 3
Fad e
ra te . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 3
9. 5. 4
E xte n d e d
fad e
ti m e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 3
9. 5. 5
U sing
th e
fad e
ti m e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 5
9. 5. 6
U sing
th e
fad e
rate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 5
9. 5. 7
S ys te m
re s p o n s e
to
ch an g e s
d u ri n g
a fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
9. 5. 8
S ys te m
re s p o n s e
to
ch an g e s
d u ri n g
s tan d b y an d
9. 5. 9
Stoppi n g an d
m ax
s tartu p . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
a fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
9. 6
Min
l e ve l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 6
9. 7
C o m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 7
9. 7. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 7
9. 7. 2
L e ve l
i n s tru cti o n s
wi th o u t fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
i n s tru cti o n s
i n i ti ati n g
9. 7. 3
L e ve l
9. 7. 4
C o n fi g u rati o n
9. 7. 5
Q u e ri e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
9. 7. 6
S p e ci al
9. 7. 7
Ap p l i cati o n
9. 8 9. 8. 1
C o m m an d
a fad e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
i n s tru cti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8 e xte n d e d
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
i te ra ti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 8
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 3
–
201 8
C o m m an d
9. 8. 2 9. 8. 3 9. 9
D AP C M od es
i te rati o n
SEQU EN CE
o f o p e ra t i o n
o f “U P ” an d
“ D O WN ”
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 9
( d e p re cate d ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 9
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30
9. 9. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
9. 9. 2
O p e rati n g
mode
0 x00 :
9. 9. 3
O p e rati n g
mode
0 x01
to
0 x7F:
re s e rve d . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
O p e rati n g
mode
0 x80
to
0 xFF:
m an u fac tu re r s p e ci fi c
9. 9. 4 9. 1 0
s ta n d a rd
m ode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30
m odes . . . . . . . . . . . . . . . . . . . . . . . . . 30
M e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
9. 1 0. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 0
9. 1 0. 2
M e m o ry m ap . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 1
9. 1 0. 3
Se l ecti n g
9. 1 0. 4
M e m o ry b an k re ad i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 2
9. 1 0. 5
M e m o ry b an k wri ti n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 2
9. 1 0. 6
M e m o ry b an k 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 3
9. 1 0. 7
M e m o ry b an k 1
9. 1 0. 8
M a n u f a c t u r e r s p e c i f i c m e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 0. 9
R e s e r ve d
9. 1 1
a m e m o ry b an k l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 2
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 35
m e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
Reset . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 37
9. 1 1 . 1
R e s e t o p e rati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 1 . 2
R e s e t m e m o ry b an k o p e ra ti o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 2
S ys te m
9. 1 3
P o we r o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 8
fai l u re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 7
9. 1 4
As s i g n i n g
s h o rt a d d re s s e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
9. 1 4. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
9. 1 4. 2
Ran d o m
9. 1 4. 3
I d e n ti fi c ati o n
9. 1 4. 4
D i re c t ad d re s s
9. 1 5
F ai l u re
9. 1 6
S tatu s
s tate
ad d re s s
al l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
o f a d e vi ce
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 40
al l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
b e h avi o u r . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
i n fo rm at i o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
9. 1 6. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
9. 1 6. 2
Bi t 0:
C o n tro l
9. 1 6. 3
Bi t 1 :
l am p
fai l u re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 2
9. 1 6. 4
Bi t 2:
l am p
on
9. 1 6. 5
Bi t 3:
l i m i t e rro r . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 4
9. 1 6. 6
Bi t 4:
fad e
9. 1 6. 7
Bi t 5:
re s e t s tate
9. 1 6. 8
Bi t 6:
m i ssi n g
9. 1 6. 9
Bi t 7:
po we r cycl e
g e ar fa i l u re . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
ru n n i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 4 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
s h o rt a d d re s s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 4 seen . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 44
9. 1 7
N o n - vo l a ti l e
9. 1 8
D e vi ce
m e m o ry . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 5
9. 1 9
U sing
scen es . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46
1 0
D e c l ara ti o n
o f vari ab l e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 7
1 1
D e fi n i ti o n
type s
an d
fe a tu re s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 5
o f co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 9
1 1 .1
G e n e ral . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 9
1 1 .2
O ve rvi e w s h e e ts . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 9
1 1 .3
L e ve l
i n s tru ct i o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 4 (
level)
1 1 .3.1
D AP C
1 1 .3.2
OFF . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 4
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
1 1 .3.3
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
– 4
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
1 1 . 3. 4
D O WN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 4
1 1 .3.5
S TE P
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54
1 1 .3.6
S TE P
D O WN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 5
1 1 .3.7
R E C ALL
M AX LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 5
1 1 .3.8
R E C ALL
MIN
1 1 .3.9
S TE P
1 1 .3.1 0
ON
1 1 .3.1 1
E N AB L E
1 1 .3.1 2
GO
1 1 .3.1 4
C ON TI N U OU S
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57
1 1 .3.1 5
C ON TI N U OU S
D O WN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
1 1 .3.1 3
GO
1 1 .4
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 5
D O WN
AN D
TO
TO
AN D
S TE P
OFF . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 6
U P . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56
D AP C
SEQU EN CE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56
L AS T AC TI VE
SCEN E
C o n fi g u rati o n
(
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
sceneNumber)
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57
i n s tru cti o n s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
1 1 . 4. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 7
1 1 . 4. 2
RESET . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57
1 1 . 4. 3
S TOR E
1 1 . 4. 4
S AVE
1 1 . 4. 5
S E T O P E R AT I N G
1 1 . 4. 6
R E S E T M E M O R Y B AN K (
1 1 . 4. 7
I D E N TI FY D E VI C E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 9
AC TU AL LE VE L I N
M OD E
DTR0)
1 1 . 4. 8
S E T M AX LE VE L (
1 1 . 4. 9
SET MI N
1 1 . 4. 1 0
S E T S YS T E M
1 1 . 4. 1 1
S E T P O WE R
1 1 . 4. 1 2
S E T F AD E
TI M E
1 1 . 4. 1 3
S E T F AD E
R AT E
1 1 . 4. 1 4
S E T E XTE N D E D
1 1 . 4. 1 5
SET SCEN E
1 1 . 4. 1 6
R E M OVE
1 1 . 4. 1 7
AD D
1 1 . 4. 1 8
R E M OVE
1 1 . 4. 1 9
S E T S H O R T AD D R E S S
1 1 . 4. 20
E N AB L E
1 1 .5
D TR 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 8
P E R S I S TE N T V AR I AB L E S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 8
TO
LE VE L (
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 58
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 58
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59
LE VE L (
DTR0)
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
LE VE L ( (
DTR0)
DTR0)
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 59
F AI LU R E ON
(
DTR0)
(
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
(
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
F AD E
TI M E
(
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 0
DTR0, sceneX) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1
FROM
SCEN E
G ROU P FROM
WR I TE
(
group )
(
sceneX) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 61
G ROU P (
(
group ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1
DTR0) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
M EM ORY. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
Q u e ri e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 2
Q U E R Y S T ATU S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 3
Q U E R Y C O N TR O L G E AR
PRESEN T . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
1 1 . 5. 4
Q U E R Y C O N TR O L G E AR
F AI LU R E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 2
1 1 . 5. 5
Q U E R Y L AM P
F AI LU R E
1 1 . 5. 6
Q U E R Y L AM P
P OWE R
1 1 . 5. 7
QU ERY LI M I T ERR OR . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63
1 1 . 5. 8
Q U E R Y R E S E T S TATE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3
1 1 . 5. 9
QU ERY M I SSI N G
1 1 . 5. 1 0
QU E R Y VE R S I ON
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
ON . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62
S H O R T AD D R E S S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3 N U M BER . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63
1 1 . 5. 1 1
Q U E R Y C O N TE N T D TR 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3
1 1 . 5. 1 2
QU E R Y D E VI C E
TYP E
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 63
1 1 . 5. 1 3
QU E R Y N E XT D E VI C E
T YP E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 3
1 1 . 5. 1 4
Q U E R Y P H YS I C AL M I N I M U M . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
1 1 . 5. 1 5
QU E R Y P OWE R
F AI LU R E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
1 1 . 5. 1 6
– 5
–
Q U E R Y C O N TE N T D TR 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
1 1 . 5. 1 7
Q U E R Y C O N TE N T D TR 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
1 1 . 5. 1 8
Q U E R Y O P E R AT I N G
1 1 . 5. 1 9
QU ERY LI G H T SOU RCE
1 1 . 5. 20
Q U E R Y AC TU AL L E VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5
1 1 . 5. 21
Q U E R Y M AX L E VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5
1 1 . 5. 22
QU ERY M I N
1 1 . 5. 23
QU E R Y P OWE R
1 1 . 5. 24
Q U E R Y S YS T E M
M OD E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64 T YP E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 4
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5 ON
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5
FAI LU R E
1 1 . 5. 25
Q U E R Y F AD E
1 1 . 5. 26
Q U E R Y E XTE N D E D
1 1 . 5. 27
Q U E R Y M AN U F AC TU R E R
T I M E /F A D E F AD E
LE VE L (
LE VE L . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65 R ATE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5 TI M E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 5 SPECI FI C
M OD E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65
sceneX
1 1 . 5. 28
QU ERY SCE N E
1 1 . 5. 29
QU ERY G ROU PS
0-7 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
1 1 . 5. 30
QU ERY G ROU PS
8-1 5
1 1 . 5. 31
Q U E R Y R AN D O M
AD D R E S S
(H ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
1 1 . 5. 32
Q U E R Y R AN D O M
AD D R E S S
(M ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
1 1 . 5. 33
Q U E R Y R AN D O M
AD D R E S S
1 1 . 5. 34
R E AD
1 1 .6
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 65
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
M E M O R Y LO C ATI O N
Appl i cati o n
exten d ed
(L) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 6
(
DTR1 , DTR0
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66
co m m an d s. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 6
1 1 . 6. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 6
1 1 . 6. 2
Q U E R Y E XTE N D E D
1 1 .7
1 2
CSV
201 8
S pe ci al
VE R S I ON
N U M BER . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
1 1 . 7. 1
G e n e ra l . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
1 1 . 7. 2
TE R M I N ATE . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
1 1 . 7. 3
D TR 0
1 1 . 7. 4
I N I TI ALI S E
1 1 . 7. 5
R AN D O M I S E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 8
1 1 . 7. 6
C O M P AR E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 8
1 1 . 7. 7
WI TH D R AW . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 8
1 1 . 7. 8
S E AR C H AD D R H
1 1 . 7. 9
S E AR C H AD D R M
1 1 . 7. 1 0
S E AR C H AD D R L
1 1 . 7. 1 1
P R OG R AM
1 1 . 7. 1 2
VE R I F Y S H O R T AD D R E S S
1 1 . 7. 1 3
Q U E R Y S H O R T AD D R E S S . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 9
(
data
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67 (
device
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 67
data data data
(
)
( (
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
data data
S H O R T AD D R E S S
D E VI C E
(
data
(
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 69
1 1 . 7. 1 4
E N AB L E
1 1 . 7. 1 5
D TR 1
(
1 1 . 7. 1 6
D TR 2
(
1 1 . 7. 1 7
WR I TE
M E M OR Y LOC ATI ON
(
1 1 . 7. 1 8
WR I TE
M E M OR Y LOC ATI ON
– NO
1 1 . 7. 1 9
PI N G . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 71
data data
T YP E
(
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70 ) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70
DTR1 , DTR0, data DTR1 , DTR0, data
) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 70
R E PLY (
) . . . . . . . . . . . . . . . . . . . . . 71
Te s t p ro ce d u re s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 1
Vo i d
An n e x
A ( i n fo rm a t i ve )
A. 1
Ran d o m
A. 2
On e
A. 3
U sing
An n e x B
E xam pl e s
ad d re s s
sing le
( n o rm a t i ve )
al l o cati o n . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 2
co n tro l
ap p l i cati o n High
o f al g o ri th m s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 2
g ear co n n e cte d
e xte n d e d
re s o l u ti o n
to
th e
co n tro l
d e vi ce . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 2
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 73 di mm er . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 74
– 6
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
B i b l i o g ra p h y . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 6
F i g u re
1
– IEC
62386
F i g u re
2
– C o n tro l
F i g u re
3
– Dimming
F i g u re
4
– Le ve l
F i g u re
5
– Ti m i n g
F i g u re
1 1
F i g u re
B. 1
g rap h i cal
o ve rvi e w . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9
g e ar d i re c t l y o p e rat i n g
cu rve . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 8
o ve r t i m e ,
an d
fad i n g
re s p o n s e
– C o rre l a ti o n
– Le ve l
a l i g h t s o u rce . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 6
an d
wh e n
b e twe e n
b e h avi o u r i n
up
“
e xe cu ti n g
lampFailure
case s
fram e
d o wn . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 1
”,
“
co m m an d
lampOn
o f o ff- g ri d
”,
s tarti n g
i te ra ti o n
an d
“
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29
fadeRunning
”
bi ts . . . . . . . . . . . . . . . . . . . 4 3
po i n ts . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7 5
Tab l e
1
– 1 6 - bi t co m m an d
e n co d i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 5
Tab l e
2
– Dimming
c u rve
Tab l e
3
– Dimming
c u rve . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 9
Tab l e
4
– Fad e
ti m e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 2
Tab l e
5
– Fad e
rate s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 3
Tab l e
6
– E xte n d e d
fad e
ti m e
– bas e
Tab l e
7
– E xte n d e d
fad e
ti m e
– m u l ti pl i er . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 4
Tab l e
8
– B as i c m e m o ry m ap
Tab l e
9
– M e m o ry m ap o f m e m o ry ban k 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 3
Tab l e
1 0
– M e m o ry m ap
Tab l e
1 1
– P o we r o n
Tab l e
1 2
– C o n tro l
Tab l e
1 3
– S ce n es . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46
Tab l e
1 4
– D e c l a ra t i o n
Tab l e
1 5
– S tan d ard
Tab l e
1 6
– S pe ci al
Tab l e
1 7
– Li g h t s o u rc e
Tab l e
1 8
– D e vi ce
to l e ran ce
(%,
ro u n d e d
to
two
d eci m al s) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 8
val u e . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 4
o f m e m o r y b a n ks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 1
o f m e m o ry b an k 1
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 36
ti m i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3 9
g e ar s tatu s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 1
o f vari ab l e s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4 7
com m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 49
co m m an d s . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5 3
typ e
en cod i n g . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64
ad d re s s i n g
wi th
“ I N I TI ALI S E ” . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 7
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 7
–
201 8
I N TE R N ATI O N AL E L E C TR O TE C H N I C AL C O M M I S S I O N
____________
DIGITAL ADDRESSABLE LIGHTING INTERFACE – Part 1 02: General requirements – Control gear F O R E WO R D
1 )
Th e
I n te rn ati o n al
al l
n ati on al
i n te rn ati o n al th i s
end
co - o p e rati o n
an d
Te ch n i cal
in
ad d i ti o n
R e po rts ,
P u b l i cati o n (s ) ”) . in
th e
su bj ect
g o ve rn m e n t al wi t h
2)
th e
d e al t
b e twe e n
Th e
d eci s i o n s
i n te re s te d
IEC
in
P u bl i cati o n s
is
o rd e r
to
b e t we e n th e
5)
an y
I EC
i ts el f
does
ass e ss m e n t s e rvi c e s
Al l
7)
No
IEC
wi t h
in
th e
fo r
to
pu bl i sh es
th i s
an d
(I SO)
in
in
for
s tan d ard i z ati o n
o bj ect
of
e l e c tri c al
S tan d ard s ,
an y
wo rk.
p arti ci p ate
S tan d ard i z ati o n
th e
G u i des
co m m i ttees ;
p re p arato ry
al s o
in
Th e
I n t e rn ati o n al
( P AS )
te ch n i cal
IEC
o rg an i z ati o n
Co m m i ttees ) .
s tan d ard i z ati o n
S pe ci fi cati o n s
p arti ci pate
an d
( h e re afte r
IEC
wi th
co m p ri s i n g to
fi e l d s .
To
S p e ci fi cati o n s , to
Co m m i tte e
g o ve rn m e n t al IEC
p ro m o t e
e l e c t ro n i c
re f e rre d
N ati o n al
p re p a ra ti o n .
a cc o rd an c e
is
Te ch n i cal
I n te rn ati o n al ,
th i s
IEC
as
an d
co l l abo rate s
co n d i ti o n s
“I EC
i n te re s te d non -
cl os el y
d e te rm i n e d
by
o rg an i z ati o n s .
th e
of
IEC
re l e van t
th e
fo rm
of
Wh i l e
on
te ch n i cal
s u bj e cts
si n ce
I EC
en d
re c o m m e n d a t i o n s
al l
re a s o n ab l e
can n o t
m a tte rs e ach
e xp re s s ,
te ch n i cal
as
n e arl y
as
co m m i ttee
possi bl e,
h as
an
i n te rn ati o n al
re p re s e n tati o n
fro m
al l
be
h el d
fo r
e ffo rts
i n te rn ati o n a l
are
m ad e
re s p o n s i b l e
for
to
th e
u se
an d
e n s u re wa y
are
th at
in
acce pte d
th e
wh i ch
by
tech n i cal
th e y
are
IEC
N ati o n al
co n ten t
u sed
or
of
IEC
fo r
an y
u s e r.
i n te rn a ti o n a l
th e
wo rl d wi d e
m axi m u m
P u bl i cati o n
u n i fo rm i t y,
exten t
an d
th e
IEC
possi bl e
N ati o n al
in
th ei r
co rre s po n d i n g
C o m m i tte e s
n ati on al
n ati o n al
or
an d
u n d e rt ake
re g i o n al
re g i o n al
to
appl y
IEC
p u bl i cati o n s .
pu bl i cati o n
s h al l
be
P u bl i cati o n s
An y
d i ve rg e n ce
c l e a rl y
i n d i cate d
in
l atte r.
IEC
6)
to
a
Co m m i ttee s.
an y
p ro m o t e
tran s p a re n tl y
is
N ati o n al
c o n ce rn i n g
e n tru s te d
l i ai si n g
sen se.
by
is
a g re e m e n ts
on
accu rate ,
m i s i n te rp re t ati o n
In
m ay
t wo
or
h ave
th at
Avai l abl e
(I EC)
(I EC
acti vi ti e s ,
Org an i z ati o n
th e
N ati o n al
P u bl i cati on s
Co m m i tte es
4)
wi th
opi n i on
IEC
q u es ti o n s
oth er
o rg an i z ati o n s
of
al l
p re p a ra t i o n
I n te rn at i o n al
fo rm al
on to
Com mi ssi on
co m m i ttees
P u bl i cl y
Th e i r
ag re e m e n t
con sen su s
3)
E l e ctro te ch n i cal
e l e ctro te ch n i cal
c a rri e d
u s e rs
m e m b e rs
i ts
d am ag e
e xp e n s es
an d ,
by
attach
th at
to
tech n i cal of
an y
a ri s i n g
ou t
an y
in
atte s tati o n
some
a re as ,
i n d epen d en t
e n s u re
s h al l
of
p ro vi d e
out
should
l i abi l i ty
o th er
not
s e rvi ce s
th ey
IEC
or
c o n fo rm i ty.
ce rti fi cati o n
h ave
i ts
co m m i ttees
th e
l ate s t
d i re c t o rs , an d
IEC
n atu re
wh a t s o e ve r,
of
pu bl i cati o n ,
th e
of
acce s s
to
I EC
of
ce rti fi cati o n
co n fo rm i ty.
I EC
bodi es is
p ro vi d e
not
co n fo rm i ty
re s po n s i bl e
fo r
an y
e x p e rt s
an d
bodi es.
e d i ti o n
of
e m p l o ye e s ,
N ati o n al
wh e th e r use
I n d epen d en t m a rks
o f,
pu bl i cati o n .
s e rvan ts
C om m i ttees
d i re ct or
th i s
or
or
fo r
i n d i re ct,
re l i an ce
u pon ,
ag en ts an y or
i n cl u d i n g
p e rs o n al fo r
th i s
costs
I EC
i n d i vi d u al
i n j u ry,
p ro p e rty
(i n cl u d i n g
P u bl i cati o n
l e g al
or
an y
d am ag e
or
fe e s)
an d
o th e r
IEC
P u bl i cati o n s .
8)
Atte n ti o n
is
d rawn
i n d i spe n s abl e
9)
Atte n ti o n pate n t
is
fo r
to
th e
d rawn
ri g h ts .
IEC
to
th e
N o rm ati ve
co rre c t
th e
s h al l
poss i bi l i ty
n ot
re f e re n c e s
appl i cati o n
be
h eld
of
th at
th i s
som e
re s p o n s i bl e
ci te d
in
th i s
p u bl i cati o n .
U se
of
th e
re fe re n ce d
pu bl i cati o n s
is
pu bl i cati o n .
of
th e
el em en ts
fo r i d e n ti fyi n g
of
an y
th i s
or
al l
IEC s u ch
P u bl i cati on pate n t
m ay
be
th e
su bj ect
of
ri g h t s .
DISCLAIMER This Consolidated version is not an official IEC Standard and has been prepared for user convenience. Only the current versions of the standard and its amendment(s) are to be considered the official documents. This Consolidated version of IEC 62386-1 02 bears the edition number 2.1 . It consists of the second edition (201 4-1 1 ) [documents 34C/1 099/FDIS and 34C/1 1 1 2/RVD] , its amendment 1 (201 8-09) [documents 34/523/FDIS and 34/534/RVD]. The technical content is identical to the base edition and its amendment. This Final version does not show where the technical content is modified by amendment 1 . A separate Redline version with all changes highlighted is available in this publication.
– 8
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
I n te rn ati o n al for l am ps ,
S tan d ard
of I EC
I EC
te ch n i cal
Th i s
s e co n d
e d i ti o n
Th i s
ed i ti o n
i n cl u d es
62386-1 02 co m m i tte e
co n s ti tu te s
th e
h as
34:
been
Lam ps
a te ch n i cal
fo l l o wi n g
p re p are d an d
by
re l ate d
s u bco m m i tte e
34C:
CSV 201 8
Au xi l i a ri e s
e q u i pm e n t.
re vi s i o n .
s i g n i fi can t
te ch n i cal
ch an g es
wi th
re s p e c t
to
th e
p re vi o u s
ed i ti o n :
a)
e l i m i n ati o n
b)
i m p ro ve m e n t o f th e
re q u i re m e n ts
c)
i m p ro ve m e n t o f t h e
te s t co m m an d
d)
ad d i ti o n
e)
th e
d e l e ti o n
ti m i n g ;
2)
co n tro l
Th e
Th i s
1 02
( parti cu l ar
l ist
of
Th e
,
is
fo r
ti m i n g
been
i te ra ti o n s
to
i n c re as e
th e
th e
d e s c ri p ti o n ,
co m p ati b i l i ty,
fo r:
are
d ra fte d
i n te n d e d th e
to
be
re l e van t
cl au s e s
n ow
in
P art
1 01
an d
wi th
th e
th e
re q u i re m e n ts
fo r
co n tro l
d e vi ce s
fo r
in
in
acco rd an ce
u sed
co n tro l
P arts
in
p ro d u ct
1 01
co n j u n cti o n
type
g e ar) an d
1 02
wi th
( s ys te m ) ,
co n tai n i n g in
o rd e r
I S O /I E C
P art
an d
1 01 ,
wi th
cl au s e s to
D i re c t i ve s ,
to
p ro vi d e
P art 2 .
wh i ch
th e
co n tai n s
app ro p ri ate
su ppl em en t
th e
re l e van t
or
g e n e ral
P art
m o d i fy
re q u i re m e n ts
2 xx th e fo r
o f p ro d u ct.
p arts
can
be
co m m i tte e
rem ai n
g e ar b y c l a ri fyi n g
an d
re q u i re m e n ts
re q u i re m e n ts
al l
interface
h as
fo r
co rre s p o n d i n g typ e
fo r co n tro l
P art 1 0 3 .
P art
e ach
g e ar re l e van t d e fi n i ti o n s ,
d e vi ce s .
re q u i re m e n ts in
re q u i re m e n ts
A
o f th e
pu bl i cati o n
Th i s
n o n - co n t ro l
o f n ew co m m an d s ,
1 )
a re
o f al l
of
th e
fo u n d
h as
u n ch an g e d
wi l l
62386
th e
d eci d ed u n ti l
" h t t p : //w e b s t o r e . i e c . c h " pu bl i cati o n
IEC on
in
I EC
th at th e
th e
s e ri e s ,
u n der
th e
g e n e ral
th e
b as e
ti tl e :
Digital addressable lighting
we b s i te .
th e
co n te n ts
s tabi l i ty d ata
of
d ate
re l a t e d
to
i n d i cate d th e
pu bl i cati o n on
s pe ci fi c
th e
an d I EC
p u bl i cati o n .
i ts
am e n d m e n t
web At
s i te
th i s
wi l l
u n d er
d ate ,
th e
be
•
re co n fi rm e d ,
•
wi th d rawn ,
•
re p l ace d
•
am e n d e d .
b y a re vi s e d
e d i ti o n ,
or
IMPORTANT – The 'colour inside' logo on the cover page of this publication indicates that it contains colours which are considered to be useful for the correct understanding of its contents. Users should therefore print this document using a colour printer.
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 9
–
201 8
I N TR O D U C TI O N
IEC
62386
co n tai n s
s pe ci fi cati o n s . e xte n d s
th i s
fu rth e r wi th
Th e
2 xx
(m ai n l y
1 01
g e n e ra l
parts ,
wi th
e xte n d
th e
g e n e ral
g e n e ra l
re q u i re m e n ts
b a c kw a r d
re fe rre d
co n tai n s
i n fo rm a t i o n
p art s fo r
s e ve ra l
P art
as
wi th
Th e
fo r
fo r
1 xx
s e ri e s
s ys te m
c o n t ro l
g e ar
i n cl u d es
th e
co m po n e n ts , an d
P art
1 03
b as i c
P art
1 02
e xte n d s
it
d e vi c e s .
re q u i re m e n ts
co m pati b i l i ty
s e ri e s .
re q u i re m e n ts
fo r co n tro l
g e n e ra l
to
re q u i re m e n ts
E d i ti o n
fo r 1
c o n tro l
of
I EC
g e ar
62386)
wi th an d
l am p wi th
s p e ci fi c
co n t ro l
e xte n s i o n s
g e ar
s pe ci fi c
d e vi ce
s p e ci fi c
fe atu re s .
Th e
3 xx
p a rts
e xte n s i on s co m bi n e d
Th i s
I EC
wi th
s eco n d
1 01 :201 4
exten d
th e
d e s cri b i n g m u l ti pl e
e d i ti o n
an d
I EC
62 3 8 6 - 2 xx
p ro vi d e s as
an d
Th e
i n s tan ce
of
IEC
s e ri e s
fo r
fo r
e as e
s e tu p
2 xx
of
a n eed
o f th e
1 02
as
fo r
fu tu re
is
g e a r,
i n te n d e d
vari o u s
co n tro l
is
as
to
an d
to g e th e r p arts
d e vi ce s .
am e n d m e n ts
is
2 xx
G e n e ral
th e
fo r th e m
co n tro l
we l l
wi th
co m m o n
i n pu t
fe a tu re s
th at
can
be
an d
be
u sed
wi th
th e
wi th
th at Th e
I EC
m a ke
co n j u n cti o n p arts
wi th
th at
62386-1 03: 201 4 up
d i vi s i o n
re vi s i o n s .
in
va ri o u s
th e
i n to
I EC
an d
I EC
6 2 3 8 6 - 3 xx
s e p ara te l y
Ad d i ti o n al
I EC
62386-
m a ke
up
s e ri e s
pu bl i sh ed
re q u i re m e n ts
th e
62386-
wi l l
be
of
p arts ad d ed
re c o g n i s e d .
g rap h i ca l l y re p re s e n te d
2 xx
in
2 xx
F i g u re
3 xx
re q u i re m e n t s -
C o n tro l
d e vi ce s
som e
types .
co n tro l
fo r
s tan d ard
2 xx
types
62386-1 02
an d
re q u i re m e n ts
wh e n
re q u i re m e n ts
i n s tan ce
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8
1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8 p arti cu l ar
g e n e ra l
th e
1
be l ow.
3 xx
1 03
3 xx
G e n e ral
g ear
G e n e ra l S ys te m
3 xx
re q u i re m e n t s -
C o n tro l
1 01
3 xx
d e vi ce s
re q u i re m e n t s -
com pon en ts
IEC
Fi g u re 1 – IEC 62386 g raph ical overvi ew
Wh e n I EC th e
th i s
p art
62 386-1 xx te s ts
are
re q u i re m e n ts ,
Al l
n u m b e rs
g i ve n
in
to as
u sed
H e xad e ci m al are
th e
fo l l o wi n g
I EC
be
62386
th e
re fe rs
e xte n t
to
p e rfo rm e d
to
an y
wh i ch
are
of
su ch
th e a
s pe ci fi e d .
cl au s e s
cl au se Th e
is
of
th e
o th e r
ap p l i cab l e
o th e r
p arts
an d
al s o
two th e
p arts
o rd e r
i n cl u d e
of
in
th e
wh i ch
ad d i ti o n al
n e ce s s ary.
in
th i s
n u m b e rs
b i n ary n u m b e rs
Th e
of
s e ri e s ,
I n te rn ati o n a l
are
g i ve n
in
f o rm a t XX XX XXX Xb m e an s
S tan d ard
th e
fo rm a t
or in
th e
are
are
wh e re
n u m b e rs VV
is
fo rm a t XXXX XXXX,
" d o n ' t c are " .
typ o g rap h i c e x p re s s i o n s
d e ci m al
0 xVV,
u sed :
u n less
th e
val u e .
wh e re
X
is
o t h e rwi s e B i n ary 0
or 1
n o te d .
n u m b e rs an d
" x"
in
– 1 0
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
Vari abl e s :
Ran g e
variableName
o f va l u e s :
C o m m an d :
or
[l o we s t,
“ C O M M AN D
variableName[3:0]
h i g h e s t]
N AM E ”
,
g i vi n g
o n l y bi ts
3
to
0
of
variableName
CSV 201 8
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 1 1
–
201 8
DIGITAL ADDRESSABLE LIGHTING INTERFACE – Part 1 02: General requirements – Control gear
1
Scope
Th i s
P art
s i g n al s p arts ) ,
N OTE not
of
I EC
62386
is
appl i cabl e
o f e l e ctro n i c l i g h ti n g wi th
Te s ts
th e
in
ad d i ti o n
th i s
of DC
s tan d a rd
are
to
co n tro l
e q u i p m e n t wh i ch
is
g e ar
in
in
line
a
wi th
bu s th e
s ys te m
for
c o n tro l
re q u i re m e n ts
by
of I EC
d i g i tal
61 347
( al l
su ppl i es.
type
tes ts .
R e q u i re m e n ts
fo r
testi n g
i n d i vi d u al
co n t ro l
g ear
d u ri n g
pro d u cti o n
are
i n cl u d ed .
2
Normative references
Th e
fo l l o wi n g
co n te n t ci ted
d o cu m e n ts
co n s ti tu tes
ap p l i e s .
Fo r u n d ate d
an y am e n d m e n ts )
are
re fe rre d
re q u i re m e n ts
re fe re n ce s ,
62386-1 01 : 201 4,
IEC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8
I EC
62386-1 03:201 4,
I EC
6 2 3 8 6 - 1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8
– Control devices
Terms and definitions
For
th e
I SO
I EC
an d
th e
te xt
d o cu m en t.
in
s u ch
Fo r
l ates t e d i ti o n
a
d ate d
o f th e
way
th at
re fe re n ce d
of
th i s
m ai n tai n
d o cu m e n t,
th e
te rm i n o l o g i cal
t e rm s
an d
d atab as e s
d e fi n i ti o n s
fo r
u se
in
g i ve n
in
•
I EC
E l e c tro p e d i a :
•
I SO
On l i n e
a va i l a b l e
b ro ws i n g
a t h t t p : //w w w . e l e c t r o p e d i a . o r g /
pl atfo rm :
avai l ab l e
a t h t t p : //w w w . i s o . o r g /o b p
3.1 actual level re p re s e n ti n g
th e
cu rre n t l i g h t o u tp u t
3.2 arc power p o we r s u p p l i e d
to
th e
l i g h t s o u rc e s
( l am ps )
3.3 broadcast type
o f ad d re s s
or
on ly
al l th e
d ocu m en t
u sed
to
ad d re s s
al l
co n tro l
g e ar i n
th e
s ys te m
I EC
of
th e i r
ed i ti o n
( i n cl u d i n g
6 2 3 8 6 - 1 0 1 an d
s tan d ard i z ati o n
ad d re s s e s :
val u e
som e
re fe re n ce s ,
Digital addressable lighting interface – Part 103: General requirements
3
appl y.
th e
in
Digital addressable lighting interface – Part 101: General requirements
IEC
p u rp o s e s
to
th i s
ap p l i e s .
– System components
fo l l o wi n g
of
at o n ce
at
th e
th e
fo l l o wi n g
– 1 2
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
3.4 broadcast unaddressed typ e
of
ad d re s s
u sed
to
ad d re s s
al l
co n tro l
d e vi ce s
in
th e
s ys te m
th at
h ave
no
s h o rt
ad d re s s
at on ce
3.5 DAPC direct arc power control a m e th o d
N o te
1
to
to
d i re ctl y co n tro l
e n t ry:
Th e
n o te
to
th e
e n try
in
l i g h t o u tpu t
Fre n ch
co n ce rn s
th e
Fre n ch
text
o n l y.
th e
Fre n ch
text
o n l y.
3.6 DTR data transfer register m u l ti p u rp o s e
N o te
1
to
re g i s te r u s e d
e n t ry:
Th e
n o te
to
to
e n try
e xch an g e
in
Fre n ch
d ata
co n ce rn s
3.7 group address type
o f ad d re s s
u sed
to
ad d re s s
a g ro u p
o f c o n tro l
g ear i n
th e
s ys te m
al l
at on ce
3.8 GTIN g lobal trade item number n u m ber u sed
N o te
1
to
N ote
2
N ote
3
e n t ry:
to
n u m ber
Fo r
e n try:
an d
to
fo r th e
a
unique
fu rth e r i n fo rm ati o n
Th e
n u m ber
ch eck d i g i t.
e n try:
i d e n ti fi cati o n
Th e
It
n ote
3
is
to
is
see
e n t ry
in
in
i te m s
wo rl d wi d e
h t t p : // e n . w i k i p e d i a . o r g / w i k i / G T I N
c o m p ri s e d
d e s cri b e d
o f tra d e
of
th e
Fre n ch
a
GS1
“G S1
or
U. P. C.
G e n e ral
c o n c e rn s
th e
co m pan y
p re fi x
fo l l o we d
by
an
i tem
re fe re n c e
S p e ci fi cati o n s ”.
Fre n ch
te xt
o n l y.
1 .1 identification te m p o rary co n tro l
state
u sed
d u ri n g
com m i ssi on i n g
th at
al l o ws
th e
i n s tal l e r
to
i d e n ti fy
p a rt i c u l ar
g e ar
3.9 level 8
b i t val u e
3.1 0 MASK th e
va l u e
0 xFF
3.1 1 monotonic f a
fu n cti o n
d e fi n e d
n o n - d e cre as i n g , L i ke w i s e , so
it
a
th e
on
fo r
fu n c ti o n
re ve rs e s
d e cre as i n g
if
is
a
al l
su bset
x
an d
cal l ed
o rd e r.
