Mitsubishi Electric 800 Series Instruction Manual page 696

Pr. Name
Cumulative pulse division scaling factor
636
Control terminal option-Cumulative pulse
division scaling factor
637
Cumulative pulse storage
638
639 Brake opening current selection
640 Brake operation frequency selection
Second brake sequence operation
641
selection
642 Second brake opening frequency
643 Second brake opening current
Second brake opening current detection
644
time
645 Second brake operation time at start
646 Second brake operation frequency
647 Second brake operation time at stop
Second deceleration detection function
648
selection
650 Second brake opening current selection
Second brake operation frequency
651
selection
653 Speed smoothing control
654 Speed smoothing cutoff frequency
655 Analog remote output selection
656 Analog remote output 1
657 Analog remote output 2
658 Analog remote output 3
659 Analog remote output 4
Increased magnetic excitation deceleration
660
operation selection
661 Magnetic excitation increase rate
662 Increased magnetic excitation current level 3E BE 6
Control circuit temperature signal output
663
level
665 Regeneration avoidance frequency gain
668 Power failure stop frequency gain
User parameter auto storage function
675
selection
679 Second droop gain
680 Second droop filter time constant
681 Second droop function activation selection 51 D1 6
682 Second droop break point gain
683 Second droop break point torque
684 Tuning data unit switchover
686 Maintenance timer 2
Maintenance timer 2 warning output set
687
time
688 Maintenance timer 3
Maintenance timer 3 warning output set
689
time
690 Deceleration check time
692 Second free thermal reduction frequency 1 5C DC 6
693 Second free thermal reduction ratio 1
694 Second free thermal reduction frequency 2 5E DE 6
695 Second free thermal reduction ratio 2
696 Second free thermal reduction frequency 3 60 E0 6
699 Input terminal filter
702 Maximum motor frequency
Instruction
code

24 A4 6   
25 A5 6   
26 A6 6   

27 A7 6  
 
28 A8 6 
29 A9 6   
2A AA 6   
2B AB 6   
2C AC 6
  
2D AD 6   
2E AE 6   
2F AF 6
  

30 B0 6 ∆ 

32 B2 6  
 
33 B3 6 
 
35 B5 6

 
36 B6 6 
37 B7 6   
38 B8 6   
39 B9 6   
3A BA 6   
3B BB 6   
3C BC 6   ()
3D BD 6   ()

 
3F BF 6
  
41 C1 6   
44 C4 6   
4B CB 6   

4F CF 6  

50 D0 6  

 

52 D2 6  

53 D3 6  

54 D4 6  
56 D6 6   
57 D7 6   
58 D8 6   
59 D9 6   
 
5A DA 6

  
5D DD 6   
  
5F DF 6   
  
63 E3 6   
  ()
02 82 7
Control method

Vector Vector Vector Sensorless Sensorless Sensorless

   
   
   
  

  

  

  

  

  

  

  

  

  

  

  

   
   
   
   
   
   
   
  

  

   
   
  

   
   
  

  

  

  

  

   
   
   
   
   
   
   
   
   
   
   
   
 ()  
Parameter
PM PM PM
   
   
   

  

  

  

  

  

  

  

  

  

  

  

  

  

  
   
  

  

  

  


  

  

  
   
   
   
   
   
   
   
   
   
   
  


  
  


  

  
   
   
   
   
   

  
   
695
APPENDIX