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Step
Obtain the bore of the cylinder tube. Refer to Graphs 1 and 2.
qDetermine the load factor in accordance with the purpose.
Purpose of operation
Static operation (clamping, low speed vise crimping, etc.)
Dynamicoperation
Horizontal movement of load on guide
Vertical and horizontal movement of the load
Load factor
0.7 or less(70% or less)
1 or less(100% or less)
0.5 or less(50% or less)(1)
Note 1) If it is particularly necessary to operate at high speeds,the load rate must be reduced further. (In the graph, it ispossible to select a load rate of 0.4, 0.3, 0.2, or less.)
wDetermine the operating pressure.
Generally, set the regulator to 85% of the source air pressure.
(In the graph, a selection between 0.2MPa and 0.8MPa is possible.)
eDetermine the direction in which the cylinder force will be used.
Extending side Refer to Graph 1.
Retracting side Refer to Graph 2.
Note: If the same load is applied both for pushing and pulling in ahorizontal operation, set the direction to the pulling side.
Take the impact at the stroke end into consideration.
qWhen an external stopper (shock absorber, etc.) is provided to
absorb the impact, select a stopper with sufficient absorption capacity.
wStopping the piston with the cylinder without a stopper:
Verify in Graphs 3 to 7 the absorption capacity of the cushion that is
enclosed in the cylinder.
1) Rubber bumper: Urethane rubber is used for preventingmetal-to-metal contact between the pistonand the cover.
2) Air cushion: The air in the exhaust side is compressedslightly before the stroke end, and its reactionforce absorbs the kinetic energy of the load,thus enabling the piston to stop quietly.
The aspects indicated below may need to be taken into
consideration, depending on how the cylinder is operated.qIf a lateral load is applied to the piston rod:
Verify in Graphs 8 to 11 whether the lateral load is within an allowable
range.
wWhen using a cylinder with a relatively long stroke, if a buckling force
acts on the piston rod or the cylinder tube, verify in the table whether
the stroke or the operating pressure is within a safe range.
Obtain the cylinder's air consumption and required air volume.
Obtain the air consumption (Graphs 12, 13) that is necessary forselecting a compressor and for calculating the running cost and the
required air volume (Graph 14) that is necessary for selecting equipment
such as an air filter or a regulator, or the size of the piping upstream.
Technical data for air cylinders
For detailed technical data other than the air cylinder model
selection procedure, refer to p.5.6-1 to 5.6-8.
Data 1: Tube Bore Selection (p.5.6-2 to 5.6-5)
Data 2: Air consumption and Required Air volume (p.5.6-6)
Data 3: Theoretical Force Table (p.5.6-7 and 5.6-8)
1
Step
2
Step
Step
3
4
Series MB
Series CJ2
Series CM2
Series CG1
Series CA1
Series CS1
Series CQ2
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Air Cylinder Model Selection Procedures
Obtain the bore of the cylinder tube. Refer to Graphs 1 and 2.
Example 1: If a minimum force of 1000N is necessary to keep theworkpiece pressed as shown in Fig. 1, because this is the
extending side, use Graph 1 to determine the load factor of 0.7and the operating pressure of 0.5MPa. Then, seek the pointat which the cylinder force of 1000N intersects, and this willresult in a bore size of 63mm.
Example 2: To move a load with a 30kg weight horizontally on a guide asshown in Fig. 2, because the load is the same for both thepushing and retracting sides, use Graph 2, which is theretracting side with a smaller force. Determine the load factorof 1, and the operating pressure of 0.4MPa. Then, seek the
point at which it intersects with the load weight of 30kg, andthis will result in a bore size of 40mm.
Example 3: To pull a load with a 100kg weight vertically upward as shown
in Fig. 3, use Graph 2 to determine the load factor of 0.5 andthe operating pressure of 0.5MPa. Then, seek the point at whichit intersects with the load weight of 100kg, and this will result ina bore size of 80mm.