For
y
of
th e
su ch
re al th at
m o n o to n i cal l y th i s
s tan d ard
o r m o n o to n i cal l y n o n - i n cre as i n g
3.1 2 NO an s we r u s e d
to
d e n y o r re fu s e
a q u e ry
n u m b e rs
x≤ y
one
wi th h as
n o n - i n cre as i n g m o n o to n i c
is
re al
va l u e s
f x) ≤ f y (
(
i f,
),
is
so
wh e n e ve r
d e fi n e d
as
cal l e d
f x≤ y
m o n o to n i cal l y
p re s e rve s
ei th e r
,
th en
th e
o rd e r.
f x) ≥ f y (
m o n o to n i cal l y
(
),
non-
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
N o te th e
1
CSV
– 1 3
–
201 8
to
q u e ry
e n t ry: wi l l
If
a
q u e ry
co n cl u d e
is
“n o
a s ke d
wh e re
b a c kwa rd
th e
fram e "
a n s we r
f o l l o wi n g
is
N O,
I EC
th e re
wi l l
be
no
62386-1 01 :201 4
re s p o n s e ,
an d
su ch
th at
th e
sen der
of
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
8. 2. 5.
N o te
2
to
e n t ry:
Th e
a n s we r
NO
cou l d
al s o
be
t ri g g e re d
th e
co n ten t
by
a
m i ssed
q u e ry.
3.1 3 NVM n o n - vo l ati l e to
r e a d /w r i t e
m e m o ry,
of
wh i ch
can
be
ch an g e d
an d
wi l l
not
be
l ost
due
a po we r cycl e
3. 1 4 opcod e operati on cod e p art o f a fo rwa rd
fra m e
th at i d e n ti fi e s
th e
com m an d
to
be
e xe cu te d
3. 1 5 operati ng mode set
of
s tate s
va ri ab l e s co n tro l
N o te
1
g e ar,
to
i d en ti fi e d
an d
m e m o ry
i n cl u d i n g
e n t ry:
C o n tro l
by
a
n u m ber
se tti n g s , i ts
an d
re q u i re d
g e ar m ay
in
th e
u sed
to
re ac t i o n
s u p p o rt
m o re
ran g e sel ect
to
[0, 255] , a
set
of
ch arac t e ri s e d fu n c ti o n al i ty
by
to
a
be
co l l e cti o n
e xh i b i te d
by
of a
co m m an d s
th an
one
to
th e
o p e rati n g
mode
3.1 6 PHM p h ys i cal o pe rate
minimum
l e ve l
co rre s po n d i n g
minimum
light
o u tpu t
th e
co n tro l
g e ar
can
at
3.1 7 RAM vo l ati l e
r e a d /w r i t e
m e m o ry,
th e
co n te n t
of
wh i ch
can
be
ch an g e d
an d
wi l l
be
l ost
due
to
a
p o we r c yc l e
3.1 8 rand om add ress ran d o m
24
N o te
e n t ry:
1
to
b i t n u m b e r g e n e ra te d
An n e x
A. 1
p ro vi d e s
b y th e
an
co n t ro l
e xam pl e
of
h ow
g e ar o n
th e
s e arch
re q u e s t d u ri n g
an d
ran d o m
s ys te m
ad d re s s e s
a re
i n i ti al i s ati o n
used.
3.1 9 reset state s tate a re
in
wh i ch
m a r ke d
al l
“no
N VM
va ri ab l e s
ch an g e ” o r are
of
th e
co n tro l
o th e rwi s e
g e ar
h a ve
th e i r
re s e t
va l u e ,
e xce pt
th os e
th at
e xpl i ci tl y e xcl u d e d
3.20 ROM n o n - vo l ati l e
N o te
1
to
re ad
e n t ry:
i m pl em e n te d
in
In
o n l y m e m o ry,
th i s
N VM ,
s tan d ard
bu t
th i s
th e
re ad
s t an d ard
co n te n t o f wh i ch
only does
is
m ean t
not
fro m
p ro vi d e
a
an y
is
fi xe d
s ys te m
p e rs p e cti ve .
m e ch an i sm
to
A
ch an g e
ROM
i ts
vari ab l e
m ay
actu al l y
val u e .
3.21 scene co n fi g u rab l e
pre s e t l e ve l
3.22 search ad dress 24
bi t n u m ber u sed
N o te
1
to
e n t ry:
An n e x
to
A. 1
i d e n ti fy an
p ro vi d e s
an
i n d i vi d u a l
e xam pl e
of
co n tro l
h ow th e
g e ar i n
s e arch
an d
th e
s ys te m
ran d o m
d u ri n g
a d d re s s e s
are
i n i ti al i s ati o n
used.
be
– 1 4
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
3.23 short ad d ress typ e
o f a d d re s s
u sed
to
ad d re s s
an
i n d i vi d u al
co n tro l
g e ar i n
th e
s ys te m
3.24 startup ti m e
n eeded
N o te
1
to
to
e n t ry:
ch an g e
Th i s
ti m e
fro m
l am p
i n cl u d es
o ff to
p re h e at
an d
n o rm al
o p e ra t i o n
o f th e
l am p
o r fai l u re
s tate
i g n i ti on .
1 .2 strictl y mon otoni c a
f
fu n cti o n
d e fi n e d
i n cre as i n g ,
if
L i ke w i s e ,
fu n c ti o n
it
a
re ve rs e s
i n cre as i n g
fo r
th e
on
a
x
al l
is
o rd e r.
su bset
y
an d
cal l e d Fo r
of
s u ch
th e
re al
x
th at
m o n o to n i cal l y
th i s
s tan d ard
n u m b e rs
y
<
on e
wi th (
d e c re as i n g
s tri ctl y
re al
fx
h as
)
i f,
<
va l u e s
fy (
),
is
f
x
wh e n e ve r
m o n o to n i c
is
so
d e fi n e d
< as
cal l e d
m o n o to n i cal l y
p re s e rve s
y
,
th e n
e i th e r
th e
fx (
)
>
o rd e r.
fy (
),
so
m o n o ton i cal l y
o r m o n o to n i cal l y d e cre as i n g
3.25 targ et level th e
targ e t l i g h t o u tp u t e xp e cte d
afte r co m p l e ti o n
o f th e
cu rre n t l e ve l
co m m an d
3.26 YES an s we r u s e d
N o te th e
1
to
e n t ry:
val u e
4
to
of
acce p t o r affi rm
If
a
q u e ry
is
th e
a n s we r
is
YE S ,
th e
re s p o n s e
wi l l
be
a
b a c kwa rd
fram e
co n tai n i n g
G eneral
Th e
re q u i re m e n ts
I EC
wi th
4. 2
Version nu mber
Th i s
Th e
ve rs i o n an d
en cod e d ve rs i o n
re p l ace s
s h al l
th e
i n to
e ach
a
Th e
am e n d m en t
IEC
th e
th e
to
fo rm a t
" x. y" ,
n u m ber
y
in
ed i ti o n
in
of
1
to
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
i d e n ti fi e d
IEC
th e
th e
n u m ber
b i ts
I EC
an d
wh e re
is
ve rs i o n
pl aced
an
an d
ad d i ti o n s
62386-1 01 : 201 4
m aj or
be
an d
x
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
m aj o r
ra n g e
C l au s e
ve rs i o n
of
s h al l
0
be
4
b e l o w.
to
n u m ber x
2.
Wh e n
p l ace d
in
is
th e
bi ts
7
in
th e
ve rs i o n to
2
4. 2.
ran g e
of 0
n u m ber
an d
th e
is
m inor
0.
I EC
62386-1 02
th e
m i n or
ve rs i o n
n u m ber
s h al l
be
by on e.
of I EC
m i n o r ve rs i o n
N o rm al l y
2
62386-1 02
n u m ber sh al l
cu rre n t ve rs i o n
N OTE
in
ch an g e s
ve rs i o n
b yte ,
a n e w ed i ti o n
th e
be
minor
n u m be r y s h al l
i n cre m e n te d
62386-1 01 : 201 4
re s tri cti o n s ,
s u bcl au se
62
At
th e
of
appl y,
At
wh e re
M AS K.
General
4.1
to
a s ke d
a q u e ry
n u m ber i s
am e n d m e n ts
on
“
be
th e
m a j o r ve rs i o n
s e t to
versionNumber”
IEC
n u m be r s h al l
be
i n cre m e n te d
0.
d o cu m e n ts
a re
as
d e fi n e d
m ad e
b e fo re
a
in
Tabl e
new
1 4.
e d i ti o n
is
c re ate d .
by on e
an d
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
5
CSV
– 1 5
–
201 8
Electrical specification
Th e
re q u i re m e n ts
of
IEC
62386-1 01 :201 4
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au se
5
appl y.
6
Interface power supply
If
a
IEC
7
bu s
p o we r
su ppl y
62386-1 01 :201 4
an d
is
I EC
i n te g rate d
i n to
a
c o n t ro l
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
g e ar,
C l au s e
6
th e
re q u i re m e n ts
of
appl y.
Transmission protocol structure
7.1
General
Th e
re q u i re m e n ts
I EC
fo l l o wi n g
62386-1 01 : 201 4
wi th
7.2
1 6 bit forward frame encoding
7.2.1
th e
of
appl y,
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au s e
ad d i ti o n s .
General
Fo r co m m an d s ,
th e
1 6
b i t fo rward
fram e
s h al l
be
e n co d e d
as
is
d e pi cte d
in
Tab l e
1 .
Table 1 – 1 6-bit command frame encoding B ytes/Bi ts Ad dress byte 15
14
13
0
12
64
Opcode byte
11
s h o rt
10
8a
9
ad d re s s e s
x
G ro u p
0
1
1
1
1
1
1
0
x
1
1
1
1
1
1
1
x
7.2.2 Th e
ad d re s s e s
S h o rt
0
S e l e cto r
g ro u p
1 01 0
0000
to
1 1 00
1 01 1
1 1 00
1 1 00
to
1 1 1 1
1 01 1
bi t,
see
7. 2. 2;
0
i n d i cate s
b yte
•
th e
m e th o d
•
th e
typ e
o f co m m an d
S p e ci al
i n d i cates
u sed
t ran s m i tte d
in
s ta n d a rd
Bi t 8
=’0’:
d i re c t arc p o we r c o n tro l
•
re s e r ve d
R e s e r ve d
Th e
1
ad d re s s i n g
=’1 ’:
ad d re s s
s paces
o th e r co m m an d
d e vi ce
sh ou l d
Opcode byte byte
th e
ap p l i cati o n
opcod e
co n tro l l e r;
byte ;
( D AP C )
co m m an d ;
co m m an d s ;
ad d re s s e s .
ad d re s s e s
o pco d e
b y th e
co m m an d ;
fo r s peci al
p ro vi d e s
n ot be
u n ad d re s s e d
co m m an d
R e s e rve d
D AP C ,
Bi t 8
•
ad d re s s i n g
B ro ad cas t
p ro vi d e s
o f d e vi ce
ad d re s s i n g
B ro ad cas t
Address byte
ad d re s s
7.2.3
7. ..0
x
1
a
1 6
Devi ce addressi ng meth od
u sed
b y th e
ap p l i cati o n
co n tro l l e r.
7
– 1 6
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
•
fo r D AP C
•
fo r s tan d ard
•
co m m an d
•
r e s e r ve d
8
Timing
Th e
co m m an d s ,
th e
co m m an d s ,
re q u e s te d
th e
re q u i re m e n ts
of
fo r s p e c i al
fo r re s e rve d
IEC
l i g h t o u tpu t;
opcod e;
s p e ci fi c i n fo rm ati o n
i n fo rm a ti o n
CSV 201 8
co m m an d s ;
co m m an d s .
62386-1 01 :201 4
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au se
8
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
C l au se
9
appl y.
9
Method of operation
9.1
General
Th e
re q u i re m e n ts
app l y wi th
9.2
of
IEC
fo l l o wi n g
62386-1 01 :201 4
ad d i ti o n s .
Control gear
9.2.1
General
C o n tro l is
th e
g e ar
s pe ci fi e d
m ay
re c e i ve
by I EC
co m m an d s
62386-1 03:201 4
fro m
an d
an
I EC
ap p l i cati o n
co n tro l l e r.
Th e
appl i cati o n
co n tro l l e r
6 2 3 8 6 - 1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8 .
R e q u e s te d l i g h t o u tpu t
C o n tro l g e ar
Arc po we r
Li g h t o u tpu t
Actu al l e ve l
IEC
Figure 2 – Control gear directly operating a light source F i g u re a
2
s h o ws
co n tro l
th e re
is
kn o w n
N OTE
g e ar
a
as
h o w th e is
minimum th e
PHM
is
vari o u s
re fe rre d th at
ph ys i cal
c o n t ro l
to
th e
g e ar spe ci fi c,
Control gear phases
9.2.2.1
General
g e ar.
In
on
th e
g e n e ral
light
th es e
as
l e ve l
an d
s o u rce
are
1 00
co n t ro l
minimum
9.2.2
D epen d i n g
l e ve l s
as
is
l e ad
%.
to
Al l
g ear
l i g h t ou tpu t.
l e ve l s
can
are
su ppl y
Th e
m axi m u m
s peci fi e d wh i l s t
in
th e re
a is
( l i g h t)
re l ati ve s ti l l
light
o u tpu t l e ve l
way.
of
P h ys i cal l y
ou tpu t.
Th i s
is
(PH M ) .
g re ate r
va ri o u s
th an
0.
p h as e s
of
o p e ra ti o n
can
be
i d e n ti fi e d
wi th i n
a
co n tro l
fo l l o ws .
9.2.2.2 Standby D u ri n g are
0.
th i s
p h as e ,
th e
l am p
is
o ff
an d
on l y
in
th i s
p h as e
both
“
targetLevel
”
an d
“
actualLevel
”
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
9.2.2.3
– 1 7
–
Startu p
S tartu p p h as e
•
CSV
201 8
is
is
a
tran s i ti o n al
som e ti m es
p re h e at:
th e
p h as e
n o ti ce abl e
l am p
is
ch an g i n g
as
h e ate d
fro m
a d e l ay.
to
s tan d b y
E xam pl es
p re p a re
fo r
to
n o rm al
o p e rati o n
or
fa i l u re .
Th i s
are :
i g n i ti o n .
Th i s
is
typi cal l y
seen
fo r
fl u o re s ce n t
an d
fl u o re s ce n t
l i g h t s o u rce s ;
•
i g n i ti on :
th e
l am p
l i g h t s o u rce s
•
is
p o we r s tag e
Wh i l e
n o rm a l
9.2.2.5
e xce pti o n s
re fe r to
th e
an d
l am p
is
e m i tti n g
e xce p ti o n s
re fe r to
th e
fai l u re
p h as e
th e
an d
l am p can n o t b e
e xce p ti o n s
fo r
HID
light
s o u rce s
9. 1 6. 3.
l i g h t an d
can
be
o p e ra te d
as
e xpecte d .
9. 1 6. 3.
o p e ra te d
re fe r to
dimming
c u r ve
“actualLevel”
d e te rm i n e s
g re a te r
th an
l i g h t o u tp u t acco rd i n g
h o w th e
as
e xpe cte d .
9. 1 6. 3.
or
l e ve l
eq u al
to
1
Li g h t o u tpu t (
actualLevel
Li g h t
is
o u tpu t
g e ar- l a m p ends
at
1 00
re l a t i ve
N OTE
1
Th e
%
fo r
)
=
re l a ti ve
th an
or
i n to
e q u al
l i g h t o u tpu t.
to
254
s h al l
be
tran s l ate d
is
be
% .
to
dimming
“actualLevel”
cu rve
l ess
tran s l ate d
−1
3
1 0
Th e
accu racy s h al l
dimming
an d
be
253
e xp re s s e d
co m bi n ati o n .
1
s h al l
to
actualLevel −
th e
seen
Di mm in g cu rve
Th e
i n to
typ i cal l y
Fai l u re
F o r fu rth e r i n fo rm ati o n
An
an d
o p e ra ti o n
F o r fu rth e r i n fo rm ati o n
9.3
is
Norm al operati on
in
D u ri n g
Th i s
p re p ara t i o n .
F o r fu rth e r i n fo rm a ti o n
9. 2.2.4
i g n i ted .
afte r p re h e at;
th e
e q u al
±½
i n ten d ed
s te p .
to
m axi m u m
cu rve to
s tarts
0 xFE .
Th i s
Th e
sh al l
co m pe n s ate
possi bl e
at 0 , 1
th e
be
% fo r
dimming te s te d
light
light
cu rve
u sin g
s e n s i ti vi ty
o u tpu t
of
“actualLevel” is
s tri ctl y
a fad e ,
cu rve
of
th e
a
g i ve n
e q u al
h u m an
co n tro l -
0 x0 1
an d
m o n o to n i c,
an d
e xcl u d i n g
e ye .
to
PH M.
– 1 8
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
IEC
Figure 3 – Dimming curve Th e
accu racy
Tab l e ve rs u s
N OTE IEC
2
an d
th e
2
of
th e
l e ve l .
Th e
light
o u tp u t
dimming Th e
l am p
minimum
an d
is
s pe ci fi e d
cu rve type
are
o r l o ad
m axi m u m
by
th e
d epi cted u sed
val u e s
in
te s t
d u ri n g
a re
p o i n ts
F i g u re
3,
tes ti n g
bas e d
on
g i ve n an d
s h al l
th e
in
Tab l e
Tabl e be
test
3
2.
Th e
s h o ws
s tate d
val u e s
te s t
th e
p o i n ts
light
of
o u tpu t
fo r re pro d u ci b i l ty.
th at
can
be
fou n d
in
62386-1 02:2009.
Table 2 – Dimming curve tolerance (%, rounded to two decimals) Level Mi ni mu m val ue Nomi nal val ue Maxi mum val ue
1
60
85
1 26
1 45
1 70
1 95
21 6
229
243
0, 05
0, 25
0, 50
2, 00
3, 93
7, 00
1 5, 00
27, 28
40, 00
63, 53
0, 1 0
0, 50
0, 99
3, 04
5, 1 0
1 0, 09
1 9, 97
35, 43
50, 53
74, 05
0, 20
1 , 00
2, 00
4, 50
7, 50
1 5, 0
30, 00
52, 09
71 , 00
86, 1 4
254
1 00, 00
IEC
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© I EC
CSV
– 1 9
–
201 8
Table 3 – Dimming curve Level
Li g ht ou tpu t
Level
Li g h t output
Level
Li g ht ou tpu t
Level
Li g h t output
Level
Li g h t ou tpu t
1
0, 1 00
52
0, 402
1 03
1 , 620
1 54
6, 520
205
26, 241
2
0, 1 03
53
0, 41 4
1 04
1 , 665
1 55
6, 700
206
26, 967
3
0, 1 06
54
0, 425
1 05
1 , 71 1
1 56
6, 886
207
27, 71 3
4
0, 1 09
55
0, 437
1 06
1 , 758
1 57
7, 076
208
28, 480
5
0, 1 1 2
56
0, 449
1 07
1 , 807
1 58
7, 272
209
29, 269
6
0, 1 1 5
57
0, 461
1 08
1 , 857
1 59
7, 473
21 0
30, 079
7
0, 1 1 8
58
0, 474
1 09
1 , 908
1 60
7, 680
21 1
30, 91 1
8
0, 1 21
59
0, 487
1 1 0
1 , 961
1 61
7, 893
21 2
31 , 767
9
0, 1 24
60
0, 501
1 1 1
2, 01 5
1 62
8, 1 1 1
21 3
32, 646
1 0
0, 1 28
61
0, 51 5
1 1 2
2, 071
1 63
8, 336
21 4
33, 550
1 1
0, 1 31
62
0, 529
1 1 3
2, 1 28
1 64
8, 567
21 5
34, 479
1 2
0, 1 35
63
0, 543
1 1 4
2, 1 87
1 65
8, 804
21 6
35, 433
1 3
0, 1 39
64
0, 559
1 1 5
2, 248
1 66
9, 047
21 7
36, 41 4
1 4
0, 1 43
65
0, 574
1 1 6
2, 31 0
1 67
9, 298
21 8
37, 422
1 5
0, 1 47
66
0, 590
1 1 7
2, 374
1 68
9, 555
21 9
38, 457
1 6
0, 1 51
67
0, 606
1 1 8
2, 440
1 69
9, 820
220
39, 522
1 7
0, 1 55
68
0, 623
1 1 9
2, 507
1 70
1 0, 091
221
40, 61 6
1 8
0, 1 59
69
0, 640
1 20
2, 577
1 71
1 0, 371
222
41 , 740
1 9
0, 1 63
70
0, 658
1 21
2, 648
1 72
1 0, 658
223
42, 895
20
0, 1 68
71
0, 676
1 22
2, 721
1 73
1 0, 953
224
44, 083
21
0, 1 73
72
0, 695
1 23
2, 797
1 74
1 1 , 256
225
45, 303
22
0, 1 77
73
0, 71 4
1 24
2, 874
1 75
1 1 , 568
226
46, 557
23
0, 1 82
74
0, 734
1 25
2, 954
1 76
1 1 , 888
227
47, 846
24
0, 1 87
75
0, 754
1 26
3, 035
1 77
1 2, 21 7
228
49, 1 70
25
0, 1 93
76
0, 775
1 27
3, 1 1 9
1 78
1 2, 555
229
50, 531
26
0, 1 98
77
0, 796
1 28
3, 206
1 79
1 2, 902
230
51 , 930
27
0, 203
78
0, 81 9
1 29
3, 294
1 80
1 3, 260
231
53, 367
28
0, 209
79
0, 841
1 30
3, 386
1 81
1 3, 627
232
54, 844
29
0, 21 5
80
0, 864
1 31
3, 479
1 82
1 4, 004
233
56, 362
30
0, 221
81
0, 888
1 32
3, 576
1 83
1 4, 391
234
57, 922
31
0, 227
82
0, 91 3
1 33
3, 675
1 84
1 4, 790
235
59, 526
32
0, 233
83
0, 938
1 34
3, 776
1 85
1 5, 1 99
236
61 , 1 73
33
0, 240
84
0, 964
1 35
3, 881
1 86
1 5, 620
237
62, 866
34
0, 246
85
0, 991
1 36
3, 988
1 87
1 6, 052
238
64, 607
35
0, 253
86
1 , 01 8
1 37
4, 099
1 88
1 6, 496
239
66, 395
36
0, 260
87
1 , 047
1 38
4, 21 2
1 89
1 6, 953
240
68, 233
37
0, 267
88
1 , 076
1 39
4, 329
1 90
1 7, 422
241
70, 1 21
38
0, 275
89
1 , 1 05
1 40
4, 449
1 91
1 7, 905
242
72, 062
39
0, 282
90
1 , 1 36
1 41
4, 572
1 92
1 8, 400
243
74, 057
40
0, 290
91
1 , 1 67
1 42
4, 698
1 93
1 8, 909
244
76, 1 07
41
0, 298
92
1 , 200
1 43
4, 828
1 94
1 9, 433
245
78, 21 3
42
0, 306
93
1 , 233
1 44
4, 962
1 95
1 9, 971
246
80, 378
43
0, 31 5
94
1 , 267
1 45
5, 099
1 96
20, 524
247
82, 603
44
0, 324
95
1 , 302
1 46
5, 240
1 97
21 , 092
248
84, 889
45
0, 332
96
1 , 338
1 47
5, 385
1 98
21 , 675
249
87, 239
46
0, 342
97
1 , 375
1 48
5, 535
1 99
22, 275
250
89, 654
47
0, 351
98
1 , 41 3
1 49
5, 688
200
22, 892
251
92, 1 35
48
0, 361
99
1 , 452
1 50
5, 845
201
23, 526
252
94, 686
49
0, 371
1 00
1 , 492
1 51
6, 007
202
24, 1 77
253
97, 307
50
0, 381
1 01
1 , 534
1 52
6, 1 73
203
24, 846
254
1 00, 000
51
0, 392
1 02
1 , 576
1 53
6, 344
204
25, 534
– 20
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
Cal cu l atin g “targetLevel”
9.4 An
appl i cati o n
b e h avi o u r
co n tro l l e r
d u ri n g
appro pri ate
th e
sh al l
•
0 x0 0
•
An y va l u e
be twe e n
•
An y val u e
be twe e n
•
“ M AS K”
sh al l
be
Th e
re q u e s te d on
cal cu l ate d
On
e ve ry
0 x0 1
no
sh al l
targ e t
ch an g e
be
to
“
9. 5
Fad i ng
on
th e
re q u e s te d to
light
ou tpu t
“targetLevel” by
th e
an d
on
th e
m ean s
of
bas i s
an d
tu rn
sh al l
0 xFE
of th e
re q u e s te d
o ff th e
l i g h t.
“targetLevel”=“maxLevel”.
re s u l t i n
“targetLevel”
fo l l o ws :
“targetLevel”=“minLevel”.
re s u l t i n
s h al l
l i g h t o u tpu t as
e xce pt
wh e n
a
fad e
is
ru n n i n g ,
see
l e ve l
g e ar
cal cu l ati o n
th e
“targetLevel”
of
s to re d
”,
“targetLevel”.
as
val u e ,
wi th
th e
sh al l
su ch
as
e xcepti o n
of
“limitError” “targetLevel”. targetLevel”
s h al l
n ew
u pd ate
th e
(see
If
“
al so
a
be
appl i e d
i n i ti al i s ati o n
s u bcl au s e
is
not
if
th e
re q u e s t
“powerOnLevel”
s ce n e ,
cau se d
9. 1 6. 5)
by
an d
a
is or
p o we r
s h al l
“lastActiveLevel”
0 x0 0 ,
,
set
s h al l
be
G eneral
F ad i n g
is
th e
A fad e
a
l i n e ar
tra n s i ti o n
l i g h t o u tpu t,
can
be
s h al l
s tarte d
•
u si n g
a fad e
ti m e :
•
u si n g
a fad e
ra te :
A fad e
Wh e n (see
th e
on
acce p te d
“targetLevel
of
co n tro l
se t to
on
an d
e ffe c t
i n te rn al l y
“lastLightLevel” targetLevel”.
th u s
g e ar
“actualLevel”
th e
“minLevel”
an d
“maxLevel”
h ave
an
th e
9. 5.1
co n tro l
“targetLevel”
as
“systemFailureLevel”.
c yc l e ,
th e
fro m
9. 5. 9.
o th e r val u e s
b as e d
be
acce p te d
s h al l
su bcl au se
Al l
i n s tru c ts
tra n s i ti o n
o pco d e s .
“targetLevel”
Th e
•
201 8
sh al l
a
n o t be
fad e
in
two
th i s
th i s
th e
ti m e
“actualLevel”
fro m
to
“targetLevel”
s tri c tl y m o n o to n i c acco rd i n g
to
th e
.
“actualLevel”,
Th e
appl i cabl e
dimming
an d
c u r ve .
ways :
s e ts
a ti m e
s e ts
s tarte d
s tarts ,
in
be
to
a speed
i f th e
fad e
use
to
u se
cal cu l ate d
ti m er
s h al l
fo r th e
fad e
fo r th e
fad e
“targetLevel”
be
s tarte d
p ro ce s s ;
pro ce ss .
is
an d
eq u al
“actualLevel”
to
“fadeRunning”
.
s h al l
be
set
i d eal
fad i n g
to
TR U E
9. 1 6. 6. ) .
D u ri n g
th e
fad e ,
th e
light
o u tp u t
sh al l
be
m ai n tai n e d
as
cl ose
to
th e
cu rve
as
possi bl e.
D u ri n g th e
a
p ro ce s s
i n te rs e ct i o n
“actualLevel”
+
co rre s p o n d i n g
“actualLevel” usin g
is
If
m om en t
c o n fi rm e d
th e be
i t.
“
“actualLevel” fad i n g
wh e n
o r fad e
fad e
fad e
fad e
”
–
of 1 .
s h al l
be
wi th
th e
i d e al
F i g u re
4
/ fad e
rate
p l ace
i m m e d i ate l y
TR U E
fad e
ti m e .
At
m i d -po i n t
fad i n g
i l l u s trate s
at
s h al l
c u rve
a
ti m e
be
wi th
co rre s p o n d i n g
“actualLevel”
be twe e n
d e c re m e n te d th e
th i s ,
an d
s to p
con d i ti on
m i d - po i n t
appl i e s
fo r
at
a
to
an d ti m e
b e twe e n
fad e s
s tarte d
rate .
ti m e
is
i n cre m e n te d
“actualLevel”
d o wn ,
an
t a ke s
A
(see
c u r ve
fad i n g
i n t e rs e c t i o n
“actualLevel”
lampOn
F ALS E
u p,
i d e al
L i ke w i s e ,
TR U E .
appl i cabl e s e t to
an
ti m e
of
th e
fad i n g
th e
an d
M e as u re m e n ts
th e
1 . to
e i th e r fad e
tri g g e rs
of of
o r,
s h al l th i s
su bcl au se
in
s h al l
cas e
of
s tart
to tal
au to m ati cal l y
poi n t
th e
9. 1 6. 6. ) .
fad e
afte r
afte r
th e
s tartu p ,
l am p
en d ti m er
fai l u re ,
wh e n s h al l
th e be
of
m e as u re m e n t fro m fad e
th e
co m m an d
moment
ti m er
s topped
th e
s h al l
an d
h as
be “
done
th at fro m
lampFailure
been
acti ve
“fadeRunning”
”
fo r
sh al l
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
Th i s a
m ean s
l am p
is
th e
fad e
If
l am p
a
wh e n
N OTE
th at
to
co n tri bu te
0 x0 0
CSV
– 21
–
201 8
be
to
th e
ti m e
is
th e
fad e
h as
to
be
lit
th e
s ta rt u p
Th e
ti m e.
at
fro m
at
fad e s
th e
Th e
.
th e
sh al l
ph as e
t ran s i ti o n
g ear
o ff
e l apse d
“minLevel”
to
co n tro l
s wi tch e d
end
s te p
h as
0 x0 0
th e
ta rg e t
th e
fad e ,
fro m
beg i n n i n g
n ot
to of
of
co n tri bu te
“minLevel”
th e to
l e ve l th e
fad e
th e
an d
fad e
e ve n
s te p
to
0 x0 0
cas e
to
Th i s
a
of
a
"minLevel"
s h al l
di m med
ti m e .
in
fro m
be
t a ke n
ce rtai n
m ean s
to tal
th at
to
l am p
0 x0 0
e rro r. I f
s h al l
i m m e d i ate l y
va l u e , th e
th e
fad e
step
ti m e
not
after
fro m
s tarts
fi n i s h e d .
to
“minLevel”
i n co rp o rate s
s tartu p .
Fad i n g d o wn cu rve
MIN +3
Id
e
a
l
c
u
rv
e
,
fa
d
in
g
d
o
w
n
MIN +2
MIN +1
Id
e
a
l
c
u
rv
e
,
fa
d
in
g
u
p
MIN Fad i n g u p cu rve
S tartu p ti m e ( 0 wh e n fad i n g d o wn )
O ff S to p co n d i ti o n
Fad e ti m e s tart
1 /3 Fad e ti m e
2 /3 Fad e ti m e
Fad e ti m e
IEC
Fi g u re 4 – Level over time, fad i ng u p and down Te s ti n g
sh al l
9. 5.2 Th e
fad e
ti m e
q u e ri e d
Th e
if
•
in
Th e
•
s h al l
s h al l u sing
“fadeTime”
•
“DTR0” al l
fad e
if
done
wi th
“
minLevel” ≥ PH M +1 . For fu rth er i n formati on , see
An n e x
B.
Fad e ti me
“fadeTime” be
be
>
be
be
set
s h al l
1 5:
=
be
to
re ce i p t
set to
Tabl e
of
th e
4:
co m m an d
T I M E /F A D E
a val u e
“ S E T F AD E
TI M E
(
R ATE .
acco rd i n g
to
th e
fo l l o wi n g
s teps :
1 5
s h al l
“fadeTime”
on
Q U E R Y F AD E
o th e r cas e s :
ti m e
acco rd i n g
“DTR0”
be
0:
cal cu l ate d
u se
on
th e
b as i s
of
“fadeTime”
as
fo l l o ws :
DTR0
) ”.
“
fadeTime
”
can
– 22
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
Mi ni mu m fade rate
Nomi nal fade rate
Maxi mu m fade rate
s t e p s /s
s t e p s /s
s t e p s /s
1
322
358
394
2
228
253
278
3
1 61
1 79
1 97
“fadeRate”
4
1 1 4
1 27
1 39
5
80, 5
89, 4
98, 4
6
56, 9
63, 3
69, 6
7
40, 3
44, 7
49, 2
8
28, 5
31 , 6
34, 8
9
20, 1
22, 4
24, 6
1 0
1 4, 2
1 5, 8
1 7, 4
1 1
1 0, 1
1 1 ,2
1 2, 3
1 2
7, 1
7, 9
8, 7
1 3
5, 0
5, 6
6, 1
1 4
3, 6
4, 0
4, 3
1 5
2, 5
2, 8
3, 1
•
E xte n d e d
•
if
fad e
“fadeTime”
Tab l e
4
CSV 201 8
l i s ts
th e
ti m e
1 is
in
th e
ran g e
[1 , 1 5 ] :
2 possi bl e
fad e
ti m e
⋅
2
"fadeTime"
⋅1 s
val u e s .
Table 4 – Fade times “fadeTime”
Mi ni mum fade ti me
Nomi nal fade ti me
Maxi mu m fade ti me
s
s
s
0
E xten d e d
fad e
1
0, 6
0, 7
0, 8
2
0, 9
1 ,0
1 ,1
3
1 ,3
1 ,4
1 ,6
4
1 ,8
2, 0
2, 2
5
2, 5
2, 8
3, 1
6
3, 6
4, 0
4, 4
7
5, 1
5, 7
6, 2
8
7, 2
8, 0
8, 8
9
1 0, 2
1 1 ,3
1 2, 4
1 0
1 4, 4
1 6, 0
1 7, 6
1 1
20, 4
22, 6
24, 9
1 2
28, 8
32, 0
35, 2
1 3
40, 7
45, 3
49, 8
1 4
57, 6
64, 0
70, 4
1 5
81 , 5
90, 5
99, 6
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
9.5.3 Th e
fad e
rate
“DTR0”
if
•
if
•
in
“DTR0” al l
rate
ra te
5
set
s h al l
>
1 5:
=
0:
–
on
be
to
re c e i p t
s e t to
Tabl e
of
th e
5.
co m m an d
T I M E /F A D E
a va l u e
“ S E T FAD E
R ATE
(
DTR0
) ”.
“
fadeRate
”
can
R ATE .
acco rd i n g
to
th e
fo l l o wi n g
s te ps :
1 5
1
s h al l
be
“DTR0” cal cu l ate d
on
th e
b as i s
of
“fadeRate”
as
fo l l o ws :
506
= 2
Tab l e
acco rd i n g
Q U E R Y F AD E
o th e r cas e s :
fad e
Fad e
be
be
using
“fadeRate”
•
Th e
s h al l
sh al l
q u e ri e d
Th e
– 23
Fade rate
“fadeRate” be
CSV
201 8
l i s ts
"fadeRate"
th e
possi bl e
s t e p s /s .
fad e
ra te
val u e s .
