Appendix - 125
MELSEC-Q
APPENDICES
LOW-INERTIA MOTOR
This is a motor used when frequent
acceleration/deceleration is repeated. Low-
inertia motors are longitudinally longer, to
decrease the rotor diameter and cover the
torque. This enables their inertia moment to be
reduced up to 1/3 that of standard motors. The
ideal load inertia ratio is 1 or less.
M CODE (Machine Code)
These are sub functions that interlock with the
positioning operation to replace drills, tighten
and loosen clamps, raise and lower welding
electrodes, display various data, etc.
Either of two modes can be entered when the
machine code turns ON: AFTER or WITH.
The machine does not move to the next
positioning when the machine code is ON. M
codes are turned OFF by the programmable
controller program.
Code Nos. from 1 to 65535 assigned by the
user and used (1: Clamp, 2: Loosen, etc.).
Comments can be written after 50 of the M
codes, and they can be monitored using a
peripheral device or displayed on an external
display. Refer to "AFTER MODE" and "WITH
MODE".
MACHINE FEED VALUE
The OP address at the completion of the
machine OPR is stored.
The current position of the machine
coordinates determined by a machine having
the OP address as a reference.
Even if the current value is changed, this value
will not change.
MANUAL PULSE GENERATOR
The handle of this device is manually rotated
to generate pulses. This device is used when
manually carrying out accurate positioning.
Made by Mitsubishi Electric Corp.
(model: MR-HDP01)
MASTER AXIS
When carrying out interpolation operations,
this is the side on which the positioning data is
executed in priority. For example, when
positioning with the X axis and Y axis, the side
with the largest movement distance will
become the master axis, and the speed will
follow that axis. The slave axis speed will be
ignored.
MOVEMENT AMOUNT PER PULSE
When using mm, inch, or degree units, the
movement amount is calculated and output
from the machine side showing how much the
motor shaft moves per pulse. Positioning
accuracy in smaller units is not possible.
On the motor side, the movement amount per
axis rotation is normally designed as a
reference, so it is calculated as follows.
Movement amount per pulse =
P rate
No. of pulses per
encoder rotation
×
Movement amount
per rotation
Amount the motor moves (travel) per pulse.
MULTI-PHASE PULSE
A combination of pulses in which 2 or more
phases differ.
2-phase pulses, etc.
A phase
Phase difference
B phase
Z phase
(ZERO signal)
MULTIPLYING RATE SETTING
The P rate. Refer to the term "P RATE".
Summary of Contents for Melsec-Q QD75D1
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Page 41: ...1 17 MELSEC Q 1 PRODUCT OUTLINE MEMO ...
Page 48: ...1 24 MELSEC Q 1 PRODUCT OUTLINE MEMO ...
Page 60: ...2 12 MELSEC Q 2 SYSTEM CONFIGURATION MEMO ...
Page 137: ...5 33 MELSEC Q 5 DATA USED FOR POSITIONING CONTROL MEMO ...
Page 232: ...5 128 MELSEC Q 5 DATA USED FOR POSITIONING CONTROL MEMO ...
Page 252: ...6 20 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 253: ...6 21 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL ...
Page 278: ...6 46 MELSEC Q 6 SEQUENCE PROGRAM USED FOR POSITIONING CONTROL MEMO ...
Page 292: ...MEMO ...
Page 436: ...9 120 MELSEC Q 9 MAJOR POSITIONING CONTROL MEMO ...
Page 464: ...10 28 MELSEC Q 10 HIGH LEVEL POSITIONING CONTROL MEMO ...
Page 638: ...14 24 MELSEC Q 14 DEDICATED INSTRUCTIONS MEMO ...
Page 647: ...15 9 MELSEC Q 15 TROUBLESHOOTING MEMO ...
Page 686: ...15 48 MELSEC Q 15 TROUBLESHOOTING MEMO ...
Page 839: ...Appendix 153 MELSEC Q APPENDICES 6 QD75D4N 90 23 27 4 12 98 4 46 Unit mm ...
Page 840: ...Appendix 154 MELSEC Q APPENDICES 7 QD75P1 QD75P2 QD75P4 27 4 23 98 90 4 46 unit mm ...
Page 841: ...Appendix 155 MELSEC Q APPENDICES 8 QD75D1 QD75D2 QD75D4 27 4 23 90 12 98 4 46 unit mm ...
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