12.3
Operation During Stop
12-9
12.3 Operation During Stop
Operation during stop
•
The stop request for the system stop is performed by turning on an output signal (Y0) in the
I/O area. The stop requests for the emergency stop, deceleration stop and pause are
performed by turning on the bits allocated to the unit memories (UM) area.
•
The stopped state is held while each request signal is on until each of them turns off. Any
operation cannot be activated in the stopped state. It is also the same in the cases of limit
stop, software limit stop and error stop.
Priority of stop operations
•
When stop control requests are made simultaneously, the stop operations are executed
according to the following priority.
System stop > Limit stop > Software limit stop > Error stop > Emergency stop > Deceleration
stop
Dwell time setting
•
The dwell time setting is invalid in the stop operations regardless of operation patterns.
•
However, the dwell time setting is valid in the positioning operation after a pause.
Flag processing
•
In the case of system stop, the busy flag turns off and the operation done flag turns on.
•
In the cases of emergency stop, limit stop, software limit stop, error stop and deceleration
stop, the busy flag turns off and the operation done flag turns on after the completion of
deceleration.
Current value coordinate
•
Even in a stop operation, the current value coordinate area is always updated.
•
After the emergency stop, limit stop, software limit stop, error stop, deceleration stop or
pause, deceleration is performed in each specified deceleration time, and values at the time
of stop are stored.
•
In the case of system stop, the value at the time of stop is stored.
Operation when home return operation is performed
•
For the home return methods which are based on the home position (Z phase) (i.e. DOG
method 1, DOG method 3, Limit method 1, Z phase method and Stop-on-contact method 2),
the home return operation after shifting to the creep speed is controlled by the servo
amplifier A6B/A5B. During this operation, the high-order PLC (FP7 MC Unit) cannot control
the operation. Please design and evaluate the system to avoid any danger even after shifting
to the creep speed.
Summary of Contents for AFP7MC16EC
Page 1: ......
Page 19: ...1 Unit Functions and Restrictions ...
Page 28: ...Unit Functions and Restrictions 1 10 ...
Page 29: ...2 Names and Functions of Parts ...
Page 33: ...3 Installation and Wiring ...
Page 47: ...4 Basic Procedure ...
Page 75: ...5 Settings of FP7 MC Unit Using CMI Tool ...
Page 97: ...6 Data Transfer to MC Unit and Test Operation ...
Page 122: ...Data Transfer to MC Unit and Test Operation 6 26 ...
Page 123: ...7 Creation of User Programs ...
Page 131: ...8 Automatic Operation Position Control ...
Page 143: ...8 2 Interpolation Control 8 13 ...
Page 193: ...9 Automatic Operation Synchronous Control ...
Page 251: ...10 Manual Operation JOG Operation ...
Page 257: ...10 2 Changing Speed During JOG Operation 10 7 MEMO ...
Page 263: ...11 Manual Operation Home Return ...
Page 277: ...12 Stop Functions ...
Page 286: ...Stop Functions 12 10 ...
Page 287: ...13 Supplementary Functions ...
Page 336: ...Supplementary Functions 13 50 ...
Page 337: ...14 CMTimeChart Monitor ...
Page 338: ...CMTimeChart Monitor 14 2 14 1 Overview of Function ...
Page 365: ...15 Troubleshooting ...
Page 396: ...Troubleshooting 15 32 ...
Page 397: ...16 Specifications ...
Page 500: ...Specifications 16 104 16 13Dimensions AFP7MC16EC AFP7MC32EC AFP7MC64EC 90 28 80 4 Unit mm ...
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