Table 5 – Fade rates Mi ni mu m fade rate
Nomi nal fade rate
Maxi mu m fade rate
s t e p s /s
s t e p s /s
s t e p s /s
1
322
358
394
2
228
253
278
3
1 61
1 79
1 97
4
1 1 4
1 27
1 39
5
80, 5
89, 4
98, 4
6
56, 9
63, 3
69, 6
7
40, 3
44, 7
49, 2
8
28, 5
31 , 6
34, 8
9
20, 1
22, 4
24, 6
1 0
1 4, 2
1 5, 8
1 7, 4
1 1
1 0, 1
1 1 ,2
1 2, 3
1 2
7, 1
7, 9
8, 7
1 3
5, 0
5, 6
6, 1
1 4
3, 6
4, 0
4, 3
1 5
2, 5
2, 8
3, 1
“fadeRate”
9.5.4 If “
Extended fade time
fadeTime
an d
e q u al s
”
e q u al s
0,
Th e
e xten d e d
an d
Tab l e
7.
m u l ti pl i cati o n
th e
fad e Th e
0,
an d
th e
e xte n d e d
ti m e
can
e xte n d e d
facto r.
fas t
fad e
be
fad e
ti m e
set
fad e
ti m e
s h al l
u sin g
ti m e
as
be
a
can
d e fi n e d
in
I EC
62386
P art 2 0 7
is
i m p l e m e n te d
u sed.
b as e be
val u e
an d
cal cu l ate d
a
m u l ti pl i er
bas e d
on
th e
acc o rd i n g bas e
to
val u e
Tab l e an d
6
th e
– 24
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
F ad e
Th i s
ti m e
yi e l d s
=
extendedFadeTimeBase
a
ra n g e
of
1 00
ms
to
CSV 201 8
extendedFadeTimeMultiplier
*
1 6
min,
an d
a
s p e ci al
val u e
i n d i cati n g
no
fad e
( as
q u i c kl y
as
possi bl e) .
Table 6 – Extended fade time – base value Base bi ts
Base val u e
0000b
1
0001 b
2
001 0b
3
001 1 b
4
01 00b
5
01 01 b
6
01 1 0b
7
01 1 1 b
8
1 000b
9
1 001 b
1 0
1 01 1 b
1 1
1 01 1 b
1 2
1 1 00b
1 3
1 1 01 b
1 4
1 1 1 0b
1 5
1 1 1 1 b
1 6
Table 7 – Extended fade time – multiplier Mu l ti pl i er bi ts
Mu l ti pl i cati on factor Mi ni mu m
000b
0
001 b
95
01 0b
0, 95
01 1 b
9, 5
1 00b
a
On
No
1 00
s
1
s
1
s
min
R e s e rve d
1 1 1 b
R e s e rve d
( as
b as e d
q u i c kl y
of
–
“
–
“
>
“DTR0” .
an d th e
01 00
Th e
AAAAb base
F AD E
fo rm at
th e
ti m e
“targetLevel”
ms
1 , 05
s
1 0, 5
s
1 , 05
min
ti m e
s h al l
DTR0
(
be
bas e :
)”
th e
co n tro l
0 YYYA A AA b ,
Th e
re s u l ti n g
g e ar
s h al l
wh e re
fad e
set
YYYb
ti m e
th e
e q u al s
sh al l
be
th e
fad e
fo l l o wi n g th e
fad e
m o n o ti cal l y
i n cre as e s .
1 1 1 1 b:
” s h al l
no
TI M E
u sed
fad e
extendedFadeTimeBase extendedFadeTimeMultiplier
m ean i n g
a
possi bl e)
“ S E T E XTE N D E D
on
wh e n
DTR0”
as
ms
1 05
s
1 0
min
0
ms
1 1 0b
m u l ti p l i e r,
If “
ms
R e s e rve d
i n cre as i n g
•
ms
0, 95
e xe cu ti o n
ti m e
0
Maxi mum
a
1 01 b
fad e
va l u e s
ms
Nomi nal
a
fad e
( as
s h al l
t a ke
”
be
s e t to
s h al l
q u i c kl y pl ace
be as
0;
s e t to
0
m s,
possi bl e) .
i m m e d i ate l y
an d
e ffe cti ve l y s e tti n g
Th e th e
tra n s i t i o n light
fro m
ou tpu t
s h al l
ti m e
to
“actualLevel” be
ad j u sted
0
s to
as
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
q u i c kl y
In
al l
–
“
–
“
Th e
“
possi bl e,
be
0
fad e
ti m e
–
l ess
Tabl e
4) .
” s h al l
be
th an
0,8
s
wh i ch
re p re s e n ts
th e
m axi m u m
fad e
ti m e
be
”
s e t to
s h al l
q u e ri e d
wh e re
YYYb
be
AAAAb ;
se t to
usi ng
YYYb .
“ QU E R Y E XTE N D E D
eq u al s
“
F AD E
extendedFadeTimeMultiplier
TI M E ”.
”
an d
Th e
an s we r
AAAAb
e q u al s
”.
Using the fade time
be
•
If “
•
If
th at
fadeTime
“
If
u se
d e te rm i n e d
” >
fadeTime
e xte n d ed
“
”
0:
=
0:
fad e
Th e
targ e t
ti m e
h as
as
l e ve l
th e
sh al l
be
s h al l
o u tp u t
as
fad e
q u i c kl y
s u p p o rt .
fad e
”
=
0
ti m e
as
it
on
al s o
be
th e
th e
ap pl i cab l e
u sed ,
fad e
ti m e
as
bas i s
th e
s h al l
an
th e
“actualLevel” of
be
fad e
fad e
ti m e .
Th i s
ti m e
as
if
Tab l e
val u e
eq u al s
0
6
an d
an d
s,
th e
Tabl e
7.
Th e
m u l t i p l i e r.
m ean i n g
“targetLevel”
to
q u i c kl y a s
no
s h al l
fad e
t a ke
( as
pl ace
possi bl e.
co m m an d
bel ow
s u ch
e xte n d e d
re s p o n d
see
base
p aram e te r.
Afte r
th e
fad e
re ach e d .
ti m es
co m bi n ati o n s ,
wh e n
sh ou l d
be
ad j u s te d
s u pp o rts
s o u rce
s h al l
th e
fro m
targ e t l e ve l
possi bl e
H o we ve r,
usin g
b y m u l ti p l yi n g
ms,
tran s i ti o n
cal cu l ate d
light
fad e
ti m e
cal cu l ated
cal cu l ate d
an d
a
ru l e s :
4
l i g h t o u tpu t s h al l
be
th e
g e ar
Th e
s tart
fo l l o wi n g
e xte n d e d
can
th e
e xte n d e d
co n tro l
can n o t
Th e
ti m e
ti m e
on
Tab l e
possi bl e) .
e xp i re d ,
th e
al l
fad e
see
i m m ed i atel y an d
S i n ce
a
bas ed
extendedFadeTimeMultiplier
q u i c kl y
light
can
YYY A A A A b ,
Co m m an d s
by
m ean i n g
(see
extendedFadeTimeMultiplier
9.5.5
•
1
extendedFadeTimeBase
extendedFadeTimeBase
can
– 25
o th e r cas e s :
e xte n d ed
s h al l
as
“fadeTime ” =
fo r
•
CSV
201 8
fad e
th e
0, 7
co n tro l ti m e
fad e
s
is
h as
th at
g e ar
might
m ay
re q u e s te d
fi n i s h e d
not
be
si m pl y th at
wi th i n
re al i s e d
ad j u s t
it
th e
p h ys i c al l y
th e
re q u e s te d
ti m e .
9.5.6
Using the fade rate
9.5.6.1
Fading with “UP” and “DOWN” commands
C o m m an d s
“
targetLevel
rate .
1
s h al l
S i n ce
does
N OTE rate
”
Afte r th e
N OTE Th i s
“U P ” an d
at
2
not
d i ffe re n t
th e
B e cau s e
s l i g h tl y
fad e in
might
fad e
rate
th e
th e re
s h al l
cal cu l ate d
ms
d i ffe re n t
g e ar
“lastLightLevel”
be
200
re s u l t
“ D O WN ”
is
h as
on
are
used,
fad e
h ave
th e
it
is
rate
th e
possi bl e be i n g
val u e s
20
th e
to
ms
fad e .
“actualLevel”
cal cu l ate d
ta rg e t l e ve l
“minLevel”
re ach
d i ffe re n t
C o n s e q u e n tl y,
d i ffe re n t
of
±
using
sh al l
“maxLevel”
or
th e
be
appl i cabl e
fad e
re ach e d .
b e fo re
th e
end
of
th e
fad e.
cl e are d .
to l e ran ce s ,
rate s .
ms
bas i s
e xp i re d ,
“fadeRunning ” b i t
e ffe cti ve
s tart a 2 0 0
co n tro l
afte r
th e
g ear
“targetLevel”
fo r
can
p ro ce s s i n g (an d
re ac t of
to
th ese
th e re fo re
co m m an d s re l ati ve al s o
th at
use
dimming
fo r
“
th e
fad e
com m an d s,
actualLevel
”
an d
).
9.5.6.2 Fading with “CONTINUOUS UP” and “CONTINUOUS DOWN” commands C o m m an d
“C ON TI N U OU S
ap p l i cab l e
fad e
C o m m an d
“C ON TI N U OU S
th e
appl i cabl e
U pon one
fad e
e xe cu ti o n
s te p
sh al l
ra te .
of
be
Th e
rate .
e i th e r
m ad e ,
U P”
fad e
D O WN ”
Th e
a
sh al l
s h al l
fad e
set
sto p
s h al l
sh al l
“targetLevel” “maxLevel” maxLevel” to
wh e n
set
s to p
“ C O N TI N U O U S
u n l ess
th i s
is
“
is
an d
“targetLevel” “minLevel” minLevel” to
wh e n
U P”
p re cl u d e d
or
“
is
fad e
u si ng
th e
va l u e s
an d
s tart
a
fad e
u si n g
re ach e d .
“C ON TI N U OU S
by th e
s tart a
re ach e d .
of
D O WN ”
"minLevel"
i n s tru cti o n or
at
l e ast
"maxLevel"
.
– 26
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
R e fe r to
9. 5. 9
N OTE
1
b e fo re
th e
In
N OTE
2
fo r s to p pi n g
co n tras t
end
of
th e
S i m i l ar
“targetLevel”
,
“
to
th e
fad e .
to
“U P ”
an d
Th e re fo re ,
th e
actualLevel
a fad e
“U P” ”
an d
b e fo re
“ D O WN ”
i n s t ru ct i o n s ,
“fadeRunning ” b i t
“D OWN ”
is
afte r
it
goi ng
i n s tru cti o n s ,
“lastLightLevel”
an d
“minLevel”
re ach i n g
is to
not be
fad e
“maxLevel”
possi bl e
c l e a re d
d i ffe re n t
th e
or
g e ar
h as
to
at
might
been
en d
en d
.
“minLevel”
re ach
th e
of
up
s to pped
CSV 201 8
a
or
“maxLevel”
fad e .
wi t h
d i f f e re n t
ah e ad
of
val u e s
ti m e
(e. g .
fo r vi a
D AP C ( M AS K) ) .
9.5.7
System response to chang es d uri ng a fad e
“fadeTime”, ”extendedFadeTimeBase
If
ch an g e d fad e
d u ri n g
rate
9.5.8 If
a
to
“
fad e
is
fad e
re c al c u l ate d .
d u ri n g
”
th e
d u ri n g
we re
is
re acti o n
th en
Th e
extendedFadeTimeMultiplier
“,
th e
ru n n i n g
n e xt fad e
fad e
•
As
•
in
l e ve l
s h al l
fad e u se
sh al l
th e
fi n i s h
”
“fadeRate”
a n d /o r
wi th o u t
re cal cu l ate d
th e
fad e
ti m e
is
a n d /o r
va l u e s .
th e
d u ri n g
fad e
Th e
“minLevel”
s tart- u p ,
co m m an d s
sh al l
to
be
l e ve l
pen d ed
com m an d s
wi th
“
s h al l
actualLevel be
th e
”
e q u al
s am e
as
if
.
th e
s h al l
p ro ce s s
re acti o n
be
fad e th e
p ro c e s s sam e
sh al l
as
if
be
pen d ed
th e
at
“
actualLevel
l am p ( s )
we re
co n fi rm e d
TR U E
”.
Th e
o p e ra t i n g
at
s tart:
“lampOn ” i s
as
cas e
o f to tal
TR U E ,
l am p
F o r fu rt h e r i n fo rm a ti o n
9. 5.9
at
th e
ph ase .
.
sh al l
soon
s tan d b y,
s tartu p
o p e ra ti n g
i n i ti ate d
to
“actualLevel” Th e
fad e ,
i n i ti ate d
l am p( s )
a
ru n n i n g
System response to chang es d uri ng stand by and startup
minLevel
th e
If
bei n g
a
or
fai l u re ,
as
soon
“lampOn ” a n d
on
“
as
“
lampFailure
lampFailure
” see
”
is
9. 1 6. 3
an d
9. 1 6. 4.
Stoppi ng a fade
An y co m m an d
s e tti n g
one
o r m o re
of th e
fo l l o wi n g
vari a b l e s
“targetLevel” “minLevel” “maxLevel”
•
,
as
we l l
•
as
th e
,
e xe cu ti o n
“ D AP C ( M AS K) ” ,
s h al l
s to p
N OTE
1
Wh e n
a ru n n i n g
Th e
a
fad e
ru n n i n g
i m m e d i ate l y an d
th e
If
ru n n i n g
a
9.6
2
fad e
Th i s
eve n
i m pl i es
is
th e
fo l l o wi n g
co m m an d s
P E R S I S TE N T V AR I AB L E S ” ,
is
if
th e
be
ti m e r
s to p pe d
in
of th e
by
su ch
an
h as
e xe cu te d
s tartu p
th at
val u e
s to ppe d
fad e
sh al l
th e
o f th e
“ I D E N TI F Y D E VI C E ”
fad e .
fad e
Afte r
fi n i s h
“ S AVE
s to ps
co m m an d
g ear s h al l
N OTE
.
of on e
wh i l s t
affe cte d
vari a b l e
appl i cati o n
been
does
n ot
c o n tro l l e r,
s to ppe d ,
ch an g e .
th e
“targetLevel”
fad e
ti m e r
s h al l
be
sh al l
set
to
be
s to p pe d
“actualLevel”
( i f ap p l i cab l e ) .
it
was
pen d i n g
at
“minLevel”
d u ri n g
s tartu p ,
th e
co n tro l
p ro ce s s .
a
case
b o th
“targetLevel”
an d
“actualLevel”
are
e q u al
to
“minLevel”
.
Mi n and max l evel
C h an g i n g
th e
min
or
m ax
l e ve l
s h al l
s h al l
set
s to p
an y
ru n n i n g
fad e ,
b e fo re
th e
s to rag e
o r m ax l e ve l .
“SET M I N
LE VE L (
DTR0
)”
“minLevel”
depen d i n g
on
th e
“DTR0”
val u e :
of
th e
n ew
min
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 27
•
i f 0 ≤ “DTR0” ≤ PH M : PH M
•
if
•
in
“DTR0” ≥ “maxLevel” al l
“maxLevel”
o r M AS K:
“DTR0”
o th e r cas e s :
“actualLevel” “actualLevel” “targetLevel” “targetLevel” limitError
If
>
0
sh al l
ch an g e d
to
possi bl e.
As
if
•
if
•
in
If
a con seq u en ce,
“DTR0” al l
on
”
M AS K:
an d
h ave
th e
s h al l
as
th e
light
be
“maxLevel”
set
of
a
be
as
o f th e
light
a
n ew
o u tpu t
s e t to
new
min
sh al l
be
ad j u s te d
as
l e ve l ,
s h al l
be
q u i c kl y
as
TR U E .
d epen d i n g
on
“DTR0”
th e
val u e ,
as
fo l l o ws :
re s u l t
of
s e tti n g
a
n ew
m ax
“maxLevel” “actualLevel” .
s h al l
be
ad j u s te d
as
l e ve l ,
s h al l
q u i c kl y
as
be
“targetLevel” “targetLevel” sh al l
ch an g e d
possi bl e.
As
be
re -
to
a
co n se q u e n ce ,
val u e s
can
fo r
be
PHM,
u sed th e y
to
can
co m pen s ate be
m ad e
to
fo r
d i ff e re n c e s
b e h ave
in
a
in
si m i l ar
co n tro l
g e ar
wa y
by
ad j u s ti n g
p ro p e rt i e s .
it
is
E. g.
“minLevel”
if
.
G eneral
co n tro l
g e ar
Th e
sh al l
Th e
ch e ck
c o n tro l
co m m an d
“shortAddress”
is
th e
g ear
sen t
d e vi ce
s h al l
u sin g
ad d re s s i n g
e xe cu te
S h o rt
th e
sch em e
is
i d e n ti fi e d
•
Th e
co m m an d
is
•
Th e
a d d re s s i n g
an d
g i ve n
co m m an d
is
sen t by
using
G ro u p
“gearGroups”
Th e
co m m an d
fo l l o wi n g
Le ve l
sen t u si n g
sen t
is
ad d re s s i n g
R e s e rve d
u sing
n o t d e fi n e d
co m m an d
g ro u p s
(e. g .
can
an d
g i ve n
U n ad d re s s e d
re s e rve d
be
–
L e ve l
i n s tru cti o n s
wi th o u t fad e
–
L e ve l
i n s tru cti o n s
i n i ti ati n g
C o n fi g u rati o n
•
Q u e ri e s
•
S p e ci al
s h o rt
i n s tru cti o n s
–
I n s tru cti o n s
–
Q u e ri e s
e xte n d e d
co m m an d s
g ro u p
an y
ad d re s s e d of
ad d re s s
does
a d d re s s i n g
co m m an d ) .
i d en ti fi e d :
a fad e
co m m an d s
Ap pl i cati o n
if
is
th e
by
a
fo l l o wi n g
not
eq u al
to
not
m atch
an y
of
th e
is
not
ad d re s s i n g .
B ro ad cas t
i n s tru cti o n s
•
see
u n l ess
.
M AS K.
Th e
to
co m m an d ,
.
co m m an d
g ro u p s
•
a
Com m and s
hold:
•
s e tti n g .
o u tp u t
s e t to
of
“minLevel” “actualLevel”
TR U E .
“maxLevel”
an d
co n d i ti o n s
•
re s u l t
new
“DTR0”
d i ffe re n t
Th e
•
an d
”
s h al l
bas i s
0 xFE
b as i s th e
s h al l
co m m an d .
•
)”
“
“maxLevel”
>
th e
“minLevel” g e ar
9.7.1 A
=
o th e r cas e s :
limitError
9.7
DTR0
“minLevel”
<
th e
:
i m m ed i atel y
N OTE
on
i m m e d i ate l y
“actualLevel”
c o n t ro l
re - c al c u l a te d
“minLevel” ≥ “DTR0” “minLevel”
cal cu l ate d
“
an d
be
“ S E T M AX L E V E L (
•
–
201 8
an d
“shortAddress”
– 28
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
9.7.2
Level i nstru cti ons wi thout fade
L e ve l th e
i n s tru c t i o n s
tran s i ti o n
o u tpu t s h al l
Th e s e
•
–
R e l a t i ve
–
•
U P”,
i n s tru cti o n s
th e
Th e s e
0
th e
co m m an d s
R e l a t i ve
(
fad e
sh al l
be
i m m e d i ate l y
cal cu l ate d ;
an d
th e
light
cate g o ri e s :
AN D
S TE P
DTR0
) ”,
U P”,
“ STE P
“ S E T M AX LE V E L (
be
) ”,
fro m
ad j u s ted
“U P”,
–
“ C O N TI N U OU S
i n to
u si n g
TO
i n s tru cti o n s
i n s tru ct i o n s
wh e re
u si n g
d i vi d e d
“G O
are
“targetLevel” “actualLevel”
th e
i n s tru cti o n s
level
l e ve l
a
to
be
–
D O WN
AN D
OFF”
DTR0
)”
as
th e
SCEN E
u si n g
th e
“targetLevel” fad e
sh al l
sh al l
be
cal cu l ate d ;
t i m e /r a t e .
t a ke
p l ace
If
th e
fad e
i m m e d i ate l y
possi bl e.
ca te g o ri e s :
fad e
(
th e
appl i cabl e
“targetLevel”
to
q u i c kl y a s
two
th e
ti m e
sceneNumber
) ”,
fad e
“G O
TO
L AS T AC T I VE
LE VE L”
ra t e
“ D O WN ”
U P”,
“C ON TI N U OU S
D O WN ”
Confi g u rati on in structi ons
C o n fi g u rati o n
9. 7.5
i n s tru cti o n s
can
be
u sed
to
m o d i fy s e ve ral
co n tro l
g e ar pro p e rti e s .
Qu eries
Qu e ri e s
9.7.6
can
be
u sed
to
re q u e s t th e
va l u e
o f s e ve ral
c o n tro l
g e ar p ro p e rti e s .
Speci al com m ands
s peci al
co m m an d s
i n te rpre t th e
9.7.7
a re
s p e ci al
a
g ro u p
of
co m m an d s
th at
are
n ot
ad d re s s ab l e .
Al l
co n tro l
g ear
co m m an d s .
Appl ication extend ed com m and s
Co m m an d s fe atu re s .
wi th
pl ace
“ R E C ALL M AX LE VE L” ,
“ON
LE VE L (
tran s i ti o n
can
l e ve l
“ D AP C
9. 7.4
or
fad e
l i g h t o u tpu t s h al l
Abs o l u te
Th e
t ake
possi bl e.
th re e
LE VE L”,
D O WN ” ,
i n i ti ati n g
s,
e q u al s
s h al l
i n to
“targetLevel”
th e
s h al l
Level i nstru cti on s in iti ati ng a fad e
ti m e
•
“ S TE P
“SET M I N
s h al l
–
q u i c kl y a s
d i vi d e d
wh e re
“targetLevel”
co m m an d s
“R E S E T”,
Le ve l
•
be
i n s tru cti o n s
to
co m m an d s
“actualLevel” an d
are
co m m an d s
C o n fi g u rati o n
9.7.3
as
“ R E C ALL M I N
l e ve l
“STE P
–
can
l e ve l
fad e
“actualLevel”
ad j u s te d
co m m an d s
“OFF”,
wi th o u t
fro m
be
Ab s o l u te
•
CSV 201 8
wi th
th e i r
E ach
o pcod e
opco d e
d e vi c e
0 xFF
typ e
in or
th e
ran g e
fe atu re
0 xE 0
to
re - d e fi n e s
( “ Q U E R Y E XTE N D E D
0 xF F
are
th es e
VE R S I O N
re s e rve d
co m m an d s ,
N U M BE R”) .
fo r
spe ci al
e xce p t See
fo r
9. 1 8
d e vi ce th e
types
co m m an d
fo r
fu rt h e r
i n fo rm ati o n .
9. 8
Com mand i terations
9. 8.1 Th e wi th
G eneral re q u i re m e n ts th e
fo l l o wi n g
of
I EC
62386-1 01 : 201 4
ad d i ti o n s .
an d
I EC
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
9. 4
appl y
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
9.8.2 “U P”
“
“D O WN ”
i n s tru cti o n
maxLevel
N OTE
Afte r
1
”,
i te rati o n cau s e
be
th e
200
tran s i ti o n
2
of
co m m an d
If
F i g u re
th at
s tep,
5
ms of
th e
th e
fad e
is
at
rate
an
e ffe ct
ms
ti m e
to ”
–
be
as
at
th e
s ta rt
sh al l
of
co m m an d is
an
s tart
d e te rm i n e d
occu r
an d
“
at
by
targetLevel ± ”
u sin g by
th e
th e
1 )
e xe cu ti o n
val u e s
sh al l
ap p l i cab l e
app l i cab l e
e xe cu te d
“targetLevel”
a
U po n
th e
be
of
of
minLevel
“
th e ”
or
m ad e.
i te rati o n .
acco rd i n g
o cc u rri n g
i te rati o n .
pre cl u d e d
i n s tru cti o n
re s tart e d
s te p ,
a
th i s
cal cu l ate d
“D O WN ”
s h al l
i n i ti al
” =
fad e
or
sen t
u n l ess
i n te rval s
“U P”
“ D O WN ”
be
targetLevel
actualLevel th e
can
i te rati o n ,
200
E ve ry
fad e
“
“
th e re
e xe cu te d
an d
N OTE
an
( fi n al
excl u d i n g
fi rs t “ U P ”
th i s
s te p
co n ti n u e s .
tra n s i t i o n , th e
su ch
e n s u re s
fi rs t
sh al l
i n s tru c ti o n s
of
one
Th i s
th at
s te ps
Th e
– 29
Command iteration of “UP” and “DOWN” commands an d
fi rs t
CSV
201 8
to
ti m e
9. 5. 1
as
to
of
1 /( 2 *
new
fad e
a
be
an d
fad e
fad e
ra te .
rate ,
p art
of
Su bseq u en t
as
th e
re cal cu l ate d
Fi g u re
4,
“fadeRate”
wi th )
long
as
i te rati o n
th e
s h al l
acco rd i n g l y.
th e
afte r
fi rs t
s u ch
e xecu ti o n
of
co m m an d .
ch an g e s
d u ri n g
a
co m m an d
i t e ra t i o n ,
th e
rate
is
not
u sed
d u ri n g
th e
e xe cu ti o n
i te rati o n .
s u m m a ri z e s
th e
re q u i re d
b e h avi o u r.
Th e
i te rati o n s
s tart
at
Cm d
1 ,
an d
en d
at
Ti m e
o u t.
1 /
fade Rate
(2*"
")
1 /"
fadeRate
"
1 /"
fadeRate
"
X S tep
S te p
S tep
Cm d 2
1
3
4
5
6
X
S tep
7
S te p
Cm d
Ti m e
9
out
8
Ti m e
Cm d
ou t
1
IEC
Figure 5 – Timing and response when executing command iteration 9.8.3
DAPC SEQUENCE (deprecated)
“ E N AB LE
D AP C
th at al l o ws
U pon ti m e
e xe cu ti o n of
200
ms
f a d e /e x t e n d e d sh al l
N OTE
Th e
be
arc
th e
D AP C (
of
±
“ E N AB L E 20
fad e
ms
ti m e .
s tarts
o f th e
D AP C
wh i l e Afte r
a
d i re ct
arc
p o we r
co n tro l
( D AP C )
co m m an d
i te ra t i o n
l i g h t o u tp u t.
SE QU EN CE”
th e th e
co m m an d l as t
fad e
th e
co n tro l
i te ra ti o n
of
th e
is
g e ar
sh al l
a c t i ve
s e q u e n ce
te m p o rari l y
i n depen den t
h as
fi n i s h e d ,
th e
u se
of
a
fad e
th e
actu al
o ri g i n al
val u e s
u sed .
As
“D AP C
SEQU E N CE”
d yn am i c co n tro l
fad e
level
po we r
i te rati o n ,
t i m e /ra t e
seq u en ce )”
s h al l
co m m an d .
co n tro l
sh al l
vari ab l e s
be
en d
Th e
co m m an d . d i s c ard e d .
do
n ot
if
D AP C
ch an g e ,
200
th e
ms
D AP C
t i m e /r a t e
el apse
s eq u en ce
“ E N AB L E
fad e
s h al l
can
wi th o u t be
be
th e
ab o rt e d
SEQU EN CE”
set
a n d /o r
co n tro l on
acce p te d
q u e ri e d
g ear
e xe cu ti o n d u ri n g
as
n o rm al .
acce p ti n g of
an
D AP C
a
i n d i re c t
co m m an d
– 30
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
Wh i l e 200
th e
ms
S i n ce
D AP C
s eq u en ce
is
se q u en ce
u ses
th e
D AP C
l i g h t s o u rce
possi bl e.
H o we ve r,
e xe cu ti o n
o f a “ D AP C
(
level
)”
co m m an d
be
re al i s e d
s h al l
s tart a
a fad e
co m bi n ati o n s ,
i t sh ou l d
ti m e
su ch
re s p o n d
as
of 200
ms
th at m i g h t n o t
g e ar m ay s i m pl y ad j u s t th e
i f th e
fad e
h as
fi n i s h e d
by al l
l i g h t o u tpu t as
wi th i n
th e
c o n tro l
q u i c kl y as
re q u e s te d
ti m e .
Mod es of operati on
9.9.1
G eneral
D i ffe re n t
o pe rati n g
“ S E T OP E R ATI N G m ean s
sh al l
m od es
M ODE
(
DTR0
o f “ Q U E R Y O P E R ATI N G
O pe rati n g be
m odes
0 x0 0
a va i l a b l e .
to
g e ar i s
in
9. 9.2 If a
an
I EC
Th e
be
s e l e cte d
cu rre n tl y
se l ected
by
m ean s
of
“operatingMode”
can
co m m an d
be
q u e ri e d
by
M OD E”.
are
d e fi n e d
m odes
0 x80
SPECI FI C
s tan d ard
in
th i s
to
0 xFF
M OD E”
o p e ra ti n g
can
mode
s tan d ard . a re
be
or i n
At
l eas t
o p e ra ti n g
m a n u fac tu re r
u sed
to
m od e
s pe ci fi c.
d e te rm i n e
Th e
wh e th e r
th e
0 x0 0 q u e ry
co n tro l
a m an u fac tu re r s p e ci fi c m o d e .
Operati ng m od e 0x00: stand ard mode
d e vi c e
per th i s
is
in
s tan d ard
s p e c i fi c ati o n ,
9.9.3
m ode
u n ti l
it is
(
“operatingMode”
set i n
an
=
o p e ra ti n g
0 x00 ) ,
mode
i ts
b e h avi o u r s h al l
d i ffe re n t fro m
be
as
is
re q u i re d
0 x0 0 .
Operati ng m od e 0x01 to 0x7F: reserved
O p e rati n g
9.9.4
m odes
0 x01
to
0 x7 F
are
re s e r ve d
an d
sh al l
n o t be
u sed .
Operati ng m od e 0x80 to 0xFF: man ufactu rer speci fic mod es
M an u fac tu re r are
62386
can ) ”.
0 x7F
O pe rati n g
“ Q U E R Y M AN U F AC TU R E R
not
mode,
th e
as
s p e c i fi c
c o ve re d
fo l l o wi n g
•
e ach
fad e .
g ear an d
9.9
acti ve ,
CSV 201 8
by
m odes
th e
b e h avi o u r
sh ou l d
s tan d ard .
of
th e
only
If
a
co n tro l
be
u sed
co n tro l
g e ar
if
g ear
m ay
be
th e is
fe atu re s
in
a
re q u i re d
m an u fact u re r
m an u factu re r
spe ci fi c
by
th e
ap p l i cati o n
s pe ci fi c as
we l l ,
o pe rati n g wi th
th e
62386-1 01 :201 4
an d
e xce p ti o n s :
far
as
th e
co n t ro l
g ear
acce s s e s
th e
bu s,
it
sh al l
ad h e re
to
I EC
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ;
•
th e
co n tro l
co m m an d s
–
g e ar are
sh al l
ad h e re
“ S E T O P E R ATI N G
M ODE
(
al l
s p e ci al
WR I TE NO
Fo r th e
It
is
th i s
9. 1 0
at
l e as t
as
far
as
th e
fo l l o wi n g
th at
be
“ Q U E R Y O P E R ATI N G
th e
vari o u s
e ve n
in
( )
DTR1 , DTR0, data an d
M OD E”,
an d
M OD E”.
(see ),
1 1 . 7) WR I TE
e xce pt
M E M O R Y LO C ATI O N
–
PI NG.
ad d re s s i n g
m an u factu re r
m e th o d s
s pe ci fi c
sh al l
m odes,
appl y,
th e
see
7. 2. 2.
com m an d s
as
s pe c i fi e d
in
o be yed .
Memory ban ks
9. 1 0.1
G eneral
M e m o ry co n tro l wi th i n
s ti l l
) ”,
com m an d s
DTR1 , DTR0, data
co m m an d s
re co m m e n d e d s tan d ard
s p e c i fi cati o n
SP ECI FI C
M E M O R Y LO C ATI O N
R E PLY (
ab o ve
th i s
DTR0
“ Q U E R Y M AN U F AC TU R E R
–
to
co n ce rn e d :
b a n ks
g e ar
a
m e m o ry
in
are a
m e m o ry ban k
fre e l y
s ys te m . b an k
not
l o cati o n s
of
acce s s i b l e Not
al l
m e m o ry
co n s e cu t i ve
al l
co n s e cu t i ve
al l
i m pl e m en te d
s p ace s m e m o ry
l o cati o n s m e m o ry
d e fi n e d b a n ks
need b a n ks
to
be
a re
fo r
n eed
e. g. to
i d e n ti fi cati o n
be
i m pl e m en ted .
re ad ab l e
of
i m pl em en ted .
u sin g
Al l
th e Al s o
i m pl e m en te d
m e m o ry
acce s s
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
co m m an d s . co n tro l
b a n ks
by
can
l e a ve s
th e
al l
m e m o ry
o th e r
– 31
m e m o ry
–
0
is
an d
1
to
ROM
l i m i ted
o f m axi m u m (if
m e m o r y b a n ks
an d
acce s s
acces s
R AM ,
s p ace
b a n ks
b an k
fo r 1 9 8
re ad - o n l y wri te
Wri te
using
m e m o ry
m e m o ry
is
p arts ,
m an u fac tu re r.
i m pl e m e n te d
256
ro o m
9.1 0.2 a
th e
be
i m pl em en t
i ts
of
For
ad d re s s a b l e
m axi m u m
If
P art
g e ar.
e n abl e d
Th e
CSV
201 8
p ro g ram m e d
using
by
m e m o ry
a m e m o ry
th e
m an u factu re r
acce s s
ban k l o cati o n
co m m an d s
can
be
l o c ke d .
of
th e
can
be
M e m o ry
o r N VM .
to
a
255
m axi m u m
b yte s
p re s e n t) ,
an d
of
e ach .
al m o s t
As
re s e r ve s
th i s
64
kB y t e s ,
s t an d ard
m e m o ry
b a n ks
fo r m a n u fac tu re r s p e ci fi c p u rp o s e s
in
o rg a n i z e d
p re s c ri b e s
th e
200
to
ran g e
in
h ow
255,
to
th i s
of [2, 1 99 ] .
Memory map
m an u fac tu re r
co n ten t s h al l
s p e ci fi c
m e m o ry
co m p l y wi th
th e
ban k
in
th e
m e m o ry m ap
ra n g e
of
p ro vi d e d
[2 , 1 9 9 ]
in
Tab l e
is
i m pl em en ted ,
al l o cati o n
of
8.
Table 8 – Basic memory map of memory banks Ad dress
Descri pti on
0 x0 0
Ad d re s s
of
l as t
acces si bl e
Defaul t val u e (factory)
m e m o ry
l o cati o n
F acto ry ran g e
0 x0 1
I n d i cato r
0 x0 2
M e m o ry
[0 x0 3 , 0 xFE ]
b
c
Al s o
Th e
used
b yte
Th e
1
It
c h e c ks u m
Th e
re ad
p o we r
a
in
be
m e m o ry
o n l y.
Th e
co n seq u en ce affe cti n g
Lo cati o n l o cati o n co n tro l “
DTR0
N OTE
th e
val u e
of
d i ffe re n t
a
in
0 xFF
0 xFF
f ro m
R AM
0 x5 5.
a
An y
an d
An s we r
m e m o ry
access
of
th es e
byte s
NO
No
s h al l
e xpl i ci tl y
is
s tate d
be
ch an g e
d e fi n e d
by
a
n . a.
th e
m a n u fa c t u re r.
ban k
s h al l
be
co n tai n s
in
th e
m an u fac tu re r
e xam pl e th e
sh al l
to
s to re
be
s h al l
cycl e
or
we l l
to
a
in
ch an g e
If
case th e
e n ti re
of
a
th e
l as t
acce s s i b l e
acce s s .
th e
th e
th e
g e ar
is
ban k not
M e m o ry
co n tai n s
m e m o ry
of
th e
“ R E S E T M E M O R Y B AN K (
wi th
of
th i s
b yte
m e m o r y b a n k) .
s tati c
co n te n t.
