Appendix - 51
MELSEC-Q
APPENDICES
Appendix 4.4 Connection example of QD75D N and MR-C A (Differential driver)
5
PULSE F+
15
PULSE F-
16
PULSE R+
17
PULSE R-
18
CLEAR
13
CLEAR COM 14
PG024
8
PG0 COM
10
DOG
3
FLS
1
RLS
2
STOP
4
COM
7
A19
B19
A20
B20
PULSER A+
QD75D N
PP
PG
NP
NG
CR
SG
V+
OP
SD
LSP
LSN
9
10
7
8
13
12
1
4
11
15
14
5V
A
B
0V
+5V
5G
Servo ON
*3
*3
*1
Within 10m *4
CN1
NF
MC
L1
L2
U
V
W
U
V
W
E
SM
EMG
CN2
TE1
READY
CHG
COM
PULSER A-
PULSER B+
PULSER B-
11
5
6
SON
ALM
V24
2
20
17
C
P
Regenerative resistor is
an external option.
Servo READY
Fault
+
-
PULSE F
15
PULSE COM 16
PULSE COM 18
PULSE R
17
PP
9
SG
12
NP
7
CN1
RDY COM
12
Configure a sequence to turn OFF the MC
at alarms and emergency stops.
Power supply
Single-phase 200VAC
(A type) or
single-phase 100VAC
(A1 type)
Upper limit
Stop
External command
*2
*2
Near-point dog
Lower limit
Forward run stroke end
Reverse run stroke end
RA1
Electromagnetic
brake
24VDC
Cutoff when a servo ON signal turns
OFF and an alarm signal turns ON.
HC-PQ series
motor
MR-C A
or
MR-C A1
Manual pulse
generator
MR-HDP01
24V, 0.2A or higher
24V power
supply
When connecting an open collector,
make connection as shown below.
QD75P N
Detector
REMARK
(1) It is recommended to make differential driver connection since differential driver connection is more excellent than
open collector connection in max. output pulse and max. connection distance between servos. (Refer to Section
3.1 "Performance specifications".)
(2) 1: The logic for each I/O terminal can be changed with " Pr.22 Input signal logic selection" and " Pr.23
Output signal logic selection" in detailed parameters 1. (Negative logic is used for all terminals in the example
above.)
(3) 2: The QD75D N upper limit (FLS) and lower limit (RLS) are used in the OPR retry function. Set these signals
inside the servo amplifier limit switches.
(4) 3: These are limit switches for the servo amplifier (for stop).
(5) 4: This indicates the distance between the QD75D N and servo amplifier.
(6) 5: Use the same logic (positive logic/negative logic) for the QD75D N and servo amplifier. The QD75D N is
initially set to negative logic.
Summary of Contents for D75D4
Page 2: ......
Page 22: ...A 20 MEMO ...
Page 24: ...MEMO ...
Page 41: ...1 17 MELSEC Q 1 PRODUCT OUTLINE MEMO ...
Page 48: ...1 24 MELSEC Q 1 PRODUCT OUTLINE MEMO ...
Page 58: ...2 10 MELSEC Q 2 SYSTEM CONFIGURATION MEMO ...
Page 65: ...3 7 MELSEC Q 3 SPECIFICATIONS AND FUNCTIONS ...
Page 139: ...5 35 MELSEC Q 5 DATA USED FOR POSITIONING CONTROL MEMO ...
Page 238: ...5 134 MELSEC Q 5 DATA USED FOR POSITIONING CONTROL MEMO ...
Page 251: ...6 13 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 254: ...6 16 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 255: ...6 17 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 256: ...6 18 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 259: ...6 21 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 260: ...6 22 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 292: ...7 8 MELSEC Q 7 MEMORY CONFIGURATION AND DATA PROCESS ...
Page 294: ...7 10 MELSEC Q 7 MEMORY CONFIGURATION AND DATA PROCESS ...
Page 298: ...MEMO ...
Page 462: ...9 140 MELSEC Q 9 MAJOR POSITIONING CONTROL MEMO ...
Page 490: ...10 28 MELSEC Q 10 HIGH LEVEL POSITIONING CONTROL MEMO ...
Page 524: ...11 34 MELSEC Q 11 MANUAL CONTROL Creating the program ...
Page 666: ...14 24 MELSEC Q 14 DEDICATED INSTRUCTIONS MEMO ...
Page 675: ...15 9 MELSEC Q 15 TROUBLESHOOTING MEMO ...
Page 716: ...15 50 MELSEC Q 15 TROUBLESHOOTING MEMO ...
Page 725: ...Appendix 9 MELSEC Q APPENDICES MEMO ...
Page 878: ...Appendix 162 MELSEC Q APPENDICES 6 QD75D4N 90 23 27 4 12 98 4 46 Unit mm ...
Page 879: ...Appendix 163 MELSEC Q APPENDICES 7 QD75P1 QD75P2 QD75P4 27 4 23 98 90 4 46 unit mm ...
Page 880: ...Appendix 164 MELSEC Q APPENDICES 8 QD75D1 QD75D2 QD75D4 27 4 23 90 12 98 4 46 unit mm ...
Page 893: ...WARRANTY ...
Page 895: ......