YASKAWA VS-626M5 Instruction Manual page 248

Specifications
14.3.1 AC Reactor
Cur- Cur-
Model Model
rent
CIMR-
MR5V
A
:
23P7 20
25P5 30
27P5 40
2011 60
2015 80
14
2018 90
2022 120
2030 160
2037 200
Cur- Cur-
Model Model
rent
CIMR-
MR5V
A
:
45P5 15
47P5 20
4011 30
4015 40
4018 50
4022 60
4030 80
4037 90
4045 120
* A: For stand-alone drive system N: for NC system
Without Terminal Block
J
Select an AC reactor from the table below according to Converter (VS-656MR5) model.
200 V Class
Induc- Induc-
Fig Fig.
tance
Code No. A
No.
mH
(Max.)
130 88
0.53 X002491
(5.12) (3.46)
130 88
0.35 X002492
(5.12) (3.46)
130 98
0.265 X002493
(5.12) (3.86)
160 105
0.18 X002495
(6.3) (4.13)
180 100
0.13 X002497
1
(7.09) (3.94)
180 100
0.12 X002498
(7.09) (3.94)
180 100
0.09 X002555
(7.09) (3.94)
210 100
0.07 X002556
(8.27) (3.94)
210 115
0.05 X002557
(8.27) (4.53)
400 V Class
Induc- Induc-
Fig Fig.
tance
Code No. A
No.
B
mH
(Max.)
130 98
1.42 X002501 2
(5.12) (3.86)
160 90
1.06 X002502
(6.3) (3.54)
160 105
0.7 X002503
(6.3) (4.13)
180 100
0.53 X002504
(7.09) (3.94)
180 100
0.42 X002505
(7.09) (3.94)
1 1
180 100
0.36 X002506
(7.09) (3.94)
210 100
0.26 X002508
(8.23) (3.94)
210 115
0.24 X002509
(8.23) (4.53)
240 126
0.18 X002566
(9.41) (4.96)
Dimensions in mm (inches)
B1
B C D E
(Max.)
114 105 50 65
(4.49) (4.13) (1.97) (2.56)
119 105 50 70
(4.69) (4.13) (1.97) (2.76)
139 105 50 75
(5.47) (4.13) (1.97) (2.95)
147.5 130 75 85
(5.81) (5.12) (2.95) (3.35)
155 150 75 80
(6.1) (5.91) (2.95) (3.15)
150 150 75 80
(5.91) (5.91) (2.95) (3.15)
155 150 75 80
(6.1) (5.91) (2.95) (3.15)
170 175 75 80
(6.69) (6.89) (2.95) (3.15)
182.8 175 75 95
(7.2) (6.89) (2.95) (3.74)
Dimensions in mm (inches)
B1 C D E
130 50 75
—
(5.12) (1.97) (2.95)
130 75 70
115
(5.12) (2.95) (2.76)
130 75 85
132.5
(5.12) (2.95) (3.35)
150 75 80
140
(5.91) (2.95) (3.15)
150 75 80
145
(5.91) (2.95) (3.15)
150 75 75
150
(5.91) (2.95) (2.95)
175 75 80
150
(6.89) (2.95) (3.15)
175 75 95
177.5
(6.89) (2.95) (3.74)
150 110
205±5
193
(5.90) (4.33)
(8.07±0.2)
14 -44
F H J K L
130 22 11.5 7
M6
(5.12) (0.87) (0.45) (0.28)
130 22 9 7
M6
(5.12) (0.87) (0.35) (0.28)
130 22 11.5 7
M6
(5.12) (0.87) (0.35) (0.28)
160 25 10 7
M6
(6.3) (0.98) (0.39) (0.28)
180 25 10 7
M6
(7.09) (0.98) (0.39) (0.28)
180 25 10 7
M6
(7.09) (0.98) (0.39) (0.28)
180 25 10 7
M6
(7.09) (0.98) (0.39) (0.28)
205 25 10 7
M6
(8.07) (0.98) (0.39) (0.28)
205 25 10 7
M6
(8.07) (0.98) (0.39) (0.28)
F H J K L
130 22 11.5 7
M6
(5.12) (0.87) (0.45) (0.28)
160 25 10 7
M6
(6.3) (0.98) (0.39) (0.28)
160 25 10 7
M6
(6.3) (0.98) (0.39) (0.28)
180 25 10 7
M6
(7.09) (0.98) (0.39) (0.28)
180 25 10 7
M6
(7.09) (0.98) (0.39) (0.28)
180 25 10 7
M6
(7.09) (0.98) (0.39) (0.28)
205 25 10 7
M6
(8.07) (0.98) (0.39) (0.28)
205 25 10 7
M6
(8.07) (0.98) (0.39) (0.28)
240 25 8 10
M8
(9.45) (0.98) (0.31) (0.39)
Approx. Approx. Heat Heat
Mass Loss
M
kg (lb) W
3
M5 35
(6.6)
3
M5 45
(6.6)
4
M6 50
(8.8)
6
M6 65
(13.2)
8
M8 75
(17.6)
8
M8 90
(17.6)
8
M10 90
(17.6)
12
M10 100
(26.5)
15
M10 110
(0.59)
Approx. Approx. Heat Heat
Mass Loss
M
kg (lb) W
4
M4 50
(8.8)
5
M5 50
(11)
6
M5 65
(13.2)
8
M6 90
(17.6)
8
M6 90
(17.6)
8
M6 90
(17.6)
12
M8 95
(26.5)
15
M8 110
(33.1)
23
M10 130
(50.7)