U si n g
a
u sefu l .
l o cati o n
an y
c o rre s p o n d i n g
val u e
u s ag e
co n te n t o f th e
m e m o ry
c o n tro l
l o cati o n
of
of
i m p l e m e n te d ,
th e
l o ck wri te
m e m o ry
" ( l o c ka b l e ) " n ot
as
by
ad d re s s
[0 x0 3 , 0 xFE ] .
s pe c i fi c .
ch an g e d
th i s
th e
ran g e
c h e cks u m
is
u sed
Wh i l e
m a r ke d
g e ar
a
co n te n t
o th e rwi s e .
0 x0 2
val u e
m e m o ry
l ock
DTR0
byte )”
or
i ts e l f
s h al l
d i ffe re n t
fro m
ban k
o th e r o th er
s h al l
th an
be
as
a
co m m an d
l o ck byte .
0 xFF s h al l
is
not
a be
g ear
s h al l
Th i s
l o cati o n
re s e r ve d
l o cati o n
i m pl e m e n te d
re s p o n d
as
if
as
th i s
a
in
e ve ry
n o rm al
l o cati o n
is
m e m o ry m e m o ry not
b a n k,
ban k
is
re s e rv e d
in
o rd e r to
s to p
th e
au to
an d
i m pl em e n te d ,
i n cre m e n t
of
is
l o cati o n .
”.
2
c
a
wh i l e
a
m an u factu re r ( as
l o cati o n s
p o we r
b yte s
re ad - o n l y
a
each
val u e
wri ti n g .
co n tro l
of
u n l ess
0 x0 1
fo r
ROM
M E M OR Y B AN K”.
0 x0 2
fo r
val u e
val u e
b an k wh e re
l o cati o n
l o c ke d
a
L o c ka b l e
be
i m pl em en ted
o n /re s e t
by th e
u sed
m e m o ry
h as
– not
Th e
l o cati o n
cou l d
ban k s h al l
0 x0 0
b a n k.
d e s c ri b e d
be al l
on
ch an g e
An y
ban k co n ten t
“RE SE T
l ocati o n
in
on
b yte
0 x5 5 ,
as
in
be
n e ve r
afte r
o f th e
byte
sh ou l d
N OTE
d e f a u l t /p o we r
val u e
l o cati o n
l o c k b yt e
R e s e rve d
P u rp o s e ,
Reset
th e
M e m o ry
0 xFF
a
m e m o ry
No
a
ban k l o ck byte .
th e
b u rn - i n ,
[0 x0 3 , 0 xFE ]
a
b yt e
RESET val u e b Memory type
D TR 0 .
an d
not
acce s s i b l e .
Wh e n it
ad d re s s e d ,
s h al l
not
Th i s th e
i n cre m e n t
– 32
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
9.1 0.3 In
Sel ecti ng a m emory bank locati on
o rd e r
l o cati o n
Th e
to
m e m o ry in
9.1 0.4
m e m o ry
sh al l
m e m o ry
s e l e cte d
m e m o ry
n o t i m pl e m e n te d ,
or
•
a b o ve
To
th e
s e l e cte d e ve n
if
al l o ws
byte
th e
fi rs t
co m m an d
th an
re ad i n g
va l u e
of
e rro r wh i l e
9. 1 0.5 Wri te
“
a
th e
a
th e
b an k
ban k
n u m ber
an d
by th e
m e m o ry val u e
n u m ber
“DTR0”
in
“DTR1 ”
in
.
Th e
.
can ) ”.
be
Th e
re ad
an s we r
by
s h al l
be
m e an s
th e
val u e
of of
co m m an d
th e
b yte
at
th e
i m pl e m e n te d ,
th e
co m m an d
m e m o ry ban k l o cati o n
of
”
l o cati o n
d ata
th e
to
is
is
bel ow
not
wh e n
re ad i n g
re ad i n g
be
a
sh al l
be
d i s card e d .
If
th e
is
of
byte s it
val u e
fro m
is
at
a
th e
0 xFF,
is
va l u e
l atch e s
an d
th at
DTR1 , DTR0
m e m o ry
sh al l
be
i n cre m e n te d
s h al l
not
by
ch an g e .
o f m e m o ry ban k l o cati o n s .
th at
re ad
(
“DTR0” “DTR0”
O th e rwi s e ,
m u l ti - b yte
i m pl e m e n te d
m u l ti - b yte
ve ri fy
l o cati o n
i m p l e m e n te d .
M E M O R Y L O C AT I O N
n u m ber
DTR0
not
m e m o ry l o cati o n ,
m e ch an i s m
“ R E AD
b an k,
a
bytes
u n l atch e s
m e m o ry
of
th e
th e
b a n k,
m u l ti - byte
b yte s
at
an y
it
is
val u e o th e r
) ”.
th e
e x p e c t e d /d e s i r e d
fro m
al l
ap pl i cati o n
l o cati o n .
co n tro l l e r
An y
sh ou l d
m i s m atch
ch e ck
i n d i cate s
an
re ad i n g .
co m m an d s co n t ro l
are
e xe cu ti o n
wh i l e
c o n tro l
s peci al
g e ar( s ) of
“writeEnableState” On l y
m e m o ry
Memory bank writi ng
co rre c t U pon
of
se tti n g
fo r e as y co n s e cu ti ve
co n s i s te n t
wh e n
is
b an k l o cati o n
m e m o ry
th at
Afte r
co m bi n ati o n
N O.
m e m o ry
th e
m ech an i s m
e n s u re
be
re co m m e n d e d
th e
by
s e l e cte d
l o cati o n
se l ected
l as t acce s s i b l e
an s we r s h al l
Th i s
be
DTR1 , DTR0
(
ban k
•
th e
a
m e m o ry b an k l o cati o n .
an d
one,
l o cati o n ,
re q u i re d .
s e l e cte d
ban k
m e m o ry b an k e xi s ts ,
If
be
m e m o ry b an k s h al l
M E M O R Y L O C ATI O N
ad d re s s e d
th e
ban k
m e m o ry ban k i s
ban k
th e
se l ected
th e
a
th e
Memory ban k read i ng
“ R E AD
If
sel ect
i n side
l o cati o n
A
201 8
th e
co m m an d s
ad d re s s ab l e
“ E N AB LE
to
th e re fo re
M E M O R Y” ,
not
ad d re s s ab l e .
“ E N AB LE th e
WR I TE
ad d re s s e d
In
o rd e r
M E M O R Y” co n tro l
to
sel ect
s h al l
g e ar( s )
be
th e
u sed.
s h al l
set
E N AB LE D .
“writeEnableState” g e ar
WR I TE
an d
co m m an d
sh al l
is
e xe cu te
E N AB L E D , th e
an d
fo l l o wi n g
th e
ad d re s s e d
com m an d s
to
m e m o ry
wri te
to
a
ban k
is
s e l e cte d
i m pl em e n te d , m e m o ry
ban k
l o cati o n :
•
“ WR I TE
M E M O R Y LO C ATI O N
m e m o ry l o cati o n
N OTE
•
1
Th e
val u e
wi th
th at
can
re ad
f ro m
“ WR I TE
M E M OR Y LOC ATI ON sh al l
n o t cau s e
g e ar s h al l
fo l l o wi n g
co m m an d s
“ WR I TE NO
•
be
“
set is
DTR0
th e
( d ata) ” ,
“
DTR1 , DTR0, data
th e
to
m e m o ry
– NO
co n t ro l
th e
RE PLY (
to
Th e
data
ban k l o cati o n
g e ar to
“writeEnableState”
) ”:
val u e
is
co n tro l
g e ar s h al l
co n fi rm
wri ti n g
a
.
n ot
n e ce s s ari l y
DTR1 , DTR0, data
) ”:
data
.
Wri ti n g
a
m e m o ry
re p l y.
D I S AB LE D
i f an y co m m an d
o th e r th an
on e
o f th e
acce p te d :
M E M O R Y LO C ATI O N
R E P LY ( D TR 1 ,
(
an s we r e q u al
l o cati o n
A co n tro l
•
an
D TR 0 ,
DTR1
( D TR 1 ,
D TR 0 ,
d ata) ”
( d ata) ” ,
“
DTR2
( d ata) ”
d ata) ” ,
“ WR I TE
M E M OR Y LOC ATI ON
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
•
“ Q U E R Y C O N TE N T D TR 0 ” ,
I f th e
s e l e cte d
n o t i m pl e m e n te d ,
•
a b o ve
•
l o c ke d
•
n o t wri te ab l e ,
If
th e
th e
to
sh al l
s u bcl au s e
“ WR I TE be
s e l e cte d
to
e n s u re
fo r wri ti n g
Afte r
2
“
“
or
b an k l o cati o n
“DTR0”
th at
afte r al l
a
a
s h al l
not
”
d ata
(
is
bel ow
ch an g e .
b yte s
to
wh e n
m e ch an i s m
n u m ber
DTR0
e rro r wh i l e
N OTE
9. 1 0. 2) ,
or
DTR1 , DTR0, data
)”
sh al l
be
NO
an d
no
m e m o ry
to .
co n s i s te n t
wri ti n g of
m e m o ry l o cati o n ,
l o cati o n Th i s
0 xFF,
“DTR0”
m e ch an i s m
sh al l
al l o ws
be
fo r
i n cre m e n te d
e as y
by
c o n s e c u t i ve
m e m o ry b an k l o cati o n s .
re co m m e n d e d
va l u e
“QU E R Y C ON TE N T D TR 2 ”
is
M E M O R Y L O C ATI O N
wri t te n
m e m o ry
O th e rwi s e ,
wri t i n g
To
–
or
l as t acce s s i b l e
(see
an s we r
l o cati o n
one.
– 33
“ QU E R Y C ON TE N T D TR 1 ”,
m e m o ry b an k l o cati o n
•
th e
CSV
201 8
o f th e
of
it
is
to
a
at
a
m u l ti - byte
i m pl e m e n te d
m u l ti - byte
byte s
ve ri fy
wri ti n g
be
val u e
m e m o ry
th e
th at
h ave
b a n k,
val u e
on l y
been
th e
i n to
acce p ts
m e m o ry n ew
b a n k,
m u l ti - byte
it
is
val u e
acce p te d .
appl i cati o n
e x p e c t e d /d e s i r e d
a th e
l o cati o n .
co n tro l l e r An y
sh ou l d
m i s m atch
ch e ck
i n d i cate s
th e an
wri ti n g .
DTR0
”
is
al s o
i n c re m e n te d
if
a
n o n - i m pl em en ted
m e m o ry
ban k
l o cati o n
is
ad d re s s e d
b e fo re
0 xFF
is
re ach e d .
9.1 0.6
Memory bank 0
M e m o ry
ban k 0
i m pl e m e n ted
M e m o ry th e
in
ban k
co n tai n s
al l
0
co n tro l
s h al l
be
m e m o ry l o ca t i o n s
i n fo rm ati o n
abo u t
th e
co n tro l
g e ar.
M e m o ry
b an k
0
s h al l
be
g e ar.
i m pl e m e n te d
u p to
ad d re s s
u sin g
th e
m e m o ry
0 x7 F i m p l e m e n te d ,
m ap
s h o wn
e xcl u d i n g
in
Tab l e
re s e r ve d
9,
wi th
at
l e as t
l o cati o n s .
Table 9 – Memory map of memory bank 0 Address
Descri pti on
0 x00
Ad d re s s
of
0 x01
R e s e rve d
0 x02
N u m ber
l as t
– n ot
of
l ast
acces si bl e
Defaul t val u e (factory)
m e m o ry
l o cati o n
i m pl em e n ted
acce ssi bl e
facto ry
an s we r
m e m o ry
ban k
facto ry ran g e
0 x03
G TI N
byte
0
(M SB)
a
b u rn - i n
NO
b u rn - i n ,
Memory type ROM
n . a.
ROM
[0, 0 xFF]
fac to ry
b u rn - i n
ROM
0 x0 4
G TI N
byte
1
facto ry
b u rn - i n
ROM
0 x0 5
G TI N
byte
2
facto ry
b u rn - i n
ROM
0 x0 6
G TI N
byte
3
facto ry
b u rn - i n
ROM
0 x0 7
G TI N
byte
4
facto ry
b u rn - i n
ROM
0 x0 8
G TI N
byte
5
facto ry
b u rn - i n
ROM
0 x0 9
F i rm ware
v e rs i o n
( m aj o r)
fac to ry
b u rn - i n
ROM
0 x0 A
F i rm ware
v e rs i o n
( m i n o r)
0 x0 B
I d e n ti fi cati o n
n u m ber
byte
0
0 x0 C
I d e n ti fi cati o n
nu m ber
byte
1
fac to ry
b u rn - i n
ROM
0 x0 D
I d e n ti fi cati o n
nu m ber
byte
2
fac to ry
b u rn - i n
ROM
0 x0 E
I d e n ti fi cati o n
n u m ber
byte
3
fac to ry
b u rn - i n
ROM
0 x0 F
I d e n ti fi cati o n
n u m ber
byte
4
fac to ry
b u rn - i n
ROM
(LS B )
(M SB)
fac to ry
b u rn - i n
ROM
fac to ry
b u rn - i n
ROM
– 34
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
Ad d ress
Descri pti on
Defau l t val u e (factory)
M em ory type
0 x1 0
I d e n ti fi cati o n
n u m ber
b yt e
5
facto ry
b u rn - i n
ROM
0 x1 1
I d e n ti fi cati o n
n u m ber
b yt e
6
facto ry
b u rn - i n
ROM
0 x1 2
I d e n ti fi cati o n
n u m ber
b yt e
7
facto ry
b u rn - i n
ROM
0 x1 3
H ard ware
ve rs i o n
( m aj o r)
facto ry
b u rn - i n
ROM
0 x1 4
H ard ware
ve rs i o n
( m i n o r)
facto ry
b u rn - i n
ROM
0 x1 5
1 01
fac to ry
b u rn - i n ,
ROM
ve rs i o n
(LS B )
b
n u m ber
acco rd i n g
0 x1 6
1 02
ve rs i o n
0 x1 7
1 03
ve rs i o n
N u m ber bu s
bu s
i n te g rate d
co n tro l
fac to ry
n u m ber
of
al l
i n te g rate d
co n tro l
l o g i cal
co n tro l
d e vi ce
u n i ts
in
th e
of
l o g i cal
co n tro l
g e ar u n i ts
in
th e
ran g e
n u mber
of
th i s
l o g i cal
co n tro l
g e ar
R e s e rve d
Ad d i ti o n al
0 xFF
a
R e s e rve d
It
is
re co m m e n d e d
– not
– not
th at
p ro d u ct
n u m ber
ROM
ROM
b u rn - i n ,
ROM
[0 , ( l o cati o n
0 x1 9 ) - 1 ]
NO
n . a.
ROM an s we r
G TI N
ve rs i o n
ROM
i m pl em e n ted
e
i m pl em en ted
th e
to
b u rn - i n ,
an s we r e
g e ar i n fo rm ati o n
n u m ber
b u rn - i n ,
facto ry
i m pl em en ted
c o n tro l
ve rs i o n
ROM
i m pl em en ted
[1 , 64]
ran g e
[0 x80 , 0 xFE ]
n u m ber
[0, 64]
facto ry
unit
ve rs i o n
b u rn - i n ,
facto ry ran g e
[0 x1 B, 0 x7F]
to
acco rd i n g
of
i m pl em en ted
b u rn - i n ,
facto ry
d
unit
I ndex
0 x1 A
al l
unit
N u m ber
0 x1 9
of
acco rd i n g
d e vi ce s
0 x1 8
n um ber
c
g e ar
to
201 8
is
n ot
re - u s e d
NO
n . a.
wi th i n
th e
expe cted
l i fe ti m e
of
th e
pro d u ct
afte r
i n s tal l ati o n .
b
c
d
F o rm at
of
th e
ve rs i o n
n u m ber i s
d efi n e d
in
I EC
F o rm at
of
th e
ve rs i o n
n u m ber
d efi n ed
in
4. 2.
F o rm at
of
not
e
If
P u rp o s e
th e re
s am e
A
bu s
is
sam e
unit
in
fi l l e d
as
Th e
b yte s bu s
Th e
b yte s
byte
7”)
n u m b e r.
in
bo th
byte s
IEC
sh al l
unit
wel l .
e. g .
th e
to
in
to
an d
I EC
an d
(“G TI N
bi n ary.
th e
6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
I EC
4. 2.
6 2 3 8 6 - 1 0 3 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
4. 2.
If
an d
can
al l
l o g i cal
Th e y
p ro b l e m s u sed ,
th e
i n cl u d i n g
u se
e i th e r
u n i ts
s h al l
h a ve
th e
0 x1 9 .
d e vi c e s .
a vo i d
to
u n i t,
i n cl u d i n g
sch e m e
up
m an u factu re r.
bu s
an d
co n tro l
To
co n tro l l e r are
by
on e
up
d e vi c e s
bo th
0 x0 8
E AN ,
i n to
0 x0 3
g e ar
d e fi n e d
ad d re s s i n g
appl i cati o n p ro vi d e d
0 x0 3 th e
be
n u m be r… ) .
fo r co n tro l
Th e
an d
62386-1 03: 201 4
bu i l t
c o n tro l
on
62386-1 01 :201 4
0 xFF.
l o g i cal
g ear an d
l ead i n g
s h are
wh e n
m e m o ry
l o cati o n
th e
1 02
vari o u s
re ad i n g ,
ban k l ayo u t
0 x1 9 .
or
n u m b e rs
an d
th e
Th e
1 03
g e tti n g are
th e
d ata s h al l
co m m an d s
i m p l e m e n te d .
0”
Th e
to
“ G TI N
b yte s
5”)
s h al l
sh al l be
co n tai n
s to re d
th e
m ost
G l o bal
Tra d e
s i g n i fi can t
fi rs t
I tem an d
z e ro e s .
l o cati o n s
0 x0 9
an d
0 x0 A
( “ fi rm wa re
ve rs i o n ” )
s h al l
co n tai n
th e
fi rm ware
ve rs i o n
u n i t.
in
sh al l Th e
n u m be r byte
Th e
by
th ese
d epen d i n g
l o cati o n s
in
d e fi n e d
i d e n ti fi cati o n
bas i c d ata,
( G TI N ) ,
wi th
o f th e
in
of
on e
co n tai n
unique
an s we rs
bytes
N u m ber
is
i n d i cate d
val u e
th an
might
s am e
n u m ber is
m e m o ry b an k l o cati o n s
fo r co n tro l
th e
th i s
( d e fau l t)
i d e n ti fy th e
Th e
ve rsi o n
m o re
G TI N ,
d i ffe re n t
be
an d
val u e s
(e. g .
to
th e
i m pl em en ted ,
is
l o cati o n s co n tai n
0 x0 B
64
b i ts
i d e n ti fi cati o n 7”
an d
co m bi n ati o n
0 x1 2
of
an
n u m ber
u n u sed
o f th e
to
bi ts
( “ i d e n ti fi cati o n
i d e n ti fi cati o n s h al l
sh al l
i d e n ti fi c ati o n
be
be
s to re d
fi l l e d
wi th
n u m ber an d
n u m ber
n u m ber wi th
of
byte
th e
l e as t
0”
bu s
to
“i d e n ti fi cati o n
u n i t,
s i g n i fi can t
p re fe rab l y byte
in
G TI N
n u m be r s h al l
be
s e ri al
“ i d e n ti fi cati o n
0.
th e
n u m ber
th e
unique.
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
Th e th e
b yte bu s
b yte
bu s
u n i t.
u n i t.
Th e
th e
Th e
Th e
b yte th at
ve rs i o n ” )
sh al l
co n tai n
th e
th e
i m pl e m e n ted
I EC
62386-1 01
in
l o cati o n
0 x1 6
s h al l
co n tai n
th e
i m p l e m e n te d
I EC
62386-1 02
co n tro l
l o cati o n
in
in
in
As
0 x1 7
co n tro l
0 x1 8
Th e
l o cati o n Th e
val u e
usi ng
3
s h al l
s h al l
0 x1 A th at
co n tro l
t h e re
th es e an d
co n tai n
s h al l
yi e l d s
9. 5. 2
of
a
h as
th e
a
in
be
th e
th e
h ard ware
ve rs i o n
of
index
unit minus
G TI N g e ar
an d is
of
co n tro l
ra n g e
co n tro l of 1
th i s
n u m be r o f th e
ve rs i o n
n u m be r o f th e
ve rs i o n
be
d e vi ce to
n u m be r o f th e
0 xFF.
u n i ts
i n te g rate d
64.
g e ar
to
n u m ber
u n i ts
i n te g ra te d
i n to
64.
of
i n dex
th e
l o g i cal
n u m ber
is
co n tro l 0
to
g e ar
th e
to tal
d i ffe re n t
s h o rt
on e.
t h re e
l o g i cal
i d e n ti fi cati o n
re p o rte d
acco rd i n g
of 0
ve rs i o n
0 xFF.
62386-1 03
ran g e
ran g e
be
n u m b e r s h al l
l o g i cal
th e
unique
f ra m e
b ac kwa rd
I EC
l o g i cal
in
of
in
co n tai n i n g
co n tro l
of
be
va l i d
bu s
sam e
b ac kwa rd
( o ve rl ap p i n g
s h al l
n u m ber
p ro d u ct th e
n u m be r s h al l
ve rs i o n
n u m ber
Th e
th e
th re e
th e
sh al l
b an k.
be
g e ar
index
th e
re p re s e n t
g e ar u n i ts
might
th e
u n i ts
ve rs i o n
i m p l e m e n te d
u n i ts
co n tai n
m e m o ry
c o n t ro l
th e
b ro ad cas t
1 0 1 : 2 0 1 4 /AM D 1 : 2 0 1 8 ,
th e
th e
i m pl em en ted ,
n u m be r o f l o g i cal
0 x1 9
e xam pl e of
co n tai n
is
n u m ber o f l o g i cal
l o cati o n
an
i m pl em e n ted ,
s h al l
d e vi ce
l o cati o n u n i t.
E ach
th e
9.1 0.7
g e ar i s
i m pl e m e n ts
ad d re s s e s .
0 x1 A
( “ h ard ware
co n tai n
n u m be r o f l o g i cal
d e vi ce s
0 x1 4
s h al l
u n i t.
unit
N OTE
an d
0 x1 5
bu s
b yte bu s
0 x1 3
l o cati o n
If no
b yte
i n to
–
in
in
u n i t.
Th e
l o cati o n
If no
b yte
bu s
th e
in
b yte
bu s
– 35
u n i t.
Th e
Th e
CSV
201 8
as
to
0,
d e vi ce s n u m b e r,
1
IEC
or
2
wi t h e ach
th re e
re p o rts
re s p e ct i ve l y.
62386-1 01 : 201 4
as
n u m ber
Read i n g an d
of
l o cati o n
I EC62386-
fram e ) .
Memory ban k 1
M e m o ry l u m i n a i re
ban k 1
is
re s e rve d
m a n u fac tu re r)
fu n cti o n al i ty
of
th e
for
to
co n tro l
u se
s to re g e ar.
by
an
OE M
ad d i ti o n al Th e
( o ri g i n al
eq u i pm en t
i n fo rm a ti o n ,
co n tro l
g ear
wh i ch
m a n u fac t u re r
m an u factu re r,
h as
no
i m pact
m ay
i m pl em en t
e. g . on
a
th e
m e m o ry
b an k 1 .
If
i m pl e m e n te d ,
i n cl u d i n g
m e m o ry
a d d re s s
m e m o ry m ap
0 x1 0 .
u s ag e
ban k Th e
1
sh al l
fi xe d
fo r l o c ati o n
at
u s ag e
0 x03
to
l e ast fo r
0 x1 0
is
i m pl em en t
l o cati o n s h o wn
th e
0 x00 in
to
Tab l e
m e m o ry 0 x0 2 1 0.
l o cati o n s
an d
th e
up
to
an d
re co m m e n d e d
– 36
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
Table 1 0 – Memory map of memory bank 1 Address
Descri pti on
0 x0 0
Ad d re s s
of
l as t
acces si bl e
m e m o ry
Defau l t val u e (factory)
l o cati o n
RESET Memory val u e type b
facto ry
no
b u rn - i n ,
ch an g e
ROM
ran g e [0 x1 0 , 0 xFE ]
0 x0 1
I n d i cato r
0 x0 2
M e m o ry be
0 x0 3
0 x0 5
G TI N
OEM
0 x0 6
G TI N
OEM
0 x0 7
G TI N
OEM
0 x0 8
G TI N
OEM
0 x0 9
G TI N
OEM
0 x0 A
i d e n ti fi cati o n
Ad d i ti o n al
0 xFF
5
i d e n ti fi cati o n
OEM
0 x1 1
byte
R e s e rve d
co n tro l
– not
a
in
th e
val u e
m e m o ry
d i ffe re n t
ban k s h al l
fro m
(MSB)
0 xFF
0 xFF
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
ch an g e
( l o c ka b l e )
no
N VM
0 xFF
0 xFF
0 xFF
(LSB )
0 xFF
n u m ber
n u m ber
n u m ber
n u m ber
n u m ber
n u m ber
n u m ber
byte
0
b yte
(MSB)
0 xFF
1
b yte
0 xFF
2
b yt e
0 xFF
3
b yt e
0 xFF
4
b yte
0 xFF
5
b yte
0 xFF
6
byte
0 xFF
7
(LSB )
g e ar i n f o rm ati o n
R AM
0 xFF
0 xFF
n u m ber
c
a
0 x5 5 .
4
i d e n ti fi cati o n
OE M
0 x1 0
byte
byte s
h as
3
i d e n ti fi cati o n
OEM
0 x0 F
byte
L o c ka b l e
l o ck byte
2
i d e n ti fi cati o n
OE M
0 x0 E
byte
th e
1
i d e n ti fi cati o n
OE M
0 x0 D
byte
0
i d e n ti fi cati o n
OEM
0 x0 C
l o ck byte .
wh i l e
byte
a
an y
i d e n ti fi cati o n
OEM
0 x0 B
≥
G TI N
OEM
a
ban k 1
re ad - o n l y
OEM
0 x0 4
byte
a
0 xFF
a
a
i m pl em en ted
an s we r
NO
ch an g e
( l o c ka b l e )
a
a
no
n . a.
ch an g e
a
b
c
P u rp o s e ,
Reset
Al s o
Th e
val u e
used
byte s
i d e n ti fy be
d e f a u l t /p o we r
s to re d
as
in
th e
Th e
b yte s
bytes
p o we r
on
in
u sed
0 x0 3
m e m o ry
access
of
th es e
byte s
s h al l
be
d e fi n e d
by
th e
m a n u fa c t u re r.
0 x0 8
th e
bi t
(“OEM
co n tro l
fi rs t
an d
G TI N
g e ar. fi l l e d
If
0”
th e
wi th
to
“OE M
bytes
l ead i n g
are
G TI N u sed
z e ro e s .
5”)
for
sh ou l d
G TI N
Th e s e
th e
b yte s
be
u sed
byte s
to
sh al l
sh ou l d
be
OEM .
0 x0 9
shou ld
fo r
to
co n tai n i n g
l o cati o n s 7”)
an d
M E M O R Y B AN K” .
s i g n i fi can t
by th e
val u e
val u e .
l o cati o n s
m ost
b yte
are
“RE SE T
p ro d u c t
p ro g ram m e d
n u m ber
afte r
o n /r e s e t
th e
to
0 x1 0
co n tai n
64
i d e n ti fi cati o n
(“OEM bi ts
of
i d e n ti fi cati o n an
n u m be r,
n u m be r b yte
i d en ti fi cati o n it
s h al l
be
n u m ber
s to re d
wi th
0”
of th e
to
th e
“OEM
OEM
l e as t
i d e n ti fi cati o n
p ro d u c t.
s i g n i fi c an t
If
th e
b yte
in
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
“ I d e n ti fi cati o n p ro g ram m e d
Th e
n u m ber
by th e
co m bi n ati o n
9.1 0.8 Th e
an d
u n u sed
bi ts
s h al l
be
fi l l e d
wi th
0.
Th e s e
b yte s
shou l d
be
G TI N
an d
OEM
i d e n ti fi cati o n
n u m ber sh ou l d
be
uniqu e.
m ay
u se
Th e
ad d i ti o n al
m e m o ry
m e m o ry m ap
b a n ks
o f ad d i ti o n al
in
th e
b a n ks
ran g e
s h al l
of
2
to
co m p l y wi th
1 99
Tabl e
to
s to re
8.
200
to
255
are
re s e r ve d
fo r fu tu re
u se
an d
sh al l
n ot be
i m p l e m e n te d .
Reset Reset operati on
co n tro l
(see
Th e
g e ar
Tab l e
N OTE
Fo r
som e
re s e t
s h al l
va ri ab l e s
o p e rati o n th e
o p e rati o n
is
a
o p e rat i o n
t a ke
g ear
co m pl e te ,
re s e t
co n tro l l e r
or
o f th e
can
ms
to
cou l d
at
m ay
none
wai t at l e as t 3 5 0
9. 1 1 .2
o pe rati o n
to
set
al l
va ri ab l e s
to
th e i r
re s e t
val u e s
h ave
m ost m ay
no
300
not
tri g g e r
th e al l
ms
at
to
to
vari ab l e s
re s e t
al l .
co m p l e te .
re s p o n d
affe cte d
e n s u re
e ffe ct
an y
n eeds
o p e rati o n
g e ar h ave
Wh i l e
th e
co m m an d . to
h a ve
u sing
fi n i s h e d
th e
re s e t
a d e fi n e d
th e
o pe rati o n
H o we ve r,
u n ti l
th e
is
in
re s e t
va l u e .
“R E S E T”
i n s tru c t i o n
an d
re s e t o p e rati o n .
Reset memory ban k operati on
co n tro l
g ear
b a n ks
to
N OTE
Fo r
Th e
th i s
s h al l
co n tro l
ap p l i cati o n
sh ou l d
i m pl em en t
1 4) .
p ro g re s s ,
som e
re s e t
i m pl em en t
m e m o ry
o pe rati o n
is
co n tro l
appl i cati o n
wai t
s h al l g ear
co m p l e te ,
i m pl e m e n te d
co n tro l l e r
at
at
or
1 0,1
so
o p e rati o n
m ost
1 0
not
th e
to
set
th e
to
h ave
no
an y
o p e ra ti o n
at
Wh i l e
th e
co m m an d .
fo r
al l
g ear
al l
u n l o c ke d
m e m o ry
al l .
a
s p e ci fi c
enough
re s e t
ti m e
o p e rati o n
H o we ve r,
h ave
“ R E S E T M E M O R Y B AN K (
al l o w
of
m e m o r y b a n ks .
e ffect
co m pl e te . to
co n te n t
th e
m e m o ry b an k l o cati o n s
re s e t
th e
as
cou l d
s
to
b y l o c ki n g
re s p o n d
affe c te d
u si n g
s
o p e ra ti o n
fo l l o we d
m ay
tri g g e r
b a n ks ,
l e as t
th i s
o f th e
can
re s e t
9. 1 0) ,
t a ke m ay
none
m e m o ry
fo r
a
(see
b an k l o cati o n s
o p e ra ti o n th e
sh ou l d
sh al l
t h e i r re s e t va l u e s
p ro g re s s ,
An
7”
Reserved mem ory banks
9.1 1 .1
A
byte
i n fo rm ati o n .
M e m o r y b a n ks
An
–
OEM.
of OEM
m an u factu re r
9.1 0.9
A
– 37
Manufactu rer speci fi c mem ory ban ks
ad d i ti o n al
9.1 1
CSV
201 8
a d e fi n e d
m e m o ry
DTR0
to
u n ti l
)”
fi n i s h
in
re s e t
val u e .
b an k,
or
i n s tru cti o n th e
is
th e
re s e t
fo r an d
al l it
m e m o ry
b an k o pe rati o n .
9. 1 2 If
System fai lu re
th e
co n tro l
g ear
d e te cts
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 , sh al l
be
cal cu l ate d
“targetLevel”
s h al l
on
th e
t ake
b as i s
p l ace
a
of
s ys te m
fai l u re
(see
“systemFailureLevel” “systemFailureLevel”
4. 1 1 )
an d
.
i m m ed i atel y
an d
th e
light
Th e
o u tpu t
I EC is
62386-1 01 : 201 4
not
t ran s i ti o n s h al l
be
fro m
ad j u s te d
to
as
possi bl e.
If
“systemFailureLevel”
On
re s to ra ti o n
o f th e
is
bu s
M AS K,
idle
th e
co n tro l
vo l tag e
th e
g ear sh al l
co n tro l
n o t re act to
g ear s h al l
a s ys te m
n o t re act.
an d
“targetLevel” “actualLevel”
M AS K,
fai l u re .
q u i c kl y
as
– 38
“systemFailureLevel” “ Q U E R Y S YS T E M
Wh e n
bu s
po we r
p o we r- o n
can
is
sh al l
N OTE
o f al l
is
done
to
Power on
Afte r
an
4. 1 1 . 1 ) ,
•
th e
e xte rn al
th e
sh al l
s ys te m
sh al l
re l ati n g
(see
i ts
e n ab l e
s h al l
be
s topped
•
“powerCycleSeen”
sh al l
be
s e t to
•
“actualLevel”
•
“lampOn”
•
“limitError”
•
“targetLevel”
•
th e
co n tro l
Al l
“
set to
be
m ay
Th e
not
DTR0
an d
LE VE L (
)”
b e l o w.
co n tro l
g e ar,
co n fo rm
c o n tro l
g e ar
s h al l
C o n s eq u e n tl y, i n cl u d i n g
to
th e
fo l l o w
th e
th e
va ri ab l e
b u s - p o we re d
co n tro l
re q u i re m e n ts
of
th e
i t.
th i s
vari abl e
c o n tro l
is
n o rm al l y
62386-1 01
sh al l
not
appl i cabl e
fo r
bu s
p o we re d
g e ar.
an d
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
be
d i sabl ed
wi th
fo r
th e
al l
fo l l o wi n g
m e m o ry
e xce pti o n s :
b a n ks
an d
th e
l o ck
ke e p i n g
th e
l am p
o ff;
0 x0 0 ;
pre h e ati n g
s h al l
in
be
th e
l am p
ke p t a t 0 x 0 0
Tab l e
va r i a b l e s
be
c a n c e l l e d /r e s e t ;
F ALS E ;
s tart ”
an d
TR U E ;
0 x0 0
se t to
m en ti o n ed
s h al l
201 8
F ALS E ;
set to
actualLevel
co l u m n .
co l u m n
be
s h al l
vari ab l e s
val u e
be
s e t to
g e ar
p re h e a ti n g ,
•
sh al l
s h al l
of
al l an d
to
I EC
s tate
ti m e rs
be
CSV
© I EC
0 xFF;
al l
sh al l
F AI LU R E
b u s - p o we re d
9. 1 3
m o s t re ce n t co n fi g u ra t i o n ,
•
ru n n i n g
fai l u re ,
al th ou g h
co n d i ti o n s
c yc l e
re tai n
wri te
s e t to
test
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
“ S E T S YS TE M
s u bcl au se
N e ve rth e l e s s ,
co m m an d s
s e p arate
ban k
be
a
in
u sed .
wi th
IEC
re s p e c t i ve l y.
