Mitsubishi Electric 800 Series Instruction Manual page 687

Pr. Name
32 Frequency jump 1B
33 Frequency jump 2A
34 Frequency jump 2B
35 Frequency jump 3A
36 Frequency jump 3B
37 Speed display
41 Up-to-frequency sensitivity
42 Output frequency detection
Output frequency detection for reverse
43
rotation
44 Second acceleration/deceleration time
45 Second deceleration time
46 Second torque boost
47 Second V/F (base frequency)
48 Second stall prevention operation level
Second stall prevention operation
49
frequency
50 Second output frequency detection
51 Second electronic thermal O/L relay
52 Operation panel main monitor selection
54 FM terminal function selection
55 Frequency monitoring reference
56 Current monitoring reference
57 Restart coasting time
58 Restart cushion time
59 Remote function selection
60 Energy saving control selection
61 Reference current
62 Reference value at acceleration
63 Reference value at deceleration
64 Starting frequency for elevator mode
65 Retry selection
Stall prevention operation reduction starting
66
frequency
67 Number of retries at fault occurrence
68 Retry waiting time
69 Retry count display erase
70 Special regenerative brake duty
71 Applied motor
72 PWM frequency selection
73 Analog input selection
74 Input filter time constant
Reset selection/disconnected PU detection/
75
PU stop selection
76 Fault code output selection
77 Parameter write selection

78 Reverse rotation prevention selection
79 Operation mode selection

80 Motor capacity
81 Number of motor poles
82 Motor excitation current
83 Rated motor voltage
84 Rated motor frequency
85 Excitation current refraction point
Excitation current low speed multiplying
86
factor
Speed control gain (Advanced magnetic
89
flux vector)
90 Motor constant (R1)
91 Motor constant (R2)
686
APPENDIX
Instruction
code

20 A0 0
  
21 A1 0
  
22 A2 0   
23 A3 0   
24 A4 0   
25 A5 0   
29 A9 0   
2A AA 0   
2B AB 0   
2C AC 0   
2D AD 0   
 
2E AE 0 
 
2F AF 0 

30 B0 0  

31 B1 0  
32 B2 0
  
33 B3 0   
34 B4 0   
36 B6 0   
37 B7 0   
38 B8 0   
39 B9 0   

3A BA 0  
3B BB 0   

3C BC 0  
3D BD 0
  ()
3E BE 0
  ()
3F BF 0   ()
 
40 C0 0 
41 C1 0   

42 C2 0  
43 C3 0   
44 C4 0
  
45 C5 0
  
46 C6 0   
47 C7 0   
48 C8 0   
49 C9 0   
4A CA 0   
4B CB 0   
4C CC 0
  
4D CD 0   
4E CE 0   
4F CF 0   

50 D0 0  

51 D1 0  

52 D2 0  ()

53 D3 0  

54 D4 0  
 
55 D5 0 
 
56 D6 0 
 
59 D9 0 

5A DA 0  

5B DB 0  ()
Control method

Vector Vector Vector Sensorless Sensorless Sensorless


  

  

  

  

  
   
  

∆ ∆  ∆
∆ ∆  ∆
 ∆  
 ∆  
   
   
   
   
∆ ∆ ∆

   
   
   
   
   

  
   

  
   
  

  

  

   

  
   

  

  

  
   
   
   

  

  
   
   
   
   
   
   
   
 ()  
 ()  
   
 
 
 
 
   
   
 ()  
Parameter
PM PM PM
   
   
   
   
   
   
   
   
   
   
   

  

  

  

  
   
   
   
   
   
   

  

  
   

  

  

  

  

  
   

  
   
   
   
   
   
   
   
   
 
 
   
   
   
   
   
   
 
 
   
   
 
 
 
 
 
 

  
 
 