“systemFailureLevel”
p o we r
d e vi c e
m e m o ry
byte
not
th e
avo i d
9.1 3
afte r
“systemFailureLevel”
I m pl em en ti n g
d e vi ce s ,
is
q u e ri e d
LE VE L”
d e fi n ed
m ai n tai n
s p e ci fi cati o n s
s e t an d
re s to re d
p ro ce d u re
“systemFailureLevel” g e ar,
be
FAI LU R E
–
1 4
th at
co n s i d e re d .
sh al l
a re
Th e
bu t
th e
c o n t ra ry to
be
set
m a r ke d
to
wi th
vari abl e s
l am p
n o rm a l
s h al l
s tartu p
th e
val u e
“n o
ch an g e ”
d e fi n e d
in
not
i n d i cate d in
th e
i m pl e m e n ted
i g n i te .
Wh i l e
acti vi ty.
in
th e
po we r
p o we r
P arts
on
2 xx
on
va l u e
sh al l
be
i n cl u d ed .
Bu s
p o we re d
d e vi c e s
If
a
th e
l e ve l
co n tro l
sce n e
eq u al s
If
TO
“G O
co n tro l
d e vi c e s
fo l l o wi n g
s h al l
co m m an d
M AS K an d
SCEN E
(
g e ar s h al l
ac t i va te
th e
p o we r
on
l e ve l
i m m e d i atel y.
For
e x te rn al l y
p o we re d
holds:
o th e r
th an
o th e r th an
sceneNumber
)”
d i s card
th e
“G O
TO
SCEN E
D AP C ( M AS K)
wh e re
co m m an d
th e an d
is
val u e
(
sceneNumber
)”
acce p te d
of
th e
co n ti n u e
as
i t s h al l
scen e if no
e q u al s
l e ve l
wh e re
be
th e
va l u e
of
th e
acce p te d ,
th e
e xecu te d .
M AS K
co n tro l
is
co m m an d
h as
been
acce p te d .
I f D AP C ( M AS K)
N OTE
Th e
1
S i n ce
co n tro l
be
set
e xe cu te d ,
“actualLevel ” =
g ear
“targetLevel” s h al l
is
s h al l
on
to
“
th e
0,
If
co m m an d
l e ve l be
co n tro l
e xe cu te d
is
th e
g ear s h al l
ke e p s
p o we r
as
q u i c kl y a s
acce p te d
i m m e d i ate l y an d
th e
th e
on
powerOnLevel “actualLevel”
“
”.
ad j u s te d
co n tro l
e ffe cti ve l y
of
lastLightLevel be
a
th i s
ac t i va te
b as i s
l i g h t o u tpu t s h al l
s h al l
th e
”.
s to p
l am p
l e ve l If
“
s h al l
an y s ta rt u p
acti vi ty.
o ff.
acco rd i n g
to
Tab l e
1 1
powerOnLevel “targetLevel” ”
be
set
e q u al s
to
by
cal cu l ati n g
M AS K,
“
th e
targetLevel
i m m ed i atel y
an d
”
th e
possi bl e.
be fo re
co n t ro l
th e
p o we r
g e ar s h al l
on
l e ve l
is
n o t ac t i va te
ac t i va te d , th e
th i s
p o we r o n
com m an d
l e ve l .
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 39
–
201 8
Table 1 1 – Power on timing Power on system response Lam p
G re y
540
are a
on
2
o b e ye d
>
l e vel
is
Th u s ,
th e re
is
an
so
possi bl e
th at
a
systemFailureLevel “systemFailureLevel”
s ys te m
”
“powerOnLevel”
re ce i vi n g on l y
is
d u ri n g
wh i ch
or
a
<
660
ms
ms
c o n t ro l
D AP C ( M AS K)
an d
ON
th e
fa i l u re
not
can
“QU E R Y P O WE R
Af te r
i n te rval
D AP C ( 0 x0 0 )
ms
ms
d e vi ce can
can
be
sen d
used
a
to
l evel
c o n tro l
p re v e n t
fro m
com m an d g oi n g
wi l l
be
au to m ati cal l y
wh i c h
to
.
“
sh al l
540
660
i m m e d i ate l y,
“powerOnLevel” It
Maxi mu m ti me
o ff
P o we r
N OTE
Mi ni mum ti me
th e
be
fi rs t
set
1 6
d e te cte d
bi t
to
l e ve l
an d
b e fo re
th e
p o we r
“targetLevel”
th e
po we r o n
LE VE L”
re s p o n d
is
M AS K,
s h al l
q u e ri e d
n ot be
wi th
is
on
l e ve l
h as
re cal cu l ate d
been
on
re ach e d .
th e
bas i s
If of
a c ti va t e d .
“ S E T P O WE R
ON
LE VE L (
DTR0
)”
an d
re s pe cti ve l y.
fo rward
fram e s
on
th e
d e s cri b e d
fram e
in
i n te rface I EC
afte r
p o we r- o n ,
th e
62386-1 01 :201 4
c o n t ro l
an d
g ear
I EC62386-
1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 .
9.1 4 Assig ning short addresses 9.1 4.1
General
“shortAddress” be
sh al l
set
be
d e ri ve d
on
“ S E T S H O R T AD D R E S S
•
if
•
if
•
in
data data al l
9.1 4.2 A
“DTR0”
or
co n tro l l e r ad d re s s e s
g ear
)”
as
M AS K:
=
1 xxxxxxxb
“DTR0”
d epen d i n g
“ P R OG R AM
on
th e
com m an d
S H O R T AD D R E S S
(
u sed.
data
It
)”
sh al l or
fo l l o ws :
M AS K ( e ffe c ti ve l y d e l e ti n g
o r xxxxxxx0 b :
( 0 AAAAAA1 b ) :
sh al l
i m pl em en t
i d e n ti fi e d
to
d e te ct
to
(
“ I N I TI ALI S E
(
no
th e
s h o rt ad d re s s )
ch an g e
0 0 AAAAAAb .
) ”.
D I S AB L E D ,
•
E N AB LE D ,
•
WI TH D R AWN ,
fo l l o wi n g
is
It
)”
i n i ti al i s ati o n
s tate ,
onl y
a s e t o f co m m an d s
i d en ti fy
cau se
not in
a
co n tro l
th e
h ave
“ R AN D O M I S E ” ,
•
“ S E AR C H AD D R H
was
g e ar
in
are
wh i ch ,
e n abl ed
a va i l a b l e
on
in
ad d i ti o n
to
th at al l o w an
th e
bu s
an d
th e
o th er
appl i cati o n
as s i g n
“ C O M P AR E ”
) ”,
g e ar to
possi bl e
is 1 5
Ad d i ti o n al l y,
l e ave
va l u e s
th e
fo r
e n te re d
min a
±
1 ,5
power
i n i ti al i s ati o n
wi th
th e
min
afte r
s h o rt
cycl e
or
s tate
“initialisationState”
co m m an d th e
th e
:
s tate ,
are
an d
ye t i d e n ti fi e d
i n i ti al i s ati o n
an d
wi th d rawn .
co m m an d s :
“ WI TH D R AW”
“ S E AR C H AD D R M
(
data
)”
an d
“ S E AR C H AD D R L (
data
)”
l as t
co m m an d
i m m e d i ate l y.
s tate ;
co m m an d s
data
wh i ch
s tate ;
i n i ti al i s ati o n
(
s tate
au to m ati cal l y
e xe cu te d .
co n tro l
i n i ti al i s ati o n
(s peci al )
•
en d
th re e
i n i ti al i s ati o n
in
te m p o rary
sh al l
com m an d
g ear s h al l
•
an
s tan d ard ,
u ni quely
s tate
device device
in
th i s
d e vi ce s .
“ TE R M I N ATE ” s h al l
co n tro l
in
an d
th ese
i n i ti al i s ati o n
“ I N I TI ALI S E
Th e
DTR0
or
of
Random address allocation
co n tro l
Th e
(
=
o th e r cas e s
o pe rati o n s
Th e
“DTR0”
or
data
fro m
re c e i p t
– 40
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
•
“ P R O G R AM
S H O R T AD D R E S S
(
data
) ”,
“ VE R I F Y S H O R T AD D R E S S
(
data
CSV 201 8
)”
an d
“ Q U E R Y S H O R T AD D R E S S ”
•
“ I D E N TI FY D E VI C E ”
N OTE
“I D E N TI FY D E VI C E ”
9.1 4.3
D u ri n g
i ts el f
not
an
i n i ti al i s ati o n
co m m an d ,
bu t
typi cal l y
used
d u ri n g
i n i ti al i s ati o n
G eneral
i d e n ti fi cati o n
no
ap pro p ri ate ,
vari abl e s
t h e re
side
are
Wh e n
no
” an d
I d e n ti fi cati o n I N I TI ALI S E
(
“
a
1 0
i d e n ti fy th e
N OTE
Th e
Wh i l e
s h al l
be
affe c te d
te m p o rari l y
u n less
i g n o re d ,
so
th at
expl i ci tl y
s tate d
afte r
i d en ti fi cati o n
th e
o th e rwi s e .
Wh e re
h as
en ded,
),
be
th e
we l l
light
as
s to ppe d ,
an d
“
th e
ou tpu t
m ay
actualLevel
s to ppe d
R E C ALL M I N
h as ”
” as
u pon
LE VE L,
th e
be
bei n g
at in
an y
l e ve l
be twe e n
o ff
an d
1 00
%,
e ffe c t te m p o rari l y i g n o re d .
e xe cu ti o n
of
an y
i n s tru cti o n
o th e r
th an
R E C AL L M AX L E VE L o r I D E N TI F Y D E VI C E .
light
co m m an d
”
o u tpu t
s h al l
be
sh al l
be
e xe cu te d
ad j u s te d
as
q u i c kl y
as
possi bl e
to
( i f ap p l i cab l e ) .
Meth od on e: si ng l e instructi on
I d e n ti fi c ati o n re s tart
be
a c t i ve ,
s h al l
device
actualLevel
9.1 4.3.2
is
maxLevel
i d e n ti fi cati o n
re fl e ct “
vari ab l e s
can
e ffe c ts .
i d e n ti fi cati o n
minLevel
Af te r
by
I d enti fi cati on of a devi ce
9.1 4.3.1
“
is
can s
±
be
1
s
s e l e cte d
actu al
s tarte d ti m e r. co n t ro l
p ro ce d u re
i d e n ti fi cati o n
by sen di n g
Wh i l e
is
is
th e
g e ar s h al l
m an u f ac t u re r
ac ti ve ,
th e
th e
i n s tru c t i o n
ti m e r ru n .
is
“ I D E N TI FY D E VI C E ”.
ru n n i n g ,
I f th e
a
p ro c e d u re
ti m e r e xp i re s ,
Th i s
en abl i n g
i d e n ti fi cati o n
s h al l
an
s tart o r
o b s e r ve r
sh al l
to
s to p.
s p e ci fi c.
co n tro l
g ear
s h al l ,
” an d
“
wi th o u t
i n t e rru p ti n g
th e
i d e n ti fi cati o n
p ro ce d u re :
•
on
R E C ALL M I N
•
on
R E C ALL M AX LE VE L:
Wh e n
i d e n ti fi cati o n
can ce l l e d
9.1 4.3.3
•
.
on
set “
o f h o w to
u se
actualLevel
set “
s to ppe d
R E C AL L M I N light
by
th e
o u tp u t
is
LE VE L: as
set
q u i c kl y
“
set
R E C ALL M AX LE VE L: l i g h t o u tp u t as
Al te rn ati ve l y, i d e n ti fi cati o n
It
an d
see
is in
th e
“
” to
targetLevel
co n tro l l e r,
”
to
th e
“
minLevel “
”;
maxLevel
”.
co rre s p o n d i n g
ti m e r
s h al l
be
An n e x A.
co n tro l
g e ar
possi bl e %,
“
th e n
”
to
th e
actualLevel
possi bl e
s h al l
to
e xe cu te
”
co n tro l
an d i ts
“
targetLevel
PH M
l am p
an d
1 00
g e ar s h al l :
l e ve l .
s h al l
“
be
”
to
I f,
“
minLevel
h o we ve r,
”,
an d
PH M
is
te m p o rari l y s wi tch e d
targetLevel
”
to
“
maxLevel
”,
th en
ad j u s t
not
vi s i b l y
o ff i n s te ad ;
an d
th e n
ad j u s t
%.
“ I D E N TI FY D E VI C E ”,
s tarti n g
or
re - tri g g e ri n g
th e
p ro ce d u re .
acce ptab l e an
q u i c kl y as
th e
actualLevel
as
on
N OTE
”
ap p l i cati o n
n o t D I S AB L E D ,
1 00
execu ted
an
co m m an d s ,
s i g n i fi can tl y d i ffe re n t fro m
th e
actualLevel
targetLevel
Meth od two: u si ng “RECALL MAX LEVEL” and /or “RECALL MIN LEVEL” (d eprecated)
“initialisationState”
th e
•
is
i m m ed i atel y
Fo r e xam pl e s
Wh i l e
LE VE L:
for
al te rn a ti n g
I d e n ti fi c ati o n
s h al l
be
th e
p ro ce s s
of
i d e n ti f yi n g
i n d i vi d u al
co n tro l
g ear
to
depen d
upon
bo th
co m m an d s
seq u en ce.
s to ppe d
i m m e d i ate l y wh e n
one
of th e
fo l l o wi n g
co n d i ti o n s
hold:
bei n g
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
•
th e
•
CSV
– 41
–
201 8
“initialisationState”
u pon
e xe cu ti o n
of
ch an g e s
an y
to
D I S AB LE D ;
i n s tru cti o n
o th e r
th an
I N I TI ALI S E
(
device
),
R E C AL L M I N
a
s h o rt
LE VE L,
R E C AL L M AX L E V E L o r I D E N TI F Y D E VI C E .
Fo r e xam pl es
9.1 4.4
o f h o w to
use
th e
co m m an d s ,
see
An n e x A.
Direct address allocation
“ S E T S H O R T AD D R E S S ad d re s s e d
(
DTR0
)”
can
be
u sed
to
d i re ct l y
p ro g ram
a d d re s s
to
th e
g e ar.
9.1 5 Failure state behaviour If
th e
co n tro l
i n te n d e d fo l l o wi n g
Th e an d
co n tro l co n tro l
N OTE
If
of
Fo r
g e ar th e
in
b e twe e n
a
d am ag e
fa i l u re
fai l u re
s tate ,
co n tro l
in
wh i c h
g ear
o p e ra t i o n
fai l u re )
s tate
as
th at
“actualLevel”
co n tro l by
“targetLevel”
cal cu l ate
i n s o far
g ear
l i m i ti n g
is
“actualLevel”
b e twe e n
a
a n d /o r
s h al l
l am p
e xam pl e ,
th e rm al
th e
is
fai l u re
it
of
s h al l
th e
l am p( s )
re act
to
is
l e ve l
not
possi bl e
co m m an d s
in
as th e
way:
re l ati o n s h i p
ri s k
g e ar
( l am p
ight
in
acco rd a n ce
p rac ti ca b l e .
an d
m i g h t,
th e
re s o l ve d , an d
is
As
a
l i g h t o u tpu t co u l d
on
d e tecti n g
an
wi th
th e
co n s e q u e n ce
co m m an d s
of
th e
fau l t,
e xe cu te d , th e
n o rm al
te m p o rari l y ch an g e .
e xces si vel y
high
te m p e ratu re ,
p ro te ct
i tsel f
f ro m
th e
ou tpu t.
th e
co n tro l
l i g h t ou tpu t
.
g ear
s h al l
re - e s tab l i s h
th e
n o rm al
re l ati o n s h i p
9.1 6 Status information 9.1 6.1 E ach
General co n tro l
Tabl e
g e ar
s h al l
expose
i ts
statu s
as
a
co m bi n ati o n
of
d e vi ce
p ro p e rt i e s
as
g i ve n
in
1 2.
Table 1 2 – Control gear status Bi t 0
2
3
4
5
6
7
d e vi ce
s i tu ati o n
s tatu s
“lampOn”
is
“limitError” “resetState”
" YE S "
9. 1 6. 2
"1 "
=
" YE S "
9. 1 6. 3
TR U E ?
"1 "
=
" YE S "
9. 1 6. 4
is
TRU E ?
"1 "
=
" YE S "
9. 1 6. 5
is
"1 "
=
" YE S "
9. 1 6. 6
"1 "
=
" YE S "
9. 1 6. 7
"1 "
=
" YE S "
9. 1 6. 8
"1 "
=
" YE S "
9. 1 6. 9
is
TRU E ?
TR U E ?
TRU E ?
“shortAddress”
is
M AS K?
“powerCycleSeen”
can
be
TRU E ?
See
=
is
is
Val u e "1 "
“fadeRunning”
is
q u e ri e d
wi th o u t d e l ay u n l e s s
9.1 6.2
TR U E ?
u sing
“ Q U E R Y S T ATU S ” .
e xp l i ci tl y s tate d
Th e
bi ts
s h al l
re fl e c t
th e
actu al
o th e rwi s e .
Bit 0: Control gear failure
A co n tro l o pe rate
N OTE
“controlGearFailure” “lampFailure”
1
Th e
Descri pti on
g e a r fai l u re
as
E xam pl e s
I f a c o n tro l
acco rd i n g
to
th i s
s tan d ard
is
a
s i tu ati o n
in
wh i ch
th e
co n tro l
i n te n d e d .
are
m ai n s
g e ar fa i l u re
un der
is
vo l tag e ,
d e te cte d ,
ove r
te m p e rat u re ,
u n e xpe cte d
“controlGearFailure”
wat ch d o g
sh al l
be
ti m e rs
s e t to
f i ri n g
TR U E .
etc.
g e ar
can n o t
– 42
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
If
th e
fai l u re
is
no
“controlGearFailure” C o n tro l
g e ar fai l u re
9.1 6.3 A
fai l u re
i n ten d ed
d e tecti o n
to
m e th o d on
If
fai l u re
l am p
d e te cte d cas e be
th e
wi th
If
“
an d
l am p
s ti l l
th e
d e tected ,
se t to
an d
n o rm al
o pe rati o n
h as
been
re s u m e d ,
FALS E .
d e te cte d
F ALS E .
is
fro m
th i s
l am p
an d
is
s ta n d ard
i n d i cate d
type
l ate s t t ake s
a l am p
is
a
l ate s t afte r 3 0
s i tu ati o n
l am p
l am p
(see
s.
30
s
fa i l u re
to
wi th
wh i ch
d i sco n n ect,
wh e n
l o n g e r th an p h as e
in
co n n e cti o n
or
th e
l am p
l am p
u n l ess
can n o t
d e fe cts .
e xpl i ci tl y
be
Th e
s tate d
o pe rate d minimum o th e rwi s e
1 1 . 5. 1 9) .
“lampFailure”
afte r
s tartu p
is
i n co rre c t
fai l u re
d e te cte d ,
o f th e
fai l u re
som e
s i tu ati o n
ch an g e s
fo r
to
e xam pl e
l i g h t s o u rce
ph as e
en d
lampFailure
l am p
fo r
i n d i cated
s tartu p
se t at th e
A to tal
be
acco rd i n g
due
d epen d i n g
a
sh al l
be
Bi t 1 : lamp fai l u re
l am p
as
l on g er
s h al l
CSV 201 8
30
th e
no
s,
sh al l th e
be
set
co n tro l
to
TR U E .
g ear
fo r e xam p l e
is
not
fo r H I D
Lam p in
fai l u re
s tan d b y
l am ps ,
s h al l
(see
be
9. 2) .
“lampFailure”
In
s h al l
c o r re c t va l u e .
l i g h t ou tpu t.
A p a rt i al
l am p
fai l u re
is
a
l am p
fai l u re
l i g h t o u tp u t.
”
is
TR U E ,
h as 0 x0 0
th e
i m p ro ve d . to
co n tro l Th i s
g e ar
ch eck
a g re at e r va l u e .
sh al l s h al l
p e ri o d i cal l y be
e xe cu te d
Afte r a s u cce s s fu l
ch e ck at
s tartu p ,
to
l eas t
d e te rm i n e wh e n e ve r
“lampFailure”
wh e th e r “
th e
targetLevel
s h al l
be
”
s e t to
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 43
–
201 8
Bus
i n t e rf ace
Com m an d t u rn
Li g h t
on
th e
to
l am p
o u tpu t
Li g h t
on
Li g h t
off
TRU E
lampOn
F AL S E
TRU E
C as e
lampFailure
A
F AL S E
TRU E
fadeRunning
F AL S E S ta rt u p
i n cl u d i n g
val i d ati o n
TRU E
lampOn
F AL S E
TRU E
C as e
lampFailure
B
F AL S E
TRU E
fadeRunning
F AL S E
Val i d ati on
S tart u p
<0,3
N o rm al S tan d by
s
o p e rati o n
S tartu p F a i l u re
Lam p
f ai l u re
N o rm al
p re s e n t
wh e n
e n te ri n g
stan d by
o p e rati o n
F a i l u re
IEC
Fi g u re 1 1 – Correlati on between “ lampFailure ”, “ lampOn ”, an d “ fadeRunning ” bits Th e
s tartu p
co n ti n u i n g an d
appl i es
“
•
th e
in
l am p
s tartu p
F i g u re
“
•
th e
th i s
s
N OTE
C as e
l am p
s i tu ati o n
th e
1 1
For
light no
part o f th e
m ay
is
b e fo re
val i d ati o n fai l u re .
e n te ri n g
l o n g e r th an
e xcl u d e
F AL S E
th e
th e
b e fo re
t a ke s
al s o
th at
Th i s
th e
l am p
b e h avi o u r
s tan d by,
0, 3
is
s tabl e
is
i l l u s trate d
an d
e m i tti n g in
light
F i g u re
1 1
be fo re
C as e
A
or
s.
val i d ati o n
is
type fo r
e n te ri n g
th an
shou l d
Th i s
of
th e
l am p
in
th e
fo l l o wi n g
s i tu ati o n ,
i l l u s trate d
0, 3
be
i m pl i es
s tan d b y an d ,
s.
p art
th at
of
“
th e
n o rm al
lampOn
”
o p e ra ti o n
might
be
an d
i n co rre c t
sh al l fo r
a
be
e xe cu te d
m axi m u m
of
fi n i s h e d .
i l l u s trate s
s o u rc e
l ess
va l i d a t i o n
s tartu p .
s u ppo rt
I EC
or
si tu ati o n s :
t a ke s
val i d ati o n
ab o ve .
is
”
th e
B:
afte r
Fi g u re
th e
TR U E
val i d ati o n
d e s cri b e d
th e re
is
p h as e
1 1
u n ti l
”
i n cl u d e
o p e ra ti o n
fo l l o wi n g
val i d ati o n
i m m ed i atel y 0, 3
th e
lampFailure
•
In
to
s h al l
n o rm a l
lampFailure
•
Th e
ph as e
wi th
th e
e ffe ct
“ u n kn o w n
th e
l am p
6 2 3 8 6 - 2 xx s e ri e s .
of
“
lampFailure
light
fa i l u re
s o u rce
bi t,
th i s
”
on
“
lampOn
typ e ” , s h al l
”
an d
th e re
be
“
fadeRunning
sh al l
m ad e
be
”
bi ts
s u pp o rt
expl i ci t
in
th e
fo r
th e
fo r
s c e n a ri o s
th i s
bi t.
If
c o rre s p o n d i n g
– 44
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
For
th e
light
e xcl u d ed m ad e
th i s
e xp l i ci t i n
9.1 6.4
In
9.1 6.5 th e
typ e
light
th e
sh al l al l
s o u rce ” , If
t h e re
p art o f th e
th e re
is
m ay
s u p po rt
I EC
be
fo r
s u p po rt
th e
l am p
fo r
th i s
fa i l u re
bi t.
bi t,
Te s ti n g
th i s
s h al l
is be
6 2 3 8 6 - 2 xx s e ri e s .
be
s e t to
F ALS E
o th e r cas es
wh e n
i t sh al l
be
th e
se t to
l am p
is
o ff,
d u ri n g
s tartu p ,
an d
in
case
o f to tal
l am p
TR U E .
Bit 3: l im i t error l as t
re q u e s te d
targ e t
l i m i tati o n s ,
or
“
th e
light type .
co rre s p o n d i n g
“maxLevel” “maxLevel”, limitError If
“n o
s o u rce
Bit 2: l amp on
“lampOn” fai l u re .
If
s o u rce
fo r
CSV 201 8
l as t
”
ta rg e t
s h al l
l e ve l
l e ve l
h as
“targetLevel” be
s e t to
re q u e s te d
been
h as
m o d i fi e d
been
in
m o d i fi e d
acc o rd an ce
due
to
a
wi th
ch an g e
of
“minLevel” “minLevel”
or or
TR U E .
by
“ D AP C
(
level
)”
eq u al s
“ M A S K” ,
“
limitError
”
s h al l
n ot
ch an g e .
In
al l
o th e r cas es
9.1 6.6
“
limitError
”
sh al l
be
ru n n i n g . u n ti l
th e
en d
of
th e
sh al l
“
In
re s e t
al l
”
va l u e
al l
to
F ALS E
be
ti m e,
be
set
e xcept
to
TR U E
re g ard l e s s
set
be
to
TR U E
if
of
al l
at th e i r re s e t val u e .
co l u m n
o th e r cas es
fo r
th e
fro m
wh e th e r
ti m e
th e
d u ri n g
beg i n n i n g
“targetLevel”
wh i ch
of
th e
th e
fad e
fad e
“actualLevel”
an d
ti m e r
(afte r
is
s tartu p )
re ach
th e
s h al l
not
th e
Th e
be
N VM
N VM
vari ab l e s
va ri ab l e s
co n s i d e re d .
N VM
m e n ti o n e d
th at are
in
m a rke d
va ri a b l e s
Tabl e
wi th
d e fi n e d
1 4
‘no
in
e xce pt
ch an g e ’
in
i m pl e m e n te d
i n cl u d ed .
th e
bi t s h al l
be
se t to
F AL S E .
Bit 6: m i ssin g sh ort add ress
bi t
i n d i cates
“shortAddress” In
set s h al l
fad e
are
2 xx sh al l
9. 1 6.8 Th i s
F AL S E .
Bit 5: reset state
“resetState” lastLightLevel P arts
s e t to
l e ve l .
9. 1 6.7
th e
be
Bit 4: fade ru nn i ng
“fadeRunning” “fadeRunning” sam e
s h al l
.
o th e r cas e s
9.1 6.9
wh e th e r
Th e
bi t sh al l
th e
a
s h o rt
be
b i t s h al l
ad d re s s
TR U E
be
if
se t to
h as
been
“shortAddress”
=
as s i g n ed
to
th e
g e ar,
by
c h e c ki n g
M AS K.
F AL S E .
Bit 7: power cycl e seen
“powerCycleSeen” 1 01 :201 4
an d
sh al l
be
set
to
TR U E
afte r
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
“powerCycleSeen”
s h al l
be
set
to
F ALS E
an
4. 1 1 )
on ce
e x te rn a l h as
one
of
p o we r
cycl e
(see
IEC
62386-
o ccu rre d .
th e
fo l l owi n g
co m m an d s
h as
been
e xe cu te d :
“ R E S E T” ,
“ D AP C
(
level
) ”,
“OFF”,
“ R E C ALL M AX LE VE L” , “STE P “G O
D OWN
TO
AN D
SCEN E
(
OFF”,
“U P”,
“ R E C AL L M I N “ON
sceneNumber
AN D
) ”.
S TE P
“ D O WN ” ,
LE VE L”,
U P”,
“ S TE P “G O
“C ON TI N U OU S
TO
U P”,
U P”,
“ S TE P
D O WN ” ,
L AS T AC TI VE
LE VE L” ,
“C ON TI N U OU S
D O WN ” ,
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
201 8
9. 1 7
Non-vol ati l e m em ory
P h ys i cal
n o n - vo l a ti l e
va ri ab l e s
are
A
g ear
co n tro l
th e
i n te n d e d
p h ys i cal l y co n tro l
S i n ce
is
shou ld
is
d e fi n e d
fo rc e
to
al l
is
an
i m p o rtan t
s h o rt
o f ti m e s
N OTE g e a r’ s
to
to
th e
Typi cal l y
ad d i ti o n
or
a
be
in
a
l i m i ted
n eed
s u ch
way
Th i s
vari ab l e s
th at
Th e re
to
of
wri te
cycl e s .
Si n ce
m an y
atte n ti o n .
th e i r
m ean s
i m m e d i atel y.
th e
n u m ber
som e
a
re ac h e d .
va r i a b l e
to
can n o t
va ri a b l e s ,
g e ar th e
m ad e
to
an
wri te
wri ti n g
of
i m p o rtan t
l e ve l
th e
co n te n t
th at
m ay
N VM ,
co n tro l
i n s tru cti o n
ap pl i cati o n
o th e r
e ve ry
kn o w
th e
p h ys i cal l y
n o rm a l
by
s e tti n g
afte r
e n ti re
th e
can
ph ys i cal l y wri te
co n tro l
u sed
fo r an
s u p p o rts
l i m i tati o n s
vari a b l e s
co n tro l l e r
ch an g e s
be
in
–
it
m ay
be
is
n e ve r
not
be
s i tu ati o n s
e s peci al l y
if a
lost
an d
possi bl e
in
wh i ch
to
th e
p arti cu l ar N VM
ve ry fre q u e n t l y.
p e rs i s t e n t
ad d re s s e s
i n te n d e d
N VM d e vi c e
ch an g e
app l i cati o n s a vi n g
th at
th e
– 45
typi cal l y
ph ys i cal
s to re
n o t abl e
p h ys i cal l y
co m m an d
th e
of
e ve ry
ch an g e d
th e
m e m o ry
typ e ,
l i fe ti m e
wri te
g e ar
va ri ab l e
N VM
CSV
N VM
of
vari ab l e s .
typ e
I ts
can n o t
s tabl e )
Typ i cal l y,
i n te rn al
N VM
to
i n ten d ed
be
l os t,
co n fi g u rati o n
th i s
m ech an i s m
fo r
P E R S I S T E N T V AR I AB L E S ”
vari ab l e s
co n tro l l e r
( an d
ch an g e .
al l
g e ar’ s
“ S AV E
co m m an d
u se
e. g .
d ata.
is
m e m o ry. is
to
afte r
e n s u re
as s i g n i n g
C l e arl y
u sed
is
Th i s
onl y
it
a
is
not
h an d fu l
i n s tal l ati o n .
com m an d
can
be
used
a
fe w
th o u san d
ti m es
be fo re
cau si n g
ph ys i cal
d am ag e
to
th e
co n tro l
N VM .
P h ys i cal l y
s avi n g
co m pl e te .
Wh i l e
co n tro l
g e ar
th e th e
m ay
or
co m pl e te ,
th e
wh e n
i n s tru cti o n
th e
va ri a b l e s s a vi n g
val u e
m ay
of
th e
in
re s p o n s e
o pe rati o n
not
is
re s p o n d
affe cte d
is
e xe cu te d ,
not
fl u ctu ate
to
to
an y
va ri ab l e s th e
th e
i n s tru c ti o n
on -g oi n g ,
light
th e
light
co m m an d .
m ay
s h al l
be
s h al l
o ff;
in
at
m ay
H o we ve r,
u n d e fi n e d .
s tay
t a ke
o u tpu t
m ost
u n ti l
th e
M o re o ve r,
th i s
cas e ,
300
fl u ctu ate
if
no
ms
an d
o p e rati o n
th e
light
f l i c ke r
to
th e is
is
o ff
sh al l
be
vi s i bl e .
Th e
light
o u tp u t
m ay
d u ri n g
s avi n g
o p e rati o n s
u n l ess
th es e
are
tri g g e re d
by
th i s
co m m an d .
An
appl i cati o n
“ S AVE
g e ar h a ve
9. 1 8
fi n i s h e d
wi th
fe atu re s .
wi th
Th e
o pco d e
se l ecti o n
th e
an d
s ave
sh ou l d
wai t
o p e ra ti o n
at
l eas t
350
u sin g
ms
to
th e
e n s u re
al l
o p e ra ti o n .
e n ab l i n g
co n t ro l
co n tro l
TYP E
sh al l
of
an d an
g e ar if
g e ar.
th e
ra n g e
sel ect
to
VE R S I ON
co m m an d
0 xFF
th e s e
are
re s e rve d
co m m an d s ,
fo r
s p e ci al
e xce p t
fo r
d e vi ce
th e
type s
co m m an d
N U M BER”) .
set
can
be
s e l e cte d
by
th e
i n s t ru c ti o n
n e xt
appl i cati on
) ”.
th e
1 1 . 6)
d e vi ce
co m m an d
appl i cati o n
sh al l
data
s pe ci fi c
data
0 xE0
re - d e fi n e s
d e vi ce is
val i d .
t y p e /f e a t u r e E xe cu ti n g
fo r
th i s
wh i ch
onl y
i n s tru cti o n
th e
s h al l
can ce l
an y p re vi o u s
type .
th e
th at
(
( re fe r to
o f a d e vi ce
co m m an d s
in
t y p e /f e a t u r e
t y p e /f e a t u r e
co m m an d
wh e th e r i t i s
opco d e
d e vi ce
D E VI CE
co m m an d ,
A
tri g g e r
i n s tru cti o n
0 xFF ( “Q U E R Y E XTE N D E D
i n s tru cti o n
exten d ed
Th e
th e
th e i r
E ach
d e vi c e
“ E N AB LE
Th i s
can
Devi ce types and features
C o m m an d s or
co n tro l l e r
P E R S I S TE N T VAR I AB L E S ”
not
e q u al s
t y p e /f e a t u r e s h al l
e xte n d e d
re act
M AS K,
to 254
be
s h al l
e xe cu te d
co m m an d
be
can ce l l e d
acc o rd i n g
to
u po n i ts
e xe cu ti o n
s pe ci fi cati o n ,
of
th e
n e xt
re g ard l e s s
of
o r n o t.
co m m an d s
wh i ch
o r re p re s e n ts
a
bel on g
d e vi ce
to
th e
t y p e /f e a t u r e
app l i cati o n not
e xte n d e d
s u p po rte d
by th i s
– 46
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
Th e
d e vi ce
I EC
An
t y p e s /f e a t u r e s
s h al l
be
co d ed
as
s pe c i fi e d
in
th e
p arti cu l ar
201 8
p arts
th e
6 2 3 8 6 - 2 xx s e ri e s .
app l i cati o n
g e ar.
co n tro l l e r
“QU E R Y D E VI C E
d e vi c e
t y p e /f e a t u r e
ap p l i cati o n
is
can
“QU E R Y N E XT D E VI C E
be
re p o rte d
To
ch e ck th e
ch e ck
ch e ck
ve rs i o n
t y p e /f e a t u r e
Ap p l i cati o n b e twe e n
254
VE R S I ON
re p o rts
d e vi ce
is
M AS K.
by
as
an
fi rs t s u pp o rte d
th e
co n tro l
If
m o re
th an
In
th at
cas e ,
t y p e s /f e a t u r e s
re ce i ve d
th at th e
s u p po rte d
by
th e
re p e a ti n g
an s we r.
d e vi ce
one
I ssu i n g
t y p e /f e a t u r e
wi l l
s u pp o rte d
d e vi ce
D E VI C E
N U M BER”.
Th i s
t y p e s /f e a t u r e s ,
T YP E wi l l
(
data
re po rt
th e
)
app l i cati o n
co n tro l l e r
fo l l o we d
th e
ve rs i o n
by
n u m be r o f th at s p e ci fi c
i m pl em e n tati o n .
co n tro l l e rs
th e
TYP E ”
are
t y p e /f e a t u r e s .
TYP E ” .
“ E N AB L E
“Q U E R Y E XTE N D E D d e vi c e
u n ti l
n u m ber o f th e
d e vi ce
s u p p o rte d
a u to m a t i ca l l y e n s u re s
send
t y p e s /f e a t u r e s
s u p p o rt e d
al l
b y “ Q U E R Y N E XT D E VI C E
can
d e vi ce
th e
“QU E R Y D E VI C E
T YP E ”
T YP E ”
wh i ch
re p o rts
s u ppo rte d ,
co n tro l l e r
“QU E R Y D E VI C E
can
TYP E ”
g e ar' s
sh ou ld
i n d i vi d u a l
be
abl e
ad d re s s
to
i d e n ti fy
an d
i ts
i n d i vi d u al
d e vi c e
g ear
an d
t y p e s /f e a t u r e s
in
s to re
th e
re l ati o n s h i p
p e rs i s te n t m e m o ry.
9.1 9 Using scenes A
co n tro l
g e ar
s h al l
s u p po rt
th e
use
of
1 6
sce n e s .
Th e
fo l l o wi n g
co m m an d s
s h al l
be
s u pp o rte d :
“G O
TO
SCEN E
(
“QU ERY SCE N E
Th e s e
can
U pon
) ”,
co m m an d s
acc o m p l i s h e d used
sceneNumber sceneX
LE VE L (
by
th u s
e xecu ti o n
o pco d e :
actu al l y
s e l e cti n g
eas i l y be
of
o pco d e Bas e
can
be
an d
“SET SCEN E
co m pri s e
a
1 6
bl o ck o f 1 6
(
DTR0, sceneX
co m m an d s
co n s e cu ti ve
FROM
SCEN E
(
sceneX
) ”,
) ”.
each ,
o pco d es .
on e
fo r
Th e
e ach
n u m ber
of
scen e. th e
Th i s
scen e
is
to
be
cal cu l ate d .
on e
sceneNumber
“R E M OVE
) ”,
=
of
th e
scen e
o pco d e
fou n d
in
–
Tab l e
sceneNumber
com m an d s ,
o pco d e B as e .
Th i s
i d e n ti fi e s
sh al l
th e
be
s ce n e
d e ri ve d to
be
fro m
u sed.
th e Th e
1 3.
Table 1 3 – Scenes Command GO
TO
SCEN E
RE M OVE
(
FR OM
SET
Th e
“sceneX”
th e
ra n g e
On
acce p ti n g
d epen d eq u al s
al so
(
0 x1 0
[0 x1 0 , 0 x1 F]
LE VE L
(
0 x5 0
[0 x50 , 0 x5F]
(
0 xB0
[0 xB 0 , 0 xB F]
0 x40
[0 x40 , 0 x4F]
sceneX
)
sceneX
)
DTR0, sceneX
)
s tan d s
fo r
1 6
i n d i vi d u a l
vari ab l e s ,
wh e re
X
e q u al s
sceneNumber
in
o f [0 , 1 5 ] .
u pon
co m m an d th e
M AS K,
e xactl y as
N OTE
vari ab l e
SCEN E
Opcode rang e
sceneNumber)
SCENE
QU ERY SCE N E
opcodeBase
“
“D AP C
(
(
level
)”
)”
TO
val u e
targetLevel level
i f “ D AP C
Usi ng
“G O
cu rre n t
”
s h al l h ad
i m pl i es
sceneNumber sceneX
SCEN E
of
“
n ot
been
th e
(
)”
”,
be
wh e re
affe c te d .
acce p te d
tran s i ti o n
is
wi th
m ad e
X
is
th e
re acti o n
d e ri ve d
fro m
O t h e rwi s e ,
th e
l e ve l
to
u si n g
th e
e q u al
set
fad e
"
of
th e
co n tro l
sceneX
ti m e .
co n tro l
sceneNumber ".
g e ar
.
g e ar If
s h al l
“
sh al l
sceneX
”
b e h ave
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
CSV
– 47
–
201 8
1 0 Declaration of variables Th e
d e fau l t
va l u e s ,
m e m o ry o f th e
Th e
va ri a b l e s
th e
d e fi n e d
th at are
re s e t
va l u e s ,
va ri ab l e s
d e cl are d
s h al l
in
th i s
p o we r be
as
on
va l u e s ,
g i ve n
cl au s e
in
s h al l
th e
Tabl e
n ot be
ran g e
of
va l i d i t y
an d
th e
type
of
1 4.
m ad e
ava i l ab l e
fo r wri ti n g
th ro u g h
a
m e m o ry b a n k.
Table 1 4 – Declaration of variables VARI ABLE
DEFAULT VALU E (factory)
“actualLevel”
RESET VALU E
POWER ON VALUE
0 xFE
0 x0 0
RANGE OF VALI DITY
MEMORY TYPE
0,
R AM
a
“minLevel” “maxLevel”
[
“targetLevel”
0 xFE
“lastActiveLevel”
See
9. 1 3
0 xFE
0 xFE
0xFE
0,
“minLevel” “maxLevel”
on
[
“maxLevel”
a
“lastLightLevel”
c
no
“minLevel” “maxLevel”
[
ch an g e
“powerOnLevel” “systemFailureLevel” “minLevel” “maxLevel”
,
R AM
]
N VM , ]
0 xFE
no
ch an g e
[0 , 0 xFF]
N VM
0 xFE
0 xFE
no
ch an g e
[0 , 0 xFF]
N VM
PHM
PHM
no
ch an g e
[PH M ,
0 xFE
0 xFE
no
ch an g e
[
7
7
no
ch an g e
[1 , 0 xF]
N VM
0
0
no
ch an g e
[0 , 0 xF]
N VM
“fadeTime” “extendedFadeTimeBase” “extendedFadeTimeMultiplier”
“maxLevel”
“minLevel”
]
N VM
, 0 xFE ]
N VM
0
0
no
ch an g e
[0 , 1 1 1 1 b]
N VM
0
0
no
ch an g e
[0, 1 00b]
N VM
no
ch an g e
M AS K (no
]
0 xFE
“fadeRate”
“shortAddress”
R AM ,
0,
“minLevel” “maxLevel”
[
no
ch an g e
[0, 63] ,
M AS K
N VM
ad d re s s )
“searchAddress” “operatingMode”
]
a
P o we r
“randomAddress”
,
a
0 xFF
facto ry
“initialisationState”
FF
FF
b u rn - i n
0 xFF
FF
FF
0 xFF
FF
FF
no
ch an g e
no
ch an g e
0 xFF
FF
FF
no
ch an g e
no
ch an g e
[0 , 0 xFF
FF
FF]
R AM
[0 , 0 xFF
FF
FF]
N VM
0 , [0 x8 0 , 0 xFF]
N VM
[E N AB LE D ,
R AM
a
D I S AB LE D
D I S AB LE D , WI TH D R AWN ]
“writeEnableState”
a
D I S AB LE D
D I S AB LE D
[E N AB L E D ,
R AM
D I S AB L E D ]
“controlGearFailure”
a
b
d
d
a
FALS E
“fadeRunning”
d
FALS E
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TRU E ,
FALS E ]
R AM
[TR U E ,
FALS E ]
R AM
a
FALS E
TRU E
“powerCycleSeen”
TRU E
FALS E
TR U E
d
a
FALS E
0 x0 0
(n o
e
b
FALS E
“limitError”
“sceneX”
a
FALS E
“lampOn”
“gearGroups”
b
FALS E
“lampFailure”
“resetState”
a
00
g ro u p )
M AS K
0x0 0
(no
00
TR U E
no
ch an g e
no
ch an g e
[0 , 0 xFF
FF]
N VM
g ro u p )
M AS K
[0 , 0 xFF]
N VM
– 48
–
IEC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
VARI ABLE
DEFAULT VALU E (factory)
“DTR0”
a
“DTR1 ”
a
“DTR2”
a
PHM
fac to ry
“versionNumber” a
b
c
d
e
N ot
Th e
b u rn - i n
2. 1
POWER ON VALUE
RANGE OF VALI DITY
MEMORY TYPE
no
ch an g e
0 x0 0
[0 , 0 xFF]
R AM
no
ch an g e
0 x0 0
[0 , 0 xFF]
R AM
no
ch an g e
0 x0 0
[0 , 0 xFF]
R AM
no
ch an g e
no
ch an g e
[1 , 0 xFE ]
ROM
no
ch an g e
no
ch an g e
00001 001 b
ROM
appl i cabl e .
val u e
co u l d
ch an g e
Th i s
N VM
Th e
val u e
sh ou l d
X
in
ran g e
is
RESET VALU E
th e
va ri ab l e
is
a
con seq u en ce
e xcl u d e d
re fl e c t
0 x0
as
to
th e
0 xF,
for
actu al
“
of
th e
resetState
”.
s i tu ati o n
as
e ffe cti ve l y
th e re
CSV 201 8
is
RESET
soon
on e
as
com m an d
execu ti on .
possi bl e.
vari ab l e
fo r
e ach
of
th e
1 6
scen es.
201 8
General
U n u sed
o pco d e s
a re
re s e r ve d
fo r fu tu re
n eeds.
1 1 .2 Overview sheets g i ve s
an
o ve rvi e w o f th e
s tan d ard
co m m an d s .
Th e
s pe ci al
co m m an d s
o ve rvi e w ca n
be
fo u n d
in
Tab l e
1 6.
Table 1 5 – Standard commands
TO
Send twi ce
Answer
DTR2
DTR1
DTR0
OFF
Device
1
0 x0 0
0
9. 7. 2
1 1 . 3. 2
UP
Device
1
0 x0 1
1
9. 7. 3
1 1 . 3. 3
D OWN
Device
1
0 x0 2
2
9. 7. 3
1 1 . 3. 4
UP
Device
1
0 x0 3
3
9. 7. 2
1 1 . 3. 5
D OWN
Device
1
0 x0 4
4
9. 7. 2
1 1 . 3. 6
Device
1
0 x0 5
5
9. 7. 2,
9. 1 4. 2
1 1 . 3. 7
Device
1
0 x0 6
6
9. 7. 2,
9. 1 4. 2
1 1 . 3. 8
Device
1
0 x0 7
7
9. 7. 2
1 1 . 3. 9
UP
Device
1
0 x0 8
8
9. 7. 2
1 1 . 3. 1 0
SEQU EN CE
Device
1
0 x0 9
9
9. 8
1 1 . 3. 1 1
Device
1
0 x0 A
9. 7. 3
1 1 . 3. 1 2
R E CALL
GO
–
-
R E CALL
E N AB LE
Command reference
level
S TE P
ON
References
0
(
S TE P
S TE P
Opcode byte
Device
D AP C
level )
See 7.2. 2
M AX
MIN
D OWN
AN D
LE VE L
AN D
S TE P
D AP C
LAS T
LE VE L
AC TI VE
OFF
LE VE L
– 49
Command name
CSV
Ad dress byte Ed. 1 cmd nu mber
1 5
Sel ector bi t
Tab l e
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
1 1 .1
I EC
© I EC
1 1 Definition of commands
9. 4,
9. 7. 3,
9. 8
1 1 .3.1
GO
TO
SCEN E
(
S AVE
0 x0 C
9. 7. 3
1 1 .3.1 5
Device
1
Device
1
0 x20
32
D TR 0
Device
1
0 x21
33
VAR I AB LE S
Device
1
0 x22
DTR0 )
Device
1
0 x23
DTR0 )
Device
1
0 x24
Device
1
0 x25
DTR0 )
Device
1
0 x2A
42
DTR0 )
Device
1
0 x2 B
43
Device
1
0 x2C
44
Device
1
0 x2 D
45
DTR0 )
Device
1
0 x2 E
46
DTR0 )
Device
1
0 x2F
47
LE VE L
IN
M OD E
(
(
I D E N TI FY D E VI C E
S YS T E M
SET
SET
SET
LE VE L
ON
FAD E
FAD E
SCEN E
(
FAD E
TI M E
(
SCEN E
GROU P
FROM
(
DTR0 )
DTR0, sceneX)
(
(
sceneX)
group )
G ROU P
a
(
a
a
group )
a
– 31
1
Device
1
Device
1
Device
1
0 x60
+
group
96
Device
1
0 x70
+
group
1 1 2
0 x3 0
0 x5 0
+
+
Device
0 x40
9. 7. 3,
sceneNumber
64
– 79
scene Number
80
– 95
– 1 1 1
– 1 27
9. 1 9
9. 1 1 . 1 ,
1 0
1 1 . 3. 1 3
1 1 . 4. 2
1 1 . 4. 3
9. 1 7,
1 0
1 1 . 4. 4
9. 9. 4
1 1 . 4. 5
9. 1 1 . 2
1 1 . 4. 6
9. 1 4. 2
1 1 . 4. 7
9. 6
1 1 . 4. 7
9. 6
1 1 . 4. 9
9. 1 2
1 1 . 4. 1 0
9. 1 3
1 1 . 4. 1 1
9. 5. 2
1 1 . 4. 1 2
0
1 1 . 4. 1 3
0
1 1 . 4. 1 4
9. 1 9
1 1 . 4. 1 4
9. 1 9
1 1 . 4. 1 6
1 1 . 4. 1 7
1 1 . 4. 1 8
CSV
R E M OVE
DTR0 )
R ATE
FR OM
TO
(
(
DTR0 )
1 6
201 8
AD D
LE VE L
(
sceneNumber
© I EC
RE M OVE
LE VE L
TI M E
E XTE N D E D
SET
(
FAI LU R E
P OWE R
SET
(
+
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
SET
MIN
LE VE L
0 x1 0
IEC
SET
M AX
Send twi ce
1
M E M OR Y B AN K
SET
Answer
Device a
–
RESET
DTR2
1 1 .3.1 4
sceneNumber)
OP E RATI N G
DTR1
9. 7. 3
D OWN
P E R S I S TE N T
DTR0
0 x0 B
– 50
SET
AC TU AL
Command reference
1
UP
RESET
S TO R E
References
Device
CON TI N U OU S
C ON TI N U O U S
See 7.2. 2
Opcode byte
Sel ector bi t
Command name
Ed. 1 cmd number
Ad dress byte
SH ORT
E N AB LE
AD D R E S S
WR I TE
(
DTR0
)
M EM ORY
QU E R Y S TATU S
G E AR
QU E R Y LAM P
QU E R Y LAM P
FAI LU R E
P OWE R
ERROR
S TATE
SH ORT
QU E RY VE RS I ON
AD D R E S S
NU MBER
QU E RY CON TE N T
QU E RY D E VI CE
Q U E R Y P H YS I C A L
D TR0
T YP E
MINIMUM
FAI LU RE
Device
1
0 x81
1 29
Device
1
0 x90
1 44
Device
1
0 x91
1 45
Device
1
0 x92
1 46
Device
1
0 x93
1 47
Device
1
0 x94
1 48
Device
1
0 x95
1 49
Device
1
0 x96
1 50
Device
1
0 x97
1 51
Device
1
0 x98
1 52
Device
1
0 x99
1 53
Device
1
0 x9 A
1 54
Device
1
0 x9 B
1 55
QU E RY CON TE N T
D TR1
Device
1
0 x9 C
1 56
QU E RY CON TE N T
D TR2
Device
1
0 x9 D
1 57
Device
1
0 x9 E
Device
1
0 x9 F
Device
1
0 xA0
1 60
Device
1
0 xA1
1 61
Device
1
0 xA2
1 62
Q U E R Y O P E R ATI N G
QU E RY LI G H T
M ODE
SOU RCE
Q U E R Y AC TU AL
QU E R Y M AX
QU ERY M I N
T YP E
LE VE L
LE VE L
LE VE L
Send twi ce
Answer
DTR2
DTR1
DTR0
Ed. 1 cmd number
Sel ector bi t
1 28
9. 1 4. 4
1 1 . 4. 1 9
9. 1 0
1 1 . 4. 20
9. 1 6
1 1 . 5. 2
1 1 . 5. 3
1 1 . 5. 4
1 1 . 5. 6
1 1 . 5. 7
1 1 . 5. 8
9. 1 4. 2
1 1 . 5. 9
1 1 . 5. 1 0
9. 1 0
1 1 . 5. 1 1
9. 1 8
1 1 . 5. 1 2
1 1 . 5. 1 3
1 1 . 5. 1 5
9. 1 0
1 1 . 5. 1 6
1 1 . 5. 1 7
9. 9. 4
1 1 . 5. 1 8
1 1 . 5. 1 9
1 1 . 5. 20
1 1 . 5. 21
1 1 . 5. 22
–
QU ERY RESET
QU E R Y P OWE R
ON
0 x8 0
– 51
QU E RY LI M I T
QU E RY M I SSI N G
PRESEN T
1
Command reference
CSV
QU E RY C ON TR OL
Device
References
201 8
SET
See 7.2. 2
Opcode byte
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
Command name
I EC
© I EC
Ad dress byte
QU E R Y P OWE R
Q U E R Y S YS T E M
QU E RY FAD E
ON
1 63
LE VE L
Device
1
0 xA4
1 64
R ATE
Device
1
0 xA5
1 65
Device
1
0 xA6
D e vi ce
1
0 xA7
D e vi ce
1
0 xA8
D e vi ce
1
0 xAA
Device
1
0-7
Device
1
0 xC 0
1 92
8-1 5
Device
1
0 xC 1
1 93
T I M E /F A D E
QU E R Y N E XT
D E VI CE
QU E R Y E XTE N D E D
QU E R Y C ON TR OL
QU E RY SCEN E
SPE CI FI C
T YP E
FAD E
G E AR
LE VE L
QU ERY G ROU PS
QU ERY G ROU PS
M ODE
TI M E
F AI LU R E
(
sceneX)
a
0 xB0
+
sceneNumber
1 76
(H )
Device
1
0 xC 2
1 94
QU E R Y R AN D OM
AD D R E S S
(M )
Device
1
0 xC 3
1 95
(L)
Device
1
0 xC 4
1 96
DTR1 , DTR0 )
Device
1
0 xC 5
1 97
Device
1
Device
1
QU E R Y R AN D OM
R E AD
M E M ORY LOC ATI ON
Appl i cati o n
e xte n d e d
QU E R Y E XTE N D E D
Th e re
AD D R E S S
is
one
(
co m m an d s
VE R S I ON
com m an d
N U M BER
p e r s ce n e ,
so
th e re
a re
actu al l y
1 6
co m m an d s
fo r sce n es
0 xE 0
– 0 xFE
224
0 xFF
0
– 5.
An al o g u e
– 254
?
255
fo r
th e
1 6
g ro u p
?
Send twi ce
Answer
DTR2
DTR1
DTR0
?
?
1 1 . 5. 23
9. 1 2
1 1 . 5. 24
9. 9
1 1 . 5. 27
9. 1 8
1 1 . 5. 1 3
0
1 1 . 5. 26
9. 1 6. 2
1 1 . 5. 4
9. 1 9
1 1 . 5. 28
1 1 . 5. 29
1 1 . 5. 30
1 1 . 5. 31
1 1 . 5. 32
1 1 . 5. 33
?
9. 1 0
1 1 . 5. 34
9. 1 8
1 1 .6
1 1 . 6. 2
co m m an d s.
© I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
AD D R E S S
9. 1 3
1 1 . 5. 25
– 1 91
QU E R Y R AN D OM
IEC
0 xA3
Command reference
–
1
References
– 52
Device
LE VE L
FAI LU RE
QU E R Y M AN U FAC TU R E R
a
See 7.2. 2
Opcode byte
Sel ector bi t
Command name
Ed. 1 cmd number
Ad dress byte
CSV
201 8
D TR0
(
data
I N I TI ALI S E
(
)
device
0 xA9
0 x0 0
260
WI TH D R AW
0 xAB
0 x0 0
261
PI NG
0 xAD
0 x0 0
VE RI FY S H OR T
AD D R E S S
DE VI CE
D TR1
(
D TR2
(
0 xB3
)
0 xB5
AD D R E S S
QU E RY SH ORT
(
(
data
T YP E
data data
(
data
)
0 xB7
)
0 xB9
0 xBB
)
0 xC1
)
0 xC3
)
0 xC5
(
DTR1 , DTR0, data
M E M OR Y LOC ATI ON
R E P LY (
data
AD D R E S S
M E M OR Y LOC ATI ON
NO
data
)
)
0 xC7
–
DTR1 , DTR0, data
0 xC9 )
data data data data data 0 x0 0
data data data data data
Send twi ce
Answer
9. 1 4. 2
1 1 . 7. 1
9. 1 0
1 1 . 7. 3
9. 1 4. 2
1 1 . 7. 4
9. 1 4. 2
1 1 . 7. 5
9. 1 4. 2
1 1 . 7. 6
9. 1 4. 2
1 1 . 7. 7
1 1 . 7. 1 9
264
9. 1 4. 2
1 1 . 7. 8
265
9. 1 4. 2
1 1 . 7. 9
266
9. 1 4. 2
1 1 . 7. 1 0
9. 1 4. 2
1 1 . 7. 1 1
–
SH ORT
(
data
0 xB1
Command reference
– 53
(
)
References
CSV
C OM P AR E
data
258
259
S E AR C H AD D R M
WR I TE
device 0 x0 0
(
E N AB LE
0 xA5
257
0 xA7
S E AR C H AD D RH
P R OG R AM
)
data
256
R AN D OM I S E
S E AR C H AD D R L
WR I TE
0 xA3
DTR2
0 x0 0
DTR1
0 xA1
DTR0
TE R M I N ATE
Ed. 1 cmd nr
Opcode byte
201 8
Address byte
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
Command name
I EC
© I EC
Table 1 6 – Special commands
267
268
269
272
273
1 1 . 7. 1 2
1 1 . 7. 1 3
9. 1 4. 2
1 1 . 7. 1 4
9. 1 0
0
274
275
9. 1 4. 2
9. 1 4. 2
1 1 . 7. 1 6
9. 1 0
1 1 . 7. 1 7
9. 1 0
1 1 . 7. 1 8
– 54
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
1 1 .3 Level instructions 1 1 .3.1
DAPC ( level)
U pon on
e xe cu ti o n
th e
Th e
bas i s
tran s i ti o n
of
“ D AP C
“level”
of
s u bcl au s e s
1 1 .3.2
OFF
Th e be
sh al l
tran s i ti o n
ad j u s te d
s u bcl au s e
1 1 .3.3
UP
Dim
up
To
using
e n s u re
cal cu l ate d Afte r
th at
fad i n g
is
a
th at “
9. 7. 2
fi rs t
step,
ms
fad e
th e
s e t fad e
s h al l
to
be
no
DOWN using
e n s u re
th at
cal cu l ate d Af te r
th at
fad i n g
is
“
200
step,
ru n n i n g .
ms
fad e
an d
th e
s e t fad e
Th e re
a
s h al l
to
be
be
s h al l
be
cal cu l ate d
s h al l
s tart u s i n g
th e
appl i cabl e
fad e
ti m e
.
fo r fu rth e r i n fo rm ati o n .
th e
l am p( s )
“targetLevel”
to
th e
be
sh al l
s wi tch
s h al l
be
o ff.
i m m ed i ate
an d
th e
light
o u tpu t
sh al l
to
set
fad e
th e
“targetLevel”
co m m an d ,
u po n
s h al l
be
i n s tru c ti o n
at
e xe cu ti o n
e xecu te d
e xecu te d
“targetLevel”
an d
rate .
sh al l
be
cal cu l ate d
on
th e
rate .
m ad e
s te ps
“U P”
to
is
fad e
th e
th e
a
”-1 )
“actualLevel”
9. 7. 3
an d
to
be
l eas t of
u sing
as
a
on e
th e
fi rs t
th e
p a rt
s te p
( fi n al
an on
“
com m an d
s pe c i fi e d
of
re cal cu l ate d
wi th
th e
re ac ti o n
n ext
be
s te ps
“ D O WN ” an d
to
“actualLevel”
if
9. 8. 2
s e t fad e
s h al l
re s tart e d
no
ch an g e
1 1 .3.5
STEP UP
if
“targetLevel”
co n tro l ) ,
fad e
i te rati o n th e
bas i s
targetLevel
of
an
rate
s h al l of
”
=
i te rati o n . wh i l e
th e
cau s e
th e
“actualLevel”
is
at
“maxLevel”
o r 0 x0 0 .
fo r fu rth e r i n fo rm ati o n .
set
fad e
ra te .
“targetLevel”
sh al l
be
cal cu l ate d
s h al l
“targetLevel”
9. 5. 1 ,
be
=
to
th e
m ad e sh al l
co m m an d ,
u pon be
e xe cu ted e xecu te d
“targetLevel”
at
e xe cu ti o n
i n s tru cti o n
set to :
0:
“actualLevel”
9. 7. 3
0 x0 0
an d
on
th e
rate .
to
be
l e as t of
using as
a
on e
th e
fi rs t
th e
part
s te p
( fi n al
s p e c i fi e d of
re cal cu l ate d
an
on
“
co m m an d fad e
i te rati o n
th e
bas i s
targetLevel
of
an
rate
sh al l of
9. 8. 2
if
“actualLevel”
is
at
“minLevel”
fo r fu rth e r i n fo rm ati o n .
”
=
i te ra t i o n . wh i l e
th e
cau s e
th e
“actualLevel”
rate .
s u bcl au s es
•
an d
re ac ti o n
n ext
ms
E ve ry
R e fe r to
“targetLevel”
9. 1 3
s e t fad e
sh al l
an d
th e re
200
a
9. 5. 1 ,
targetLevel
fi rs t
an d
wi th
th e
”+ 1 )
th e
“actualLevel”
of
fad e
ch an g e
1 1 .3.4
To
is
“targetLevel”
to
0 x0 0
re s tart e d
s u bcl au s es
d o wn
p o we r
rate .
R e fe r to
Dim
arc
fo r fu rth e r i n fo rm ati o n .
E ve ry
be
( d i re ct
possi bl e.
an d
th e re
an d
basi s
ms
targetLevel
ru n n i n g .
)”
“actualLevel”
200
200
Th e re
set to
“actualLevel”
of
9. 7. 3
q u i c kl y a s
R e fe r to
bas i s
9. 4,
be
fro m
as
level
“actualLevel”
fro m
R e fe r to
“targetLevel”
(
.
o r 0 x0 0 .
I EC
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© I EC
•
if
•
if
Th e
“minLevel” ≤ “targetLevel” “targetLevel” tran s i ti o n
s h al l
be
as
q u i c kl y a s
1 1 .3.6
STEP DOWN
“targetLevel”
•
if
•
if
Th e
s h al l
“targetLevel” “minLevel”
<
9 . 4 an d
be
=
9. 5. 9
s h al l
be
i m m e d i ate l y
an d
th e
light
o u tpu t
an d
th e
light
o u tpu t
fo r fu rth e r i n fo rm at i o n .
set to:
0:
0 x0 0
“targetLevel” ≤ “maxLevel”: “targetLevel”
tran s i ti o n be
“actualLevel”
fro m
ad j u s te d
as
q u i c kl y a s
-1
1 1 .3.7
RECALL MAX LEVEL
Wh e n
th e
“maxLevel” R e fe r to
9 . 4 an d
9. 5. 9
“initialisationState” i m m e d i ate l y an d
9. 7. 2
is
th e
th e
”
to
“
”,
te m p o rari l y i g n o ri n g
th e
d e vi ce
It
is
is
u n ab l e
acce ptabl e
R E C ALL
MIN
fo r
LE VE L
to
th e
i d e n ti fi cati o n
vari ab l e s
en ded,
th e re
si de
sh al l an d
R E C AL L M I N
Wh e n
th e
no
no
be
u pon
LE VE L,
can
s to p pe d
“
ad j u s t
th e
actualLevel
i d e n ti fy
“actualLevel”
an d
ad j u s ted
exe cu ted
sh al l be
be
th e
light
as
q u i c kl y a s
sh al l
be
set
to
possi bl e.
in
th e
g e ar as
an
th i s
way,
i d e n ti fi cati o n
i n d i vi d u al
in
co n tro l o u tpu t
s h al l
q u i c kl y
set as
“
actualLevel
possi bl e
to
”
an d
1 00
%
”.
i ts e l f
i d e n ti f yi n g
c o n t ro l
al te rn ati n g
affe cte d
te m p o rari l y
i m m e d i ate l y
e xe cu ti o n
g ear
th e
co n tro l
g ear
s h al l
e xe cu te
p ro c e d u re .
to
depend
upon
R E C ALL
M AX
LE VE L
seq u en ce.
e xce p t
i g n o re d ,
wh e n
so
th at
e xpl i ci tl y afte r
th e
s tate d
o th e rwi s e .
i d e n ti fi cati o n
h as
of
an y
wh e n
“initialisationState”
th e
i n s tru cti o n
o th e r
th an
ch an g es
I N I TI ALI S E
(
to
device
),
R E C ALL M AX L E VE L o r I D E N TI F Y D E V I C E .
ch an g e s
RECALL MIN LEVEL
to
D I S AB LE D ,
th e
i d e n ti fi cati o n
s h al l
s to p
i m m ed i atel y.
fo r fu rth e r i n fo rm ati o n .
“initialisationState” i m m e d i ate l y an d
9. 7. 2
i m m e d i ate l y
e ffe cts .
1 1 .3.8
R e fe r to
of
bei n g
9. 1 4. 3
th e
be
D I S AB LE D ,
o r re - tri g g e ri n g
R e fer to
Wh e n
an d
vari ab l e s
“initialisationState”
“minLevel”
n ot th e n
p ro c e s s
ap p ro p ri a te , are
”
co m m an d s
Wh e re
I d e n ti fi cati o n
“targetLevel”
D I S AB LE D ,
vi s u al l y
s ta rti n g
D u ri n g
D I S AB L E D
be
fo r fu rth e r i n fo rm at i o n .
l i g h t o u tpu t s h al l
is
an d
“
“ I D E N TI FY D E VI C E ” ,
N OTE
s h al l
fo r fu rt h e r i n fo rm a ti o n .
“initialisationState” targetLevel maxLevel maxLevel
Wh e n
“targetLevel”
to
possi bl e.
s u bcl au s e s
an d
“targetLevel”
to
possi bl e.
R e fe r to
If
+1
“targetLevel” = “minLevel”: “minLevel”
s h al l
“
–
“maxLevel”: “targetLevel”
<
“actualLevel”
fro m
ad j u s te d
s u bcl au s e s
if
– 55
“maxLevel”: “maxLevel”
=
R e fe r to
•
CSV
201 8
is
th e
D I S AB LE D ,
“targetLevel”
l i g h t o u tpu t s h al l
fo r fu rth e r i n fo rm a ti o n .
be
an d
ad j u s te d
as
“actualLevel” q u i c kl y a s
s h al l
possi bl e.
be
set
to
– 56
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
“initialisationState” targetLevel minLevel
Wh e n “
”
l e ve l
to
“
is
”
te m p o rari l y
i g n o ri n g
s i g n i fi can tl y d i ffe re n t fro m
If
th e
d e vi ce
is
u n abl e
“ I D E N TI FY D E VI C E ” ,
N OTE an d
It
is
acce ptabl e
R E C ALL
MIN
“
to
th e
i d e n ti fi cati o n ap p ro p ri a te ,
vari ab l e s
en ded,
th e re
si de
I d e n ti fi cati o n D I S AB L E D
sh al l an d
R E C AL L M I N
Wh e n
th e
be
u pon
LE VE L,
can
s to p pe d
•
if
Th e s h al l
“targetLevel” “minLevel”
R e fe r to
in
th e
i n d i vi d u al
in
an
”.
be
I f,
h o we ve r,
set
as
“
way,
c o n t ro l
al te rn ati n g
g ear
th e
actualLevel
possi bl e PH M
te m p o rari l y s wi tch e d
th i s
affe cte d
s h al l
q u i c kl y
i d e n ti fi cati o n
te m p o rari l y
i m m e d i ate l y of
ch an g e s
<
be
co n tro l
to
is
”
i ts
not
an d PH M
vi s i b l y
o ff i n s te ad .
g e ar
s h al l
e xe cu te
p ro c e d u re .
to
depend
upon
R E C ALL
M AX
LE VE L
seq u en ce.
e xce p t
i g n o re d ,
wh e n
so
th at
e xpl i ci tl y afte r
th e
s tate d
o th e rwi s e .
i d e n ti fi cati o n
h as
an y
wh e n
“initialisationState”
th e
i n s tru cti o n
o th e r
th an
ch an g es
I N I TI ALI S E
(
to
device
),
to
D I S AB LE D ,
i d e n ti fi cati o n
sh al l
s to p
i m m ed i ate l y.
=
set to :
0:
0 x0 0
“targetLevel” ≤ “maxLevel”: “targetLevel”
“targetLevel” = “minLevel” be
be
s h al l
g e ar as
fo r fu rth e r i n fo rm ati o n .
sh al l
tran s i ti o n
exe cu ted
be
actualLevel
i ts e l f
i d e n ti f yi n g
sh al l
o u tp u t
R E C ALL M AX L E VE L o r I D E N TI F Y D E V I C E .
STEP DOWN AND OFF
if
“
co n tro l
l am p
i d e n ti fy
e xe cu ti o n
1 1 .3.9
•
th e
th e light
e ffe cts .
9. 1 4. 3
if
of
bei n g
R e fer to
•
an d
th e n
vari ab l e s
“initialisationState”
“targetLevel”
”
th e
o r re - tri g g e ri n g
p ro c e s s
Wh e re
no
%,
vi s u al l y
D u ri n g
are
ad j u s t
minLevel
co m m an d s
no
D I S AB LE D ,
th e n
1 00
s tarti n g
fo r
LE VE L
not
an d
CSV 201 8
0 x0 0
“actualLevel”
fro m
ad j u s te d
:
as
s u bcl au s e s
q u i c kl y as
9. 4
an d
-1
to
“targetLevel”
sh al l
be
i m m e d i ate l y
an d
th e
light
o u tpu t
an d
th e
light
o u tpu t
possi bl e.
9. 5. 9
fo r fu rth e r i n fo rm a ti o n .
1 1 .3.1 0 ON AND STEP UP “targetLevel” •
if
•
if
•
if
Th e sh al l
sh al l
“targetLevel”
be
=
set to :
0:
“minLevel”
“minLevel” ≤ “targetLevel”
“maxLevel”: “targetLevel”
<
+1
“targetLevel” ≥ “maxLevel”: “maxLevel” tran s i ti o n be
R e fer to
“actualLevel”
fro m
ad j u s te d
as
su bcl au s e s
q u i c kl y a s
9. 4
an d
to
“targetLevel”
sh al l
be
i m m e d i ate l y
possi bl e.
9. 5. 9
fo r fu rt h e r i n fo rm a ti o n .
1 1 .3.1 1 ENABLE DAPC SEQUENCE I n d i cates
R e fe r to
th e
s tart o f a co m m an d
s u bcl au s e
9. 8. 3
i te ra ti o n
o f “ D AP C
fo r fu rth e r i n fo rm ati o n .
(
level
)”
co m m an d s .
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© I EC
CSV
– 57
–
201 8
1 1 .3.1 2 GO TO LAST ACTIVE LEVEL U pon
Th e
e xe cu ti o n
tran s i ti o n
R e fe r to
o f th i s
fro m
“targetLevel”
co m m an d
“actualLevel”
s u bcl au s e s
9. 7. 3
an d
“targetLevel”
to
9. 4
sh al l
be
s h al l
cal cu l ate d
s tart u s i n g
b as e d
th e
on
“lastActiveLevel”
s e t fad e
ti m e
.
.
fo r fu rth e r i n fo rm a ti o n .
1 1 .3.1 4 CONTINUOUS UP Dim
up
s tarte d
Th e re
u si n g usi ng
s h al l
R e fe r to
th e th e
be
9. 7. 3
set
fad e
s e t fad e
no
ch an g e
an d
9. 5. 6. 2
rate .
rate .
to
“
targetLevel
“
Th e
fad e
actualLevel
”
s h al l
”
if “
sh al l s to p
be
maxLevel maxLevel
set
wh e n
actualLevel
”
“
to
“
”
is
at “
is
”
an d
a
fad e
sh al l
be
s h al l
be
re ach e d .
maxLevel
”
or 0 x00 .
fo r fu rth e r i n fo rm at i o n .
1 1 .3.1 5 CONTINUOUS DOWN Dim
d o wn
s tarte d
Th e re
u sing
usi ng
sh al l
R e fer to
th e
th e
be
9. 7. 3
set
fad e
s e t fad e
no
ch an g e
an d
9. 5. 6. 2
rate .
rate .
to
“
“
Th e
targetLevel
fad e
actualLevel
s h al l
”
if “
”
s h al l
s to p
be
actualLevel
”
minLevel minLevel
set
wh e n
“
is
to
“
”
at “
is
”
an d
a
fad e
re ach e d .
minLevel
” o r 0 x0 0 .
fo r fu rth e r i n fo rm ati o n .
1 1 .3.1 3 GO TO SCENE ( sceneNumber) Th e
co n tro l
fro m
•
if
•
in
g e ar
s h al l
sceneNumber “sceneX” al l
N OTE
M AS K:
o th e r cas e s :
Usi ng
R e fe r to
=
re ac t
d epen d i n g
on
th e
actu al
val u e
of
“sceneX”
X
wh e re
is
d e ri ve d
:
“D AP C
(
co m m an d
s h al l
i n te rn al l y “ D AP C
level
s u bcl au s es
th e
)”
i m pl i es
9. 1 9
an d
th e
(
level
t ran s i ti o n
1 1 .3.1
is
targetLevel
n o t affe c t “
) ”,
wi th
m ad e
level
u si n g
th e
e q u al
set
fad e
to
”;
“sceneX”
sh al l
be
e xe cu te d .
ti m e .
fo r fu rth e r i n fo rm at i o n .
1 1 .4 Configuration instructions 1 1 .4.1 D e vi ce
General co n fi g u rati o n
o pe rati o n
of
d i s ca rd e d , 1 01 :201 4
U n l ess
Th e
i n s t ru c t i o n s
co n tro l
u n l ess
an d
it
is
g e ar.
are
For
acce p te d
u sed
th i s
twi ce
to
th e
s tate d
fo l l o wi n g
i n s tru cti o n
o th e rwi s e
ch an g e
re as o n
a
acc o rd i n g
to
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
e xpl i ci tl y
i n s tru cti o n ,
•
th e
in
th e
th e
co n fi g u rati o n
a n d /o r
d e vi c e
co n fi g u rati o n
i n s tru c ti o n
th e
re q u i re m e n ts
as
s tate d
th e
in
m od e sh al l
I EC
of be
62386-
9. 3.
d e s cri p ti o n
of
parti cu l ar
d e vi c e
c o n fi g u ra ti o n
hol ds:
s h al l
be
i g n o re d
if
so
re q u i re d
by
th e
p ro vi s i o n s
of
s u bcl au s e
9. 7
of
th i s
s tan d ard .
•
Th e
1 1 .4.2 Al l to
co n tro l
g ear s h al l
n o t re p l y to
th e
i n s tru cti o n .
RESET
va ri ab l e s co m m an d s
s h al l no
be
ch an g e d
l ate r th an
300
to
th e i r
ms
re s e t
afte r th e
va l u e s .
C o n tro l
e xe cu ti o n
o f th e
g e ar
sh al l
i n s tru cti o n
s tart h as
to
re act
been
p ro p e rl y
s tart e d .
– 58
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
I f d u ri n g
a re s e t m ai n s
R e fe r to
s u bcl au s e
1 1 .4.3
STORE ACTUAL LEVEL IN DTR0
“actualLevel”
Th e
1 1 .4.4 Th e
co n tro l
p a rts
co n tro l s ta rt
i n s tru cti o n
D u ri n g
an d
be
s h al l Th i s
Tab l e
s to re d
n o t g u ara n te e d
1 4
is
co m p l e te d .
fo r fu rth e r i n fo rm ati o n .
“DTR0”
in
th at “ R E S E T”
.
might
re act
h as
been
th e
of
b as e d
th e
As
might
th e re
of
on
is
not
re act
th i s
to
al l
vari ab l e s
ap pl i cati o n
sh al l
“targetLevel”
re co m m e n d e d
co n tro l
be
to
co m m an d s
co m m an d s
co m m an d ,
o u tp u t
wri te - c yc l e s
re acti o n ,
al l
i d e n ti fi e d
e xte n d e d
in
Tab l e
N VM
1 4
as
vari a b l e s
n o n - vo l a ti l e
d e fi n e d
in
th e
no
afte r
e xecu ti o n
l ate r
th an
300
of
th i s
ms
com m an d .
afte r
th e
C o n tro l
e xe cu ti o n
g e ar
of
th e
s tart e d .
light
co m m an d
n u m ber
s to re
i n cl u d e
p ro p e rl y
p ro ce s s i n g
co m m an d ,
p h ys i cal l y
s h al l
2 xx.
g ear to
co m pl e te d ,
Th i s
s h al l
g e ar
( N VM ) .
appl i cabl e
Th e
9. 1 1 . 1
it is
SAVE PERSISTENT VARIABLES
m e m o ry
sh al l
p o we r fai l s ,
CSV 201 8
of
to
light
th e
th e
be
sh ou l d
arte facts ,
th e
at
an d
p e rs i s t e n t
d e vi c e s
vi s u al
be
u sed
l i m i t th e
is
as
tra n s i t i o n
an d
u se
m ay
afte r
due
to
o f th i s
re c o m m e n d e d
fl u ctu ate .
e xpe cte d
th at was
typ i cal l y
m e m o ry
it
o u tp u t
l e ve l
b e fo re
ac t i ve
Afte r th e
fac t
of
is
th i s
( i f an y) .
co m m i ss i o n i n g .
th e
pro ce s s i n g
e xe cu ti o n
th at
Due
th e re
to
might
th e be
a
l i m i te d vi s i b l e
co m m an d .
to
u se
th i s
co m m an d
onl y
d u ri n g
th e
o ff
s tate .
R e fe r to
Tab l e
1 4
1 1 .4.5
SET OPERATING MODE ( DTR0 )
“operatingMode” If
“DTR0”
does
an d
su bcl au se
s h al l
not
be
set
9. 1 7
“DTR0”
co rre s p o n d
to
fo r fu rth e r i n fo rm ati o n .
.
an
i m p l e m e n te d
o p e ra ti n g
mode,
th e
co m m an d
s h al l
be
d i s ca rd e d .
R e fer to
su bcl au s e
1 1 .4.6
RESET MEMORY BANK ( DTR0 )
Th e as
co m m an d
s h al l
fo r fu rth e r i n fo rm at i o n .
tri g g e r th e
pro ce ss
to
ch an g e
th e
m e m o ry b an k co n te n t
to
i ts
re s e t val u e s
fo l l o ws :
•
if
“DTR0”
be
•
in
=
0:
al l
i m pl e m en te d
an d
u n l o c ke d
m e m o ry
b a n ks
e xcept
m e m o ry
ban k
0
s h al l
re s e t
al l
o th e r
cas e s :
i m pl e m e n te d
A
9. 9
m e m o ry
ban k
an d
th e
m e m o ry
b an k
i d e n ti fi e d
by
“DTR0”
s h al l
be
re s e t
p ro vi d e d
it
is
u n l o c ke d
n eeds
to
be
u n l o c ke d
to
al l o w
bo th
l o c ka b l e
an d
n o n - l o c ka b l e
l o cati o n s
to
be
re s e t.
C o n tro l th e
g e ar sh al l
i n s tru c ti o n
R e fe r to
s tart to
h as
s u bcl au s e
been
re ac t p ro p e rl y to
co m m an d s
s tarte d .
9. 1 1 . 2
fo r fu rt h e r i n fo rm a ti o n .
no
l ate r th an
1 0
s
afte r th e
e xe cu ti o n
of
I EC
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© I EC
1 1 .4.7 Th e
CSV
– 59
–
201 8
IDENTIFY DEVICE
co n tro l
p ro ce d u re p ro ce s s
g e ar
sh al l
fro m
sh al l
ru n
an y
i d e n ti fi cati o n
s tart
wh i ch
d e vi ce s
s h al l
(of
i d e n ti fi cati o n
Wh e re
ap p ro p ri a te ,
vari ab l e s
en ded,
th e re
si de
Wh e n
“
is
actualLevel
I d e n ti fi c ati o n I N I TI ALI S E
Wh i l e
no
no
i d e n ti fi cati o n
M AX an d
(
re s tart
th e
an
a
1 0
s
o b s e rve r
sam e
typ e )
±1 to
s
ti m e r.
Wh i l e
d i s ti n g u i sh
wh i ch
a re
not
th e
an y
ti m er
co n tro l
ru n n i n g
i t.
If
is
g ear th e
ru n n i n g , ru n n i n g
ti m e r
a
th i s
e xpi re s ,
s to p .
D u ri n g
are
or
e n abl es
s h al l
device
vari ab l e s
bei n g
be
),
be
th e in
s to ppe d
is
affe cte d
e xce p t
i g n o re d ,
wh e n
so
e xpl i ci tl y
th at
afte r
th e
s tate d
o th e rwi s e .
i d e n ti fi cati o n
h as
l i g h t o u tp u t m ay be
at an y l e ve l
be twe e n
o ff an d
1 00
%,
MIN,
o th e r
th an
e ffe c t t e m p o rari l y i g n o re d .
i m m e d i ate l y
R E C ALL M I N
i d e n ti fi cati o n
be
te m p o rari l y
e ffe cts .
acti ve ,
”
sh al l
can
ac ti ve ,
LE VE L,
th e
u pon
e xecu ti o n
of
an y
i n s tru cti o n
R E C AL L M AX L E VE L o r I D E N TI F Y D E VI C E .
co n tro l
g ear
s h al l ,
” an d
“
wi th o u t
i n te rru p t i n g
th e
i d e n ti fi cati o n
p ro ce d u re :
•
on
R E C ALL M I N
•
on
R E C ALL M AX LE VE L:
Wh e n
i d e n ti fi cati o n
can ce l l e d
Afte r
actualLevel
I d e n ti fi c ati o n th e
is
i m m e d i ate l y
i d en ti fi cati o n
re fl e ct “
LE VE L:
can
.
be
u sed
p a rt i c u l ar i d e n ti fi e d
Th e
i n d i cati o n
au d i bl e
can
m ean s .
d e scri be d
in
N OTE
appl i cati o n
Th e
be
Th e
th e
th e
actualLevel
by
sto pped ,
an d
actualLevel
set “
s to ppe d
h as ”
set “
th e
d u ri n g
d e vi ce
done
e xact
to
e. g .
by
pro ce ss
•
if
•
in
If
as
be
targetLevel
co n t ro l l e r,
s h al l
be
e xe cu te d
in
th at
”
“
to
th e
minLevel “
”;
maxLevel
”.
c o rre s p o n d i n g
ad j u s ted
as
q u i c kl y
ti m er
as
s h al l
possi bl e
be
to
( i f appl i cabl e ) .
it
al l o ws
th e
i n s tal l e r
to
e. g .
al l o cate
g ro u p .
fl as h i n g
a
u sed
i d e n ti fy
to
” to
LE D ,
by is
p ro d u c i n g
a
sou n d
m an u factu re r
or
s pe ci fi c
o th e r an d
vi s u al
sh ou l d
or be
m an u al .
c o n tro l l e r
be
9. 1 4. 3
can
al s o
SET MAX LEVEL ( DTR0 )
if
o u tp u t
s h al l
co m m i ss i o n i n g
1 1 .4.8
•
light
“
a p a rt i c u l ar d e vi ce
s u bcl au s e
sh al l
an d
ap p l i cati o n
co m m an d
R e fe r to
“maxLevel”
an
”
targetLevel
s to p
th e
i d e n ti fi cati o n
p ro c e s s
using
a
“RE S E T”
com m an d .
fo r fu rth e r i n fo rm at i o n .
s e t to :
“minLevel” ≥ “DTR0” “minLevel” :
“DTR0” al l
a
=
M AS K:
o th e r cas e s :
re s u l t
cal cu l ate d
on
of
0 xFE
“DTR0”
s e tti n g
th e
basi s
s tart i m m e d i ate l y an d
a of
th e
m ax
s u b cl au s e
1 1 .4.9
SET MIN LEVEL ( DTR0 ) s h al l
be
l e ve l .
Th e
l i g h t o u tp u t s h al l
R e fe r to
“minLevel”
9. 7. 2
n ew
“maxLevel”
“actualLevel” tran s i ti o n be
ad j u s te d
fo r fu rth e r i n fo rm a ti o n .
s e t to :
>
fro m as
“maxLevel” “targetLevel” “actualLevel” “targetLevel” ,
sh al l
to
q u i c kl y as
possi bl e.
be
s h al l
– 60
–
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•
i f 0 ≤ “DTR0” ≤ PH M : PH M
•
if
•
in
“DTR0” ≥ “maxLevel” al l
If
“
”
>
0
s h al l
to
possi bl e.
an d
be
as
a
re s u l t
cal cu l ate d
s h al l
R e fe r to
“maxLevel”
o r M AS K:
“DTR0”
o th e r cas e s :
actualLevel “targetLevel” “targetLevel”
CSV 201 8
be
on
of th e
i m m e d i ate l y
s u b cl au s e
9. 7. 2
s e tti n g b as i s an d
a
new
min
“minLevel”
of
th e
light
“actualLevel”
l e ve l .
o u tpu t
Th e
tra n s i t i o n
sh al l
be
“minLevel” “actualLevel”
<
fro m
ad j u s ted
,
as
q u i c kl y
as
fo r fu rt h e r i n fo rm a ti o n .
1 1 .4.1 0 SET SYSTEM FAILURE LEVEL ( DTR0 ) “systemFailureLevel” R e fe r to
s u bcl au s e
sh al l
9. 1 2
be
“DTR0”
s e t to
.
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 1 SET POWER ON LEVEL ( DTR0) “powerOnLevel” R e fe r to
s h al l
s u bcl au s e
be
9. 1 3
“DTR0”
set to
.
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 2 SET FADE TIME ( DTR0 ) Th e
“fadeTime” “DTR0”
•
if
•
in
If
“
is
is
a
n ew
b e fo re
not
ti m e
s e t to
a va l u e
acco rd i n g
to
th e
fo l l owi n g
s te ps :
1 5
“DTR0”
e q u al
e q u al
fad e
th e
R e fe r to
1 5:
be
o th e r cas e s :
fadeTime” fadeTime”
If “
al l
>
sh al l
to
is
to
th e
s to re d
n e w val u e
s u bcl au s e s
0,
is
0,
fad e
d u ri n g
u sed
9. 5,
th e
e xte n d e d
in
9. 7. 3,
th e
a
ti m e
fad e
ru n n i n g
fo l l o wi n g
1 1 . 4. 1 4
an d
s h al l
ti m e
be
s h al l
fad e
cal cu l ate d be
on
th e
b as i s
of
“fadeTime”
.
If
u sed.
p ro c e s s ,
th i s
p ro ce s s
s h al l
be
fi n i s h e d
fi rs t
fad e .
1 1 . 7. 1 9
fo r fu rt h e r i n fo rm a ti o n .
1 1 .4.1 3 SET FADE RATE ( DTR0) Th e
“fadeRate” “DTR0”
•
if
•
if
•
in
Th e
“DTR0” al l
in
th e
>
1 5:
=
0:
rate
fo l l o wi n g
s e t to
a va l u e
acco rd i n g
to
th e
fo l l o wi n g
s te ps :
1 5
1
s h al l
a ru n n i n g
R e fe r to
be
o th e r cas e s :
fad e
d u ri n g
sh al l
“DTR0”
be
fad e
cal cu l ate d
p ro c e s s ,
th i s
on
th e
p ro ce s s
bas i s
of
s h al l
be
“fadeRate” fi n i sh e d
.
If
a
new
fi rs t b e fo re
fad e
th e
ra te
is
n e w va l u e
s to re d is
u sed
fad e .
s u bcl au s e
9. 5
an d
9. 7. 3
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 4 SET EXTENDED FADE TIME ( DTR0) Th e
“extendedFadeTimeBase”
acc o rd i n g
•
If “
–
to
DTR0” “
th e
>
fo l l o wi n g
0 x4F (0 1 00
an d
“
extendedFadeTimeMultiplier
s te ps :
1 1 1 1 b) :
extendedFadeTimeBase
”
s h al l
be
s e t to
0;
”
s h al l
be
set
to
a
val u e
I EC
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© I EC
–
“
extendedFadeTimeMultiplier
E f fe c t i ve l y s e l e c t i n g
•
Fo r al l
• If
–
“
–
“
as
ti m e
fad e
th e
s h al l
ti m e
is
co m m an d
by s e l e cti n g
is
”
s h al l
0
R e fe r to
set to
0.
possi bl e.
of
sh al l
be
in
a
th e
s e t to
be
AAAAb
set to
YYYb
b y m u l ti pl yi n g
ru n n i n g
fo l l o wi n g
fad e
“DTR0” = xxxxAAAAb;
wh e re
th e
wh e re
b as e
p ro c e s s ,
“DTR0” = xYYYxxxxb.
va l u e
an d
th e
th i s
pro ce s s
e ach
sce n e .
m u l ti pl i e r.
s h al l
be
fi n i sh e d
fi rs t
fad e .
sceneX)
co m pri s e s
=
opcod e
9. 1 9
1 6
c o n s e c u ti ve
“SET SCEN E
s e t to
s u bcl au s e
be
fo r fu rth e r i n fo rm a ti o n .
actu al l y
sceneNumber
“sceneX”
be
” s h al l
d u ri n g
u sed
a bl o ck o f 1 6
e xe cu ti o n
o pco d e :
” s h al l
cal cu l ate d
s to re d
n e w val u e
s u bcl au s e
be
1 1 .4.1 5 SET SCENE ( DTR0,
U pon
–
o th e r cas e s :
fad e
R e fe r to
Th i s
– 61
q u i c kl y a s
extendedFadeTimeMultiplier
new
b e fo re
a fad e
extendedFadeTimeBase
Th e
a
CSV
201 8
(
DTR0, sceneX
) ”,
– 0 x4 0 .
“DTR0”
co m m an d s ,
one
fo r
Th i s
is
acco m p l i s h e d
o pco d es .
Th i s
th e
scen e
i d e n ti fi e s
th e
“
n u m ber
sceneX”
to
sh al l be
be
d e ri ve d
fro m
th e
u sed.
.
fo r fu rth e r i n fo rm ati o n
1 1 .4.1 6 REMOVE FROM SCENE ( sceneX) Th i s
co m m an d
by s e l e cti n g
U pon th e
actu al l y
e xe cu ti o n
opcod e:
“sceneX”
co m pri s e s
a bl o ck o f 1 6
o f “R E M OVE
sceneNumber
sh al l
be
set
to
1 6
c o n s e c u ti ve
=
FR OM
o pco d e
M AS K.
co m m an d s ,
SCEN E
– 0 x50 .
Th i s
one
fo r
e ach
sce n e .
Th i s
is
acco m p l i s h e d
o pco d es .
(
sceneX
),
Th i s
e ffe cti ve l y
th e
i d e n ti fi e s
re m o ve s
sce n e th e
th e
“
n u m be r s h al l
sceneX”
co n tro l
to
be
g e ar
be
d e ri ve d
fro m
u sed.
as
m em ber
fro m
th e
sce n e .
Re fer to
su bcl au s e
9. 1 9
fo r fu rth e r i n fo rm ati o n .
1 1 .4.1 7 ADD TO GROUP ( group ) Th i s
co m m an d
se l e cti n g
U pon
group
bi t[
actu al l y
a bl ock o f 1 6
e xe cu ti o n =
opco d e
group
]
of
of
co m p ri s e s
“ AD D
– 0 x6 0 .
TO
Th i s
“gearGroups”
m e m be r o f th i s
1 6
co n s e cu ti ve
co m m an d s ,
G ROU P
i d en ti fi e s
sh al l
one
fo r e ach
g ro u p .
Th i s
is
acco m p l i s h e d
by
o pco d e s .
be
(
group group group ) ”,
th e
set
to
to
be
TR U E .
sh al l
be
d e ri ve d
fro m
th e
opcod e:
u sed .
Th i s
i m pl i es
th at
th e
co n tro l
g e ar
is
a
g ro u p .
1 1 .4.1 8 REMOVE FROM GROUP ( group ) Th i s
co m m an d
se l ecti n g
U pon
group
actu al l y co m p ri s e s
a bl o ck o f 1 6
e xe cu ti o n =
o pco d e
o f “R E M OVE – 0 x70 .
1 6
c o n s e c u t i ve
Th i s
co m m an d s ,
one
fo r e ach
g ro u p .
Th i s
is
acco m pl i s h e d
by
o pco d es .
FR OM
group group
G ROU P
i d e n ti fi e s
th e
(
to
) ”,
be
group u sed.
s h al l
be
d e ri ve d
fro m
th e
o pco d e :
– 62
–
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bi t[
group
]
of
“gearGroups”
m e m be r o f th i s
sh al l
be
set
to
F ALS E .
Th i s
i m pl i es
th at
th e
co n tro l
g e ar
is
CSV 201 8
not
a
g ro u p .
1 1 .4.1 9 SET SHORT ADDRESS ( DTR0 ) “shortAddress” •
if
•
if
•
in
“DTR0” “DTR0” al l
s h al l
be
s e t to :
=
M AS K:
=
1 xxxxxxxb
o th e r cas e s
M AS K ( e ffe cti ve l y d e l e ti n g
or xxxxxxx0 b:
( 0 AAAAAA1 b ) :
no
th e
s h o rt ad d re s s ) ;
ch an g e ;
0 0 AAAAAAb .
1 1 .4.20 ENABLE WRITE MEMORY “writeEnableState” N OTE
Th e re
i n vo l ved
wi t h
R e fe r to
is
no
wri ti n g
sh al l
be
co m m an d i n to
s u bcl au s e
s e t to
to
m e m o ry
9. 1 0. 5
E N AB LE D .
e xpl i ci tl y b a n ks
d i sabl e
wi l l
m e m o ry
au to m ati cal l y
wri t e
set
acce ss ,
si n ce
“writeEnableState”
an y to
co m m an d
th at
is
n ot
d i re ctl y
D I S AB LE D .
fo r fu rth e r i n fo rm at i o n .
1 1 .5 Queries 1 1 .5.1
General
Q u e ri e s
are
u sed
to
th e
U n l ess
e xp l i ci tl y s tate d
•
Th e
Wh e n
in
1 1 .5.2 Th e
q u e ry s h al l
appl i cabl e ,
“DTR1 ” g i ve n
q u e ri e d
re tri e ve
re tu rn s
an d
be
th e
“DTR2”
Tabl e
pro p e rty
p ro p e r t y va l u e
)
o th e rwi s e
i g n o re d
q u e ry are
in
in
i f so
s h al l
o u ts i d e
val u e s
fro m
a b a c kw a r d
th e
d e s cri p ti o n
re q u i re d
be th e
b y th e
d i s card e d ran g e
of
be
th e
wh i ch
is
fo rm e d
1 1 .5.3
QUERY CONTROL GEAR PRESENT
an s we r s h al l
Th e
Th e
ad d re s s e d
if
o f a p arti cu l ar q u e ry,
p ro vi s i o n s
an y
va l i d i t y
of of
th e th e
th e
o f s u bcl au s e
p aram e te r ad d re s s e d
be
b y a co m b i n ati o n
co n t ro l
fo l l o wi n g
g e ar
hol ds:
9. 7.
va l u e s d e vi c e
o f co n tro l
(i n
“DTR0”
vari ab l e s ,
g e ar p ro p e rt i e s .
fo r fu rth e r i n fo rm ati o n .
YE S .
be
YE S
if
“controlGearFailure”
is
TR U E
an d
NO
o th e rwi s e .
QUERY LAMP FAILURE
an s we r s h al l
1 1 .5.6
Th e
QUERY CONTROL GEAR FAILURE
an s we r s h al l
1 1 .5.5
9. 1 6
s tatu s ,
s u bcl au s e
Th e
g e ar.
QUERY STATUS
an s we r s h al l
1 1 .5.4
co n tro l
1 4.
R e fe r to
Th e
a
fra m e .
be
YE S
if
“lampFailure”
is
TR U E
an d
NO
o th e rwi s e .
QUERY LAMP POWER ON
an s we r s h al l
be
YE S
if
“lampOn”
is
TR U E
an d
NO
o t h e rwi s e .
,
as
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© I EC
1 1 .5.7 Th e
an s we r s h al l
–
be
an s we r s h al l
be
if
“limitError”
is
TR U E
an d
NO
o th e rwi s e .
YE S
if
“resetState”
is
TR U E
an d
NO
o th e rwi s e .
QUERY MISSING SHORT ADDRESS
an s we r s h al l
N OTE
YE S
QUERY RESET STATE
1 1 .5.9 Th e
– 63
QUERY LIMIT ERROR
1 1 .5.8 Th e
CSV
201 8
Si n ce
b ro ad cas t
th e
mode
be
YE S
co n tro l
or if
g ear
g ro u p
if
“shortAddress”
an s we rs
ad d re s s i n g
onl y is
if
no
is
eq u al
s h o rt
to
a d d re s s
is
M AS K a n d
s to re d ,
th e
NO
use
of
o th e rwi s e .
th e
co m m an d
is
u sefu l
onl y
in
u sed.
1 1 .5.1 0 QUERY VERSION NUMBER Th e
an s we r s h al l
R e fer to
C l au s e
be
th e
4 an d
co n te n t o f m e m o ry ban k 0
Tab l e
9
l o cati o n
0 x1 6 .
fo r fu rth e r i n fo rm at i o n .
1 1 .5.1 1 QUERY CONTENT DTR0 Th e
an s we r s h al l
“DTR0”
be
.
1 1 .5.1 2 QUERY DEVICE TYPE Th e
an s we r s h al l
•
if no
•
i f on e
•
i f m o re
Th e
be:
P art 2 xx i s
d e vi ce
co d i n g
th an
i m pl e m e n te d :
t y p e /f e a t u r e
one
o f th e
d e vi c e
d e vi ce
is
254;
s u p p o rte d :
t y p e /f e a t u r e
t y p e s /f e a t u r e s
is
th e
d e vi ce
s u p po rte d :
sh al l
be
as
t y p e /f e a t u r e
n u m be r;
M AS K.
s pe ci fi e d
in
th e
p arti cu l ar P arts
2 xx
of I EC
62386.
R e fe r to
s u bcl au s es
9. 1 8
an d
1 1 . 5. 1 3
fo r fu rth e r i n fo rm ati o n .
1 1 .5.1 3 QUERY NEXT DEVICE TYPE Th e
•
an s we r s h al l
if
d i re ctl y
pre ce d e d
s u ppo rte d :
•
if
d i re ctl y
h a ve
• •
if
th e
p re c e d e d
re p o rte d :
in
o th e r cas e s :
Th e byte .
s e q u e n ce
of
by
TYP E ” ,
an d
t y p e /f e a t u r e
“Q U E R Y N E XT D E VI C E
th e
n e x t l o we s t d e vi c e
m o re
th an
one
d e vi ce
t y p e /f e a t u r e
is
d e vi c e
t y p e s /f e a t u r e s
n u m be r;
TYP E ” ,
t y p e /f e a t u r e
“QU E R Y N E XT D E VI C E
T YP E ” ,
an d
not
al l
n u m b e r;
an d
al l
d e vi ce
t y p e s /f e a t u r e s
h a ve
N O.
co m m an d s
s u bcl au s e
s h al l
tra n s m i tte rs
t y p e s /f e a t u r e s
R e fe r to
l o we s t d e vi ce
254;
M u l ti - m as te r
d e vi c e
“QU E R Y D E VI C E
by
re p o rt e d :
been
al l
by
fi rs t an d
pre ce d e d
been
d i re ctl y
be:
s h al l
9. 1 8
be
an d
on l y
s h al l
as
be
sen d
s pe c i fi e d
1 1 . 5. 1 2
acce p te d
s u ch in
as
l on g
se q u e n ce
th e
as
as a
p arti cu l ar P arts
fo r fu rth e r i n fo rm ati o n .
th e y
u se
t ran s ac ti o n . 2 xx o f I EC
th e
s am e
Th e
ad d re s s
co d i n g
62386.
of
th e
– 64
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
1 1 .5.1 4 QUERY PHYSICAL MINIMUM Th e
an s we r s h al l
be
PH M .
1 1 .5.1 5 QUERY POWER FAILURE Th e
an s we r s h al l
be
YE S
if
“powerCycleSeen”
is
TR U E
an d
NO
o th e rwi s e .
1 1 .5.1 6 QUERY CONTENT DTR1 Th e
an s we r s h al l
“DTR1 ”
be
.
1 1 .5.1 7 QUERY CONTENT DTR2 Th e
an s we r s h al l
“DTR2”
be
.
1 1 .5.1 8 QUERY OPERATING MODE Th e
an s we r s h al l
R e fe r to
“operatingMode”
be
s u bcl au s e
9. 9
.
fo r fu rth e r i n fo rm a ti o n .
1 1 .5.1 9 QUERY LIGHT SOURCE TYPE Th e
an s we r s h al l
be
th e
n u m ber o f th e
l i g h t s o u rce
type
g i ve n
in
Tab l e
1 7.
Table 1 7 – Light source type encoding Type of l i g h t sou rce
Encodi ng
Lamp fai l ure detecti on Open ci rcu i t (Lamp di sconnected)
Low
p re s s u re
fl u o re s ce n t
HID
Low
2
vo l t ag e
h al o g e n
3
I n can d e s ce n t
4
LE D
6
OLE D
Oth er
7
th an
U n kn o wn
No
light
l i sted
light
light
above
s o u rc e
s o u rc e
M u l ti pl e
252
typ e
b
253
b
c
d
e
Te s ti n g
type s
See
in
u sed
cas e s
done
in
th e
wh e re
typ e ,
th e
wi t h
cas e
no
light
of
light
s u p p o rt e d
an s we re d
D TR 1
l i g h t s o u rce
Wh e n "no
on
M AS K i s
s o u rce th i rd
d
d
d
5,
e
[8, 251 ]
o u tpu t
si g n al
e
of
at
l e as t
c o n ve rs i o n ,
s o u rc e
is
5
%.
fo r e xam pl e
co n n ected ,
fo r
1
V
e xam pl e
a
to
1 0
V.
re l ay.
9. 1 6. 3.
D epen di n g
Wh e n
be
M AS K
1 ,
Typ i cal l y
U sed
a
a
254
so u rce
s h al l
a
a
d
c
R e s e rve d
a
0
Sh ort circu i t
th e
s o u rc e
type s .
co n te n t
re pre s e n t
o f D TR 0
th e
s e co n d
s h al l
co n tai n
l i g h t s o u rce
a
val u e
type ,
an d
re p re s e n ti n g D TR 2
s h al l
th e
fi rs t
light
re p re s e n t
th e
typ e .
e xactl y two
l i g h t s o u rce " .
sh al l
light
d i ffe re n t
l i g h t s o u rce
type s
are
avai l ab l e ,
D TR 2
s h al l
co n tai n
254,
i n d i cati n g
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
201 8
Wh e n
m o re
th an
th re e
CSV
– 65
d i ffe re n t l i g h t s o u rce
–
type s
are
avai l ab l e ,
D TR 2
s h al l
co n tai n
255.
1 1 .5.20 QUERY ACTUAL LEVEL Th e
an s we r s h al l
be:
“actualLevel”
•
if
•
In
al l
d u ri n g
–
no
s tartu p :
light
0 x0 0
(see
al so
9. 1 3) ;
al l
M AS K;
o u tpu t
e xpe cte d :
in
0 x0 0 :
o th e r cas es :
–
–
=
(e. g .
due
to
to tal
l am p
fai l u re ,
co n tro l
g ear
fai l u re )
wh i l e
light
o u tp u t
is
M AS K;
“actualLevel”
o th e r cas e s :
.
1 1 .5.21 QUERY MAX LEVEL Th e
an s we r s h al l
be
“maxLevel”
.
1 1 .5.22 QUERY MIN LEVEL Th e
an s we r s h al l
be
“minLevel”
.
1 1 .5.23 QUERY POWER ON LEVEL Th e
an s we r s h al l
R e fer to
be
su bcl au s e
“powerOnLevel”
9. 1 2
.
fo r fu rth e r i n fo rm ati o n .
1 1 .5.24 QUERY SYSTEM FAILURE LEVEL Th e
an s we r s h al l
R e fe r to
be
s u bcl au s e
“systemFailureLevel”
9. 1 2
.
fo r fu rth e r i n fo rm ati o n .
1 1 .5.25 QUERY FADE TIME/FADE RATE Th e
an s we r
“fadeRate”
s h al l
be
X X X X YYYYb ,
wh e re
XXXXb
“fadeTime”
e q u al s
an d
YYYYb
eq u al s
.
1 1 .5.26 QUERY EXTENDED FADE TIME Th e
an s we r
YYYYb
s h al l
e q u al s
“
be
0
X X X YYYYb ,
extendedFadeTimeBase
wh e re
XXXb
eq u al s
“
extendedFadeTimeMultiplier
”
an d
an d
NO
”.
1 1 .5.27 QUERY MANUFACTURER SPECIFIC MODE Th e
an s we r
s h al l
be
YE S
“operatingMode”
wh e n
is
in
th e
ran g e
[0 x80 , 0 xFF]
o t h e rwi s e .
1 1 .5.28 QUERY SCENE LEVEL ( sceneX) Th i s
co m m an d
by s e l e cti n g
U pon th e
Th e
e xe cu ti o n
opcod e:
actu al l y
co m pri s e s
a bl o ck o f 1 6
of
“QU ERY SCEN E
sceneNumber
an s we r s h al l
1 6
c o n s e c u ti ve
be
=
o pco d e
“sceneX”
.
co m m an d s ,
one
fo r
e ach
sce n e .
Th i s
is
acco m p l i s h e d
o pco d es .
LE VE L (
– 0 xB0 .
sceneX
Th i s
) ”,
th e
i d e n ti fi e s
scen e th e
“
n u m ber
sceneX”
to
s h al l be
be
d e ri ve d
u sed.
fro m
– 66
R e fe r to
s u bcl au s e
9. 1 9
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
CSV
© I EC
201 8
bi t
e ach
fo r fu rth e r i n fo rm ati o n .
1 1 .5.29 QUERY GROUPS 0-7 Th e
an s we r s h al l
be
Th e
m e m b e rs h i p
of
g ro u p .
“0 ”
s h al l
g ro u p .
B i t[
X
]
be
sh al l
“gearGroups[7:0]” g ro u ps
0-7
i n te rp re te d
s h al l
as
.
be
n ot a
re p re s e n te d
m e m be r,
re p re s e n t m e m b e rs h i p
an d
o f g ro u p
X
,
as “1 ”
an
8-bi t
s h al l
wh e re
be
X
is
val u e ,
wi th
i n te rp re te d
in
th e
ran g e
one
as
fo r
m e m be r o f th e
[0 , 7 ] .
1 1 .5.30 QUERY GROUPS 8-1 5 Th e
an s we r s h al l
be
Th e
m e m b e rs h i p
of
g ro u p .
“0 ”
sh al l
g ro u p .
B i t[
X
]
be
s h al l
“gearGroups[1 5:8]” g ro u p s
8-1 5
i n t e rp re te d
s h al l
as
.
be
not a
re p re s e n te d
m e m be r,
re p re s e n t m e m b e rs h i p
an d
o f g ro u p
X
as
“1 ”
+8,
an
8-bi t
s h al l
be
X
wh e re
val u e ,
wi th
i n te rp re te d is
in
th e
on e
as
ran g e
bi t
fo r
each
m e m be r o f th e [0 , 7] .
1 1 .5.31 QUERY RANDOM ADDRESS (H) Th e
an s we r s h al l
“randomAddress[23:1 6]”
be
.
1 1 .5.32 QUERY RANDOM ADDRESS (M) Th e
an s we r s h al l
“randomAddress[1 5:8]”
be
.
1 1 .5.33 QUERY RANDOM ADDRESS (L) Th e
an s we r s h al l
“randomAddress[7:0]”
be
.
1 1 .5.34 READ MEMORY LOCATION ( DTR1, DTR0) Th e
If
q u e ry s h al l
e xe cu te d ,
wi th i n
Th e
If
1
th e
th e
d i s card e d
an s we r
Th i s
g e ar s h al l
al l o ws
ad d re s s e d
h ol es
i f th e
s h al l
“DTR1 ”
m e m o ry b an k
co n tro l
N OTE
be
be
th e
l o cati o n
th e
co n te n t
i f th e
m e m o ry
is
m e m o ry b an k i s
of
th e
n o t i m pl em en ted .
m e m o ry
l o cati o n
i d e n ti fi e d
by
“DTR0”
.
an s we r N O
in
ad d re s s e d
ad d re s s e d
m e m o ry l o cati o n
is
n o t i m pl e m e n te d .
ban k i m pl e m e n tati o n .
bel ow
l o cati o n
0 xFF,
th e
co n t ro l
g ear
s h al l
i n cre m e n t
“DTR0”
by
one.
N OTE
2
R e fe r to
Th i s
al l o ws
e ffi ci e n t
s u bcl au s e
9. 1 0
m u l ti - byte
re ad i n g
wi t h i n
a
tran s acti o n .
fo r fu rth e r i n fo rm ati o n .
1 1 .6 Application extended commands 1 1 .6.1
General
“ E N AB LE to
co m m an d
If
D E VI C E
en abl e
th e
“E N AB LE
“ E N AB L E
e xte n d e d
T YP E
co rre c t
data
D E VI C E
D E VI CE
com m an d
(
T YP E
is
)”
d e vi c e
(
sh al l
TYP E
data
acce p te d ,
be
e xe cu te d
t y p e /f e a t u r e
)”
(
is
th e
data
)”
be fo re
co m m an d
an d
an
s e t.
appl i cati o n For
fu rth e r
e xte n d e d
co m m an d
re q u i re m e n ts ,
see
1 1 . 7. 1 4.
d i s card e d appl i cati o n
or
not
re c e i ve d
exten d e d
d i re c tl y
co m m an d
b e fo re
sh al l
be
an
ap pl i cati o n
d i s card e d .
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
Th e
CSV
– 67
–
201 8
d e fi n i ti o n
o f th e
e xte n d e d
co m m an d s
is
p art o f th e
R e fe r to
9. 1 8
1 1 .6.2
QUERY EXTENDED VERSION NUMBER
Th e
an s we r
d e vi c e
Th e
s h al l
an s we r s h al l
i f th e
•
if
be
th e
R e fe r to
th e
as
ve rs i o n
an
n u m ber
of
P a rt
2 xx
of
th i s
n o t i m pl e m en te d :
N O;
s tan d ard
fo r
th e
c o rre s p o n d i n g
8 - b i t n u m be r.
be:
en abl ed
d e vi ce
e n ab l e d
d e vi c e
s p e c i fi c s ta n d a rd s .
fo r fu rth e r i n fo rm a ti o n .
t y p e /f e a t u r e
•
app l i cati o n
t y p e /f e a t u r e
d e vi c e
t y p e /f e a t u r e
s u bcl au s e
is
t y p e /f e a t u r e
is
s u p p o rte d :
th e
ve rs i o n
n u m ber
bel on g i n g
to
th e
n u m b e r.
9. 1 8
fo r fu rth e r i n fo rm ati o n .
1 1 .7 Special commands 1 1 .7.1 Al l
General
s p e ci al
m od e
co m m an d s
s h al l
be
i n t e rp re te d
as
i n s tru c ti o n s
u n l ess
e xpl i ci tl y
s tated
o th e rwi s e .
1 1 .7.2 Th e
•
TERMINATE
fo l l o wi n g
pro ce s s e s
I n i ti al i s ati o n ,
•
“
Th e
co m m an d
wh e th e r LE VE L)
cou l d
R e fe r to
s u bcl au s e
1 1 .7.3
DTR0 ( data )
“DTR0”
sh al l
be
al s o
9. 1 4. 2
s e t to
1 1 .7.4
INITIALISE ( devic e )
i n s tru cti o n
s tate d
On l y in
in
d e vi ce s
Tab l e
s h al l
IEC
s h al l
as
be
i m m e d i ate l y u po n
s e t to
p art
a s tan d ard
e xe cu ti o n
data
be
D I S AB LE D .
of
i n i ti al i s ati o n
o p e rati o n
o th e r pro ce s s e s
(u si ng
R E C AL L M AX L E VE L ,
( I D E N TI F Y D E VI C E )
as
i d e n ti fi ed
in
th e
th e
u n l ess
an d
g i ve n
it
device
Devi ce
is
acce p te d
twi ce
s h al l
re s p o n d
to
Responsi ve d evi ce(s)
00000000b
Al l
Oth er
None
wi t h
“shortAddress”
g e ar wi th o u t
c o n tro l
s to ppe d .
acc o rd i n g
g e ar s h al l
e q u al
“shortAddress” re act
to
th e
re q u i re m e n ts
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 , 9 . 4.
th e
i n s tru cti o n ,
Table 1 8 – Device addressing with “INITIALISE”
C o n tro l
be
.
d i s ca rd e d ,
m atch i n g
1 1 1 1 1 1 1 1 b
sh al l
r e l e va n t 2 x x p a rts .
1 8:
D e vi ce (s )
i n s tru c ti o n :
fo r fu rth e r i n fo rm ati o n .
62386-1 01 : 201 4
0 AAAAAA1 b
o f th i s
fo r fu rt h e r i n fo rm a ti o n .
g i ve n
9. 1 0
”
te rm i n a te
s u bcl au s e
Th i s
te rm i n a te d
s tarte d
o r as
R e fe r to
as
be
initialisationState
I d e n ti fi cati o n , R E C AL L M I N
s h al l
to
0 0 AAAAAAb
s h al l
re act
as
fo l l o ws
– 68
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
Th e
i n s tru cti o n
E N AB LE D
s h al l
i f i t was
s tart
R e fe r to
s u bcl au s e
1 1 .7.5
RANDOMISE
Th i s as
i n s tru cti o n
s tate d
Th e
in
i n s tru cti o n
I f e xe cu te d ,
9. 1 4. 2
s h al l
I EC
sh al l
th e
th e re
are
be
be
l og i cal
co n tai n e d
Th e re
th e
unit
sh al l
th e
be
bu s
no
s u bcl au s e
1 1 .7.6
COMPARE
q u e ry s h al l
I f e xe cu te d ,
•
if “
•
in
th e
co n tro l
o th e r cas e s :
s u bcl au s e
1 1 .7.7
WITHDRAW be
•
“randomAddress” i n s tru c t i o n
be
no
to
an s we r.
acce p te d
twi ce
acc o rd i n g
to
th e
re q u i re m e n ts
a ran d o m
val u e
wi th i n
an d
ad d re s s e s
th e
1 00
is
D I S AB LE D .
“randomAddress”
fo r ms
th e
not
bu s
fo u n d
,
in
th e
ran g e
of
for u s e .
i n s tru cti o n
wi th i n
th at
is
is
unit
in
e xecu te d sh al l
an y
of
be
th e
u si ng
b ro a d cas t
unique, o th e r
i. e.
e ve ry
l o g i cal
u n i ts
th i s
i n s tru cti o n .
fo r fu rth e r i n fo rm at i o n .
u n l ess
“initialisationState”
is
E N AB LE D .
an s we r:
”:
YE S ;
NO
“initialisationState”
th e
is
avai l ab l e
ad d re s s
g e ar s h al l
9. 1 4. 2
sh al l
it
p re s e n t
“
•
If
u n i ts
ran d o m
d i s card e d
”
i n s tru cti o n
“initialisationState”
s e tti n g
s h al l
u n i t.
R e fe r to
Th e
be
randomAddress ≤ searchAddress
al l
by
Th e re
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 , 9 . 4.
g e n e rate
ran d o m
9. 1 4. 2
be
s tate ,
ti m e r.
“initialisationState”
if
s h al l
l o g i cal
re p l y to
R e fe r to
Th e
sh al l
wh i ch
a
i n i ti al i sati o n
u n l ess
an d
d i s ca rd e d
h a ve
th e
( re - ) tri g g e r th e
d i s ca rd e d ,
g e n e ra te d
s h al l
in
an d
fo r fu rth e r i n fo rm a ti o n .
i n s tru cti o n
m u l ti pl e
ad d re s s i n g ,
p ro l o n g
62386-1 01 :201 4
[0 x0 0 0 0 0 0 , 0 xFFFFFE ]
If
or
D I S AB L E D
CSV 201 8
d i s card e d
is
is
fo r fu rth e r i n fo rm ati o n .
e q u al
eq u al
is
u n l ess
to
to
th e
fo l l o wi n g
E N AB LE D ,
co n d i ti o n s
hold:
an d
“searchAddress”
e xe cu te d ,
th e
co n tro l
g e ar
sh al l
“initialisationState”
ch an g e
to
WI TH D R AWN .
B e fo re
wi th d rawi n g
usin g
“ P R O G R AM
N OTE
Th e
appl i cati o n no
an s we r
e ffe ct
is
co n tro l l e r ( f ro m
an y
a
co n tro l
g e ar,
th at to
th e
co n tro l
con d u ct
co n tro l
a
g e ar)
on
th e
s u bcl au s e
1 1 .7.8
SEARCHADDRH ( data )
i n s tru cti o n
9. 1 4. 2
g e ar
( b i n a ry)
R e fe r to
Th e
th e
S H O R T AD D R E S S
sh al l
be
is
(
appl i cati o n
data
e xcl u d e d
s e arch
co n tro l l e r
m ay
ass i g n
it
a
f ro m
o pe rati o n
su bseq u en t a c ro s s
al l
“COM P AR E ”
d e vi ce s
u n ti l
o p e rat i o n s ,
th e
bu s.
if
“initialisationState”
is
e q u al
to
th u s
“COM P AR E ”
fo r fu rth e r i n fo rm at i o n .
d i s ca rd e d
s h o rt
ad d re s s ,
) ”.
D I S AB LE D .
al l o wi n g
q u e ry
th e
l ead s
to
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
I f e xe cu te d ,
“searchAddress[23:1 6]”
R e fer to
su bcl au s e
1 1 .7.9
SEARCHADDRM ( data )
Th e
CSV
– 69
–
201 8
i n s tru cti o n
I f e xe cu te d ,
R e fe r to
9. 1 4. 2
sh al l
be
d i s card e d
9. 1 4. 2
be
s e t to
th e
g i ve n
data
.
fo r fu rth e r i n fo rm ati o n .
“initialisationState”
if
“searchAddress[1 5:8]”
s u bcl au s e
sh al l
s h al l
be
s e t to
th e
is
e q u al
g i ve n
data
to
D I S AB L E D .
to
D I S AB L E D .
.
fo r fu rth e r i n fo rm at i o n .
1 1 .7.1 0 SEARCHADDRL ( data ) Th e
i n s tru cti o n
I f e xe cu te d ,
R e fe r to
sh al l
be
d i s ca rd e d
“searchAddress[7:0]”
s u bcl au s e
9. 1 4. 2
“initialisationState”
if
s h al l
be
s e t to
th e
is
g i ve n
e q u al
data
.
fo r fu rth e r i n fo rm a ti o n .
1 1 .7.1 1 PROGRAM SHORT ADDRESS ( data ) Th e
i n s tru cti o n
sh al l
be
•
“initialisationState”
•
“randomAddress”
I f e xe cu te d ,
•
if
•
if
•
in
data data al l
R e fe r to
is
d i s ca rd e d
is
e q u al
eq u al
“shortAddress”
=
M AS K:
=
1 xxxxxxxb
to
th e
E N AB LE D
fo l l o wi n g
hold:
an d
“searchAddress”
s h al l
be
s e t as
o r xxxxxxx0 b :
( 0 AAAAAA1 b ) :
9. 1 4. 2
co n d i ti o n s
o r WI TH D R AWN ,
fo l l o ws :
M AS K ( e ffe c ti ve l y d e l e t i n g
o th e r cas e s
s u bcl au s e
to
u n less
no
th e
s h o rt ad d re s s )
ch an g e
0 0 AAAAAAb .
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 2 VERIFY SHORT ADDRESS ( data ) Th e
If
q u e ry s h al l
e xe cu te d ,
th e
b y 0 AAAAAA1 b ,
R e fe r to
be
d i s card e d
an s we r an d
s u bcl au s e
NO
s h al l
“initialisationState”
if
be
YE S
if
is
e q u al
“shortAddress”
is
to
D I S AB L E D .
e q u al
to
0 0 AAAAAAb
fo r
data
g i ve n
o th e rwi s e .
9. 1 4. 2
fo r fu rth e r i n fo rm at i o n .
1 1 .7.1 3 QUERY SHORT ADDRESS Th e
q u e ry s h al l
be
d i s card e d
•
“initialisationState”
•
“randomAddress”
If
e xe cu te d ,
o r M AS K,
R e fer to
in
th e
is
is
“
su bcl au s e
e q u al
to
n o t eq u al
an s we r
cas e
i f:
sh al l
be
shortAddress 9. 1 4. 2
”
D I S AB L E D ,
to
or
“searchAddress”
0 AAAAAA1 b ,
e q u al s
.
wh e re
M AS K.
fo r fu rth e r i n fo rm ati o n .
“
shortAddress
”
is
eq u al
to
0 0 AAAAAAb ' ,
– 70
–
I EC
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CSV 201 8
1 1 .7.1 4 ENABLE DEVICE TYPE ( data ) Th i s
i n s tru c ti o n
co m m an d p re vi o u s
A
a
of
co n tro l
g e ar
co m m an d s co n tro l
Th e
a
is
th e
d e vi ce
val i d .
d e vi ce
n o n - app l i cati o n D E VI C E
T YP E
th at co m m an d
I EC
sel ect
1 1 . 6)
t y p e /f e a t u r e
E xe cu ti n g
t y p e /f e a t u r e .
fo r
“ E N AB LE Th e
wh i ch
th e
D E VI C E
se l ecti o n
is
n ext
T YP E
only
ap pl i cati o n
( d ata) ”
val i d
fo r
sh al l
th e
exten d e d
can ce l
n ext
an y
ap p l i cati o n
co m m an d .
“ E N AB LE an d
to
s e l e cti o n
exten d ed
If
s h al l
( re fe r
s h al l
data
if
sh al l
e xte n d e d
( d ata) ” ,
be
not
e q u al s
th e
e xe cu te d
re ac t
M AS K,
to
co m m an d of
th e
acco rd i n g
to
i ts
co m m an d s
254
is
e n abl i n g
afte r
t y p e /f e a t u r e
s h al l
e xe cu ti n g be
can ce l l e d
app l i cati o n
e xten d ed
s p e ci fi cati o n .
wh i ch
o r re p re s e n ts
accepted
d e vi ce
bel on g
a d e vi ce
to
th e
t y p e /f e a t u r e
n o t s u ppo rte d
by
th i s
g e ar.
d e vi ce
t y p e s /f e a t u r e s
s h al l
be
co d ed
as
s pe c i fi e d
i d e n ti fy
i n d i vi d u al
in
th e
p arti cu l ar
p arts
of
th e
6 2 3 8 6 - 2 xx se ri e s .
Ap p l i cati o n b e twe e n
co n tro l l e rs
th e
g e ar' s
sh ou l d
i n d i vi d u a l
be
abl e
ad d re s s
to
an d
th e
d e vi ce
g e ars
an d
t y p e s /f e a t u r e s
in
sto re
th e
re l a t i o n s h i p
a p e rs i s te n t m e m o ry.
1 1 .7.1 5 DTR1 ( data ) “DTR1 ” R e fe r to
sh al l
be
s e t to
s u bcl au s e
g i ve n
9. 1 0
data
.
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 6 DTR2 ( data ) “DTR2”
sh al l
be
s e t to
g i ve n
data
.
1 1 .7.1 7 WRITE MEMORY LOCATION ( DTR1 ,
DTR0, data
Th e
fo l l o wi n g
i n s tru cti o n
sh al l
be
•
th e
•
“writeEnableState”
N OTE wri t e
If
ad d re s s e d
1
Th i s
e n abl e
th e
i n s tru cti o n
i d e n ti fi e d
N OTE
2
m e m o ry b an k i s
o p e rati o n
co n d i ti o n
by
d i s card e d
is
is
a
i f an y o f th e
n o t i m pl e m e n te d ,
)
co n d i ti o n s
h old:
or
D I S AB LE D .
bro ad cas t
o p e rati o n .
S e l e cti ve
co n tro l
g e ar
ad d re s s i n g
can
be
ach i eve d
by
s e tti n g
th e
s e l e cti ve l y.
is
“DTR0”
S i m u l tan e o u s
e xecu te d , wi th i n
th e
co n tro l
m e m o ry b an k
wri t i n g
to
m u l ti pl e
can
re a d
co n tro l
g ear
“DTR1 ” g e ar
wi l l
s h al l an d
wri te
re tu rn
p ro b ab l y
data data
i n to
as
l e ad
to
an
fram i n g
th e
m e m o ry
l o cati o n
an s we r.
e rro rs
becau s e
of
col l i d i n g
an s we rs .
N OTE
I f th e
3
Th e
val u e
s e l e cte d
th at
n o t i m pl e m e n te d ,
•
a b o ve
•
l o c ke d
•
n o t wri te ab l e ,
th e
to
sh al l
th e
s u bcl au s e
“ WR I TE be
m e m o ry
ban k l o cati o n
is
n ot
n e ce s s ari l y
data
.
is
or
l as t acce s s i b l e
(see
an s we r
l o cati o n
f ro m
m e m o ry b an k l o cati o n
•
th e
be
m e m o ry l o cati o n ,
9. 1 0. 2) ,
or
M E M O R Y L O C ATI O N
wri tt e n
to .
or
(
DTR1 , DTR0, data
)”
s h al l
be
NO
an d
no
m e m o ry
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
If
th e
CSV
– 71
–
201 8
ad d re s s e d
l o cati o n
is
bel ow
l o cati o n
0 xFF,
th e
co n t ro l
g ear
s h al l
i n cre m e n t
“DTR0”
by
one.
N OTE
4
Th i s
R e fe r to
al l o ws
e ffi ci e n t
s u bcl au s e
9. 1 0
m u l ti - byte
wri t i n g
wi t h i n
a
tran s acti o n .
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 8 WRITE MEMORY LOCATION – NO REPLY ( DTR1 , Th i s
i n s tru cti o n
co m m an d
R e fe r to
is
i d en ti cal
e xce p t th at th e
s u bcl au s e
9. 1 0
to
re c e i vi n g
th e
co n tro l
“ WR I TE
DTR0, data
)
M E M OR Y LOC ATI ON
g e ar sh al l
n o t re p l y t o
th e
(
DTR1 , DTR0, data
)”
co m m an d .
fo r fu rth e r i n fo rm ati o n .
1 1 .7.1 9 PING Th e
pi n g
i n d i cate
com m an d
is
th e i r p re s e n ce .
1 2 Test procedures Vo i d
u sed Th e
by
si n g l e
pi n g
m as te r
co m m an d
appl i cati o n
s h al l
be
c o n tro l l e rs
i g n o re d
b y co n tro l
(see
I EC
g e ar.
62386-1 03)
to
– 72
–
I EC
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CSV 201 8
Annex A ( i n f o rm at i ve )
Exampl es of alg orith ms A.1
Rand om ad d ress al locati on
Th e
co n tro l
se tu p
a)
g e ar
o f th e
S tart
th e
Send 0
c)
co n n ecte d
al g o ri th m
fo r a ti m e
b)
are
pe ri o d
Th e
co n tro l
d e vi c e
al g o ri th m
ti m i n g
is
in
al l
+2
(
data
b a c kw a r d
At
d e vi ce
th at
u ses
ran d o m
ad d re s s
al l o cati o n
fo r
fo r th e
s h o rt
)”
re m ai n i n g
is
h)
Th e
g e ar
se q u e n ce
co n tro l
(
(
th e
Th e
co n tro l
ad d re s s i n g
co m m an d s
randomAddress
a
l owes t
fro m
d i ffe re n t
(
data
c o n tro l
d e vi c e
in
ra n d o m
) ”,
so
to
wi th
be
g e ar.
wh i ch
ad d re s s
by
th at
m e an s
“ S E AR C H AD D R M
g e ar
n eeds
co n tro l
randomAddress
data
data
can
of
Al s o ,
cas e
th e
ab l e
l o we s t
to
h an d l e
th e re
is
a
(
data
ran d o m d i ffe re n t
ch an ce
ra n d o m i s a ti o n
of ) ”,
th at
shou ld
be
)”
be
to
th e
co n tro l
to
can
be
u sed
i d e n ti fi e d
fo u n d
re co rd
can
be
sh al l
th e
to
by
l o cal
ch an g e d
be
g ear
fo u n d
wi th
ai d
of
) ”.
ve ri fy th e
using
“ R E C ALL M AX L E V E L”
s h o rt a d d re s s
g ear
ch o o s e
g e ar wi th
p ro g ram m e d
s h o rt ad d re s s
th e
th e
g e ar.
Th e
I f n eeded,
th e
s am e
f)
p ro g ram m e d
en abl es
“ S E AR C H AD D R H
“ C O M P AR E ” .
S H O R T AD D R E S S
co n tro l
wh i ch
g ear
co n tro l
com i n g
th e
“ V E R I F Y S H O R T AD D R E S S
g)
th e
po i n t,
e)
fo u n d
co n tro l
an d
fram e s
a d d re s s
al te rn ati n g
( d e vi c e ) ”
-2.
u ses
th i s
g e n e rate d
“ P R O G R AM
24
s e arch e s
fo u n d .
g ear
re s tarte d
Th e
co n tro l
“ I N I TI ALI S E
wh i ch
“ S E AR C H AD D R L
co n tro l
a
min.
“ R AN D O M I S E ” ;
ad d re ss
d)
wi th
of 1 5
≤ randomAddress ≤
an
to
s ys te m .
g oing
re m o ve d
“ I D E N TI FY D E VI C E ”,
an d
posi ti on
“ R E C ALL M I N
o f th e
b ack to
fro m
co rre c t p ro g ram m i n g .
th e
re s p e c ti ve
s te p
or
LE VE L” co n tro l
use
an
wi th
th e
g e ar
d)
s e arch
p ro ce s s
by
m e an s
of
“ WI TH D R AW” .
i)
Re peat
fro m
“ I N I TI ALI S E
j)
In
S to p
th e
th e
ad d re s s
A.2 On l y
p ro ce s s
e ve n t
ad d re s s i n g in
s tep
( d e vi ce ) ”
of
wi th
two
p ro ce d u re th e
seco n d
or
c) to
on
u n ti l
p ro l o n g
th e
no 1 5
fu rth e r
min
c o n tro l
g e ar
can
be
fo u n d .
U se
ti m er i f n e ed e d .
“ TE R M I N ATE ” .
m o re
on l y byte )
fo r
co n tro l th e s e
fo l l o we d
g ear
co n tro l by s teps
h avi n g g ear b)
to
th e
wi th
s am e
s h o rt
“ I N I TI ALI S E
(
ad d re s s ,
device
)”
re s ta rt
(u si n g
th e
th e
s h o rt
j).
One si ng l e control g ear connected to th e control device one
p ro g ram
co n tro l
g ear
is
co n n ected
to
a
co n tro l
d e vi ce
th at
u ses
th e
fo l l o wi n g
al g o ri th m
to
a s h o rt ad d re s s .
a)
Tran s m i t th e
n e w s h o rt ad d re s s
b)
Ve ri fy th e
c)
Sen d
“ S E T S H O R T AD D R E S S
s tated
in
co n te n t o f th e
I EC
D TR 0
62386-1 01 :201 4
( 0 AAA AAA1 b )
by “D TR 0
(
data
) ”.
b y “ Q U E R Y C O N TE N T D TR 0 ” .
(
DTR0
an d
wi th
th e
I E C 6 2 3 8 6 - 1 0 1 : 2 0 1 4 /A M D 1 : 2 0 1 8 ,
)”
twi ce
in
acco rd an ce
9. 3.
re q u i re m e n ts
as
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
A.3 A
co n tro l
d e vi ce
u si n g
co m m an d s
I n i ti al i s ati o n
b)
Q u e ry ' M AS K'
can
be
1 )
th e
th e
app l i cati o n
are
s u p po rte d
u sed
p ro ce s s
d e vi ce
d e vi ce
to
Send
e xte n d by
th e
co m m an d s
d i ffe re n t
n eeds
co n tro l
to
g e ar.
d e te ct
Th e
wh i ch
fo l l o wi n g
appl i cati o n
al g o ri th m
can
Th e
t y p e /f e a t u r e
co n tro l
of
m o re
al l o cati o n .
e ve ry
th an
d e vi ce
to
a)
d e vi ce
wi th
d e vi c e
co m m an d .
TYP E
al l
s h al l
(
data)
typ e
”
g e ar
d e vi c e
th e
data
in
type .
co n tro l
VE R S I ON wi th
th e In
s ys te m .
th i s
cas e
g e ar b e l o n g s
N U M BER”
e q u al
to
“0”.
If
th e
th e
an s we r
p ro c e d u re
to:
co m m an d I f th e re
re ce i ve d
fo l l o wi n g
is
an
p re ce d e d
an s we r,
th e
by co n tro l
0.
o th e r d e vi c e
send
co n tro l
one
type s
“ Q U E R Y E XTE N D E D
R e peat s te p
e xte n d e d
ad d re s s
s u pp o rts
D E VI C E
g e ar b e l o n g s
2)
an d
g e t a l i s t o f th e
“ E N AB LE
c)
–
u sed:
a)
is
– 73
U si ng appl i cati on extend ed com m and s
exten d ed be
CSV
201 8
typ e s
“ E N AB L E
s u p p o rt e d
D E VI C E
by th e
TYP E
(
co n tro l
data
)”
d e vi ce .
b e fo re
e ve ry
appl i cati o n
– 74
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
An n ex B ( n o rm at i ve )
High
A
high
re s o l u ti o n
i m pl em e n ted
Th e
di mm er
acco rd i n g
“actualLevel”
seen
in
Fi g u re
sh al l
a fad e
is
ru n n i n g
•
a fad e
is
s to p pe d
•
an o th e r d i m m i n g
•
a
was on
dimming
Wh e n
•
“actualLevel”
•
a
fad e
( vi a i d e al ,
b e fo re
cu rve
to
is
"in
th e
s tarts
poi n t on
fad e
j u m ps
•
th e re
–
–
sh al l
to
th e
is
th e
fro m
H o we ve r,
if
it
is
i m p l e m e n te d ,
it
s h al l
be
l e ve l ,
afte r
ro u n d i n g
of
an
i n te rn a l
va l u e
as
can
be
fad e
th e
wi th
re s o l u ti o n
ti m e
h as
an o th e r
fa i l u re
two
th e
s e l e cte d
i n te rn al
dimming
cu rve ,
e xce p t wh e n :
cu rve ) ;
e l apsed ;
dimming
l e ve l , in
th e
actu al an d
d i s cre te
s el e cte d
light
en ds
s to re
p o i n ts
two
o u tp u t
at
dimming
cu rve th e
o th e r cu rve s
n e a re s t o f th e s e
th e
an d
on
th e
as
th e
we l l
as
sce n e s , th e
i n cl u d i n g
c o rre s p o n d i n g
b ack wi th o u t l o s s ) .
s e l e cte d
dimming
cu rve :
po i n ts ;
( wh i ch targ e t
c u rve ,
( typ i cal l y
l e ve l
i . e.
m ay
not
light
wh e n
m atch
ou tpu t
a d i s cre te
( wh i ch
a p re s e t i s
u sed
m ay
poi n t on
n ot
th at was
th e
m atch
a
set u si n g
cu rve ) ;
fo l l ow
po i n t o n
th e
th e
co n se q u e n ce s
afte r
s to ppi n g
m o re
th an
a
a fu l l
wi th
poi n t on
sel ected ;
c u rve )
al ways
som e
te s ti n g
or hig h
be twe e n "
a d i s cre t e
are
n e are r
a d i s cre te
s ys te m
s e t to
an o th e r d i m m i n g
•
m an d ato ry.
al l o w re pre s e n ti n g
dimming
d i s cre te
m atch
an d
l i g h t ou tpu t i s
n ew
th e
p ro g ra m m e d
l e ve l
c u rve ,
se l ected
not
an n e x.
re p o rt
al ways
•
l e ve l
is
th i s
B. 1 .
Li g h t o u tp u t s h al l
p o we r
to
reso l u ti o n d i m m er
fad e , s tep
l e ve l s
or
in
or
i n t e rn al
dimming
high
re s o l u ti o n
c u r ve
wi th o u t
m aki n g
c u r ve ;
fo r te s ti n g :
s wi tch i n g
th e
fro m
i d e al
s e l e cte d
ac ti ve
m o re
dimming
dimming
th an
on e
cu rve ,
a
fi rs t
s te p
might
be
less
th an
or
c u r ve ;
dimming
c u r ve
at
a
ti m e
is
co m pl e x,
pe rh aps
b e tte r avo i d e d
B e h avi o u r th at can
be
e xp e ri e n ce d :
•
th e o re ti cal l y a m i n i m al
•
D i re ct high
•
a
STE P
s te p”; 0, 51
•
Arc
th e
UP
e. g .
" fad e
actu al
S p e ci al
•
STE P
wh i l e
ru n n i n g "
e ve n
l e ve l
can th at
is
" Ac tu al
set
wo rs t
to
to
th e
th e
case at
s te p
"1 "
is
“actualLevel” actu al
po i n t (l ess
ended
Le ve l "
re p re s e n ts
wh i l e
to
d i s cre te
re s po n s e
s tatu s
wh e n
al ways
D O WN
th e
( D AP C )
th e
di mm er
possi bl e
re s u l t
in
is
a
Fad e
1 , 49
ti m e
al re ad y at th e
n e are r d i s c re te
n o t ch an g e d ;
might
fad e
h al f a d i m
“h al f
s te psi z e+ 0 , 49
d o wn
at
l e ve l
th an
is
s te p”
s tart
fi n al
d e l ta
steps i ze :
s te ps i z e
to
an d
fro m
th e
poi n t
on
th e
s te p) ;
or
”o n e
re s p o n s e
en d
l as ts
to
an d
at a d i scre te
u n ti l
a
s te p
h al f
up
is
s te p;
Fad e Ti m e
h as
l e ve l ;
poi n t on
th e
dimming
c u r ve .
cas es :
Wh e n be
or
is
C o m m an d
d i m m e r to
H i g h Res
s te ps i z e ,
el apsed ,
•
P o we r
re s o l u ti o n
fad e
a fad e
m ad e
is
s tarte d
at fad e
fro m
s tart ti m e .
“Lam p Th e
o ff”
s tep
co n d i ti o n ,
fro m
o ff to
th e
min
fi rs t s t e p
l e ve l
is
fro m
o ff to
n o t p art o f th e
“M i n fad e
L e ve l ” ti m e .
mu st
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8
© I EC
•
Wh e n be
CSV
– 75
–
201 8
a
fad e
m ad e
fad e
at
is
s tarte d
fad e
s tart
to
“Lam p
ti m e
+
o ff”
co n d i ti o n ,
F ad e Ti m e .
Th e
th e
s te p
l as t fro m
s te p min
fro m l e ve l
“Mi n to
o ff
Le ve l ” is
not
to
o ff
p art
mu st
of
th e
ti m e.
actualLevel
MIN
High
+3
R e s o l u ti o n Li g h t Ou tpu t Le vel
MIN +2 M i n i m u m S tep U p d el ta
L
MIN
(I
d
e
ig
a
l
h
c
t
u
u
O rv
e
tp
;
s
u
L
t
ta
rt
e
in
+1
L
(I
d
e
ig
a
l
h
c
t
u
O
rv
u
e
;
v
e
g
tp s
u
l
o
t
ta
ff
L
i rt
g
e
n
ri
v g
d
e
)
l
o
n
g
ri
d
)
R e po rte d l e ve l
M axi m u m S tep D o wn d e l ta
MIN
P re h e at an d F ad e ru n n i n g bi t = “1 ”
I g n i ti o n ti m e ( 0 wh e n fad i n g d o wn )
Off S to pco n d i ti o n
Fad e ti m e s tart
1 /3 Fad e ti m e
2 /3 F ad e ti m e
Fad e ti m e
IEC
Fi g u re B. 1 – Level beh avi ou r i n cases of off-g ri d starti ng poin ts
– 76
–
I EC
6 2 3 8 6 - 1 0 2 : 2 0 1 4 + AM D 1 : 2 0 1 8 © I EC
CSV 201 8
B i bl i o g raph y
Luminaires – Part 1: General requirements and tests Switches for household and similar fixed electrical installations – Part 2-2, Particular requirements – Electronic switches Ballasts for tubular fluorescent lamps – Performance requirements Auxiliaries for lamps – Ballasts for discharge lamps (excluding tubular fluorescent lamps – Performance requirements D.C.-supplied electronic ballasts for tubular fluorescent lamps – performance requirements Lamp controlgear Equipment for general lighting purposes – EMC immunity requirements Digital addressable lighting interface – Part 102: General requirements – Control gear Limits and methods of measurement of radio disturbance characteristics of electrical lighting and similar equipment GS1 General Specification, Version 14: Jan-2014, [cited 2014-07-15] . Available at: IEC
60598-1 ,
IEC
60669-2-1 ,
I EC
60921 ,
IEC
60923,
IEC
60925,
I EC
61 347
I EC
61 547,
I EC
62386-1 02:2009,
CI SPR
(al l
p arts ) ,
1 5,
h t t p : //w w w . g o o g l e . c h /u r l ? s a = t & r c t = j & q = & e s r c = s & f r m = 1 & s o u r c e = w e b & c d = 2 & v e d = 0 C C I Q F j A B & u r l = h t t p % 3 A % 2 F % 2 F w w w . g s 1 . a t % 2 F i n d e x . p h p % 3 F o p t i o n % 3 D c o m _p h o c a d o w n l o a d % 2 6 v i e w % 3 D c a te g o ry % 2 6 d o w n l o a d % 3 D 2 8 9 % 3 Ag s 1 - g e n e ra l - s p e c i fi c a t i o n s - v1 4 e n % 2 6 i d % 3 D 9 % 3 A g s 1 - s p e z i f i ka t i o n e n - a ri ch t l i n i e n %2 6 I te m i d % 3 D 3 0 4 & e i = z n m 2 U 4 P q F o P 2 0 g XXm I H g A Q &u s g = AF Q j C N H o q aU j WXvLb y J fVJ o G xg O Al 6 3 m C w
______________
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