Conversion to gravitational units
1MPa 10.2kgf/cm2 1N 0.102kgf1kgf/cm20.098MPa 1kgf 9.8N
Step
1
P=0.4MPa
W
Fig. 2
30kgP=0.5MPa
Fig. 3
W
100kg
Fig. 1
P=0.5MPa
Example: Example:
600005000040000
300002500020000
15000
10000
50004000
300025002000
1500
1000
500400
300250200
150
100
5040
302520
15
10
54
32.5
2
1.5
10.80.8
0.70.6
0.50.4
0.3
0.2
600050004000
300025002000
1500
1000
500400
300250200
150
100
5040
302520
15
10
54
32.52
1.5
1
0.50.4
0.30.250.2
0.15
0.10.08
CylinderforceF(N)
Operatingpressure(MPa)
Loadweightm(kg)
Load factor ()
300250
200180160140125
100
80
63
50
40
32
25
20
16
10
6
300250
200180160140
125
100
80
63
50
40
32
25
20
16
10
6
1 0.70.5
0.40.3
0.2
Retracting side cylinder force (Double acting cylinder)
Bore size (mm)
600005000040000
300002500020000
15000
10000
50004000
300025002000
1500
1000
500400
300250200
150
100
5040
302520
15
10
54
32.5
2
1.5
10.8
0.70.6
0.50.4
0.3
0.2
600050004000
300025002000
1500
1000
500400
300250200
150
100
5040
302520
15
10
54
32.52
1.5
1
0.50.4
0.30.250.2
0.15
0.1
CylinderforceF(N)
Operatingpressure(MPa)
Loadweightm(kg)
Load factor ()
300
250
200180160140125
100
80
63
50
40
32
25
20
16
10
6
300
250
2001801601401
25100
80
63
50
40
32
25
20
16
10
6
1 0.70.5
0.40.3
0.2
Extending side cylinder force (Double acting cylinder)
Bore size (mm)
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Take the impact at the stroke end into consideration.
How to view the Graphs
Example 1: According to Graph 3, to move a load weight of 50kg using CM2-40A, it is necessary to set the maximum speed at
300mm/s or less, considering the capacity of the air cushion.
Cylinder with an air cushion
CJ2
CM2
CG1
CA1
CS1
Step
2
200
100
50
30
20
10
5
3
2
1
0.4
0.3
0.2
100 200 300 500 1000
Load(kg)
Max. speed (mm/s)
Series CJ2/CM2
CM2-40
CM2-32
CM2-25
CM2-20
CJ2-16
CJ2-10
1000
500
300
200
100
50
30
20
10
5
3
2
1
0.5
Load(kg)
Max. speed (mm/s)
Series CG1CG1-100
CG1-80
CG1-63
CG1-50
CG1-40
CG1-32
CG1-25
CG1-20
10000
5000
3000
2000
1000
500
300
200
100
50
30
20
10
5
100 200 300 500 1000100 200 300 500 1000
Load(kg)
Max. speed (mm/s)
Series CA1/CS1
CS1-300
CS1-250
CS1-200
CS1-180
CS1-160
CS1-140CS1-125
CA1-100
CA1-80
CA1-63
CA1-50
CA1-40
Air Cylinder Model Selection Procedures
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Example 2: According to Graph 7, to move a load weight of 50kg at a maximum speed of 500mm/s, in the CG1 series, a bore size
of 80 can be selected.
Cylinder with a rubber bumper
MB
How to view the Graphs
CJ2
CM2
CG1
200
100
50
30
20
10
5
3
2
1
0.4
0.3
0.2
0.1
0.05
100 200 300 500 750 1000
Load(kg)
Max. speed (mm/s)
Series CJ2/CM2
CM2-40
CM2-32
CM2-25
CM2-20
CJ2-16
CJ2-10
CJ2-6
1000
500
300
200
100
50
30
20
10
5
3
2
1
0.5
100 200 300 500 1000
Load(kg)
Max. speed (mm/s)
Series CG1CG1-100
CG1-80
CG1-63
CG1-50
CG1-40
CG1-32
CG1-25
CG1-20
1000
500
300
200
100
50
30
20
10
5
4
3
2
100 200300 500 1000 2000
Load(kg)
Max. speed (mm/s)
Series MB
MB100
MB80
MB63
MB50
MB40
MB32
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Bushing (Bearing)fR
The aspects indicated below may need to be taken into consideration, depending on how the cylinder is operated.
qThe maximum stroke at which the cylinder can be operated under a lateral load.The region that does not exceed the bold solid line represents the allowable lateral load in relation to the
cylinder of a given stroke length. In the graph, the range of the broken line shows that the long stroke
limit has been exceeded. In this region, as a rule, operate the cylinder by providing a guide along the
direction of movement.
Step
3
Series CM2/20, 25, 32, 40
Lateralloadappliedtotherode
nd(fR)(N)
Cylinder stroke (mm)
50
40
30
20
10
54
3
2
1
0.5
0.40.3
0 100 200 300 400 500 600 700 800 900 1000
Series CG1/20, 25, 32, 40, 50, 63, 80, 100
Lateralloadappliedtotherode
nd(fR)(N)
Cylinder stroke (mm)
200
100
50
4030
20
10
54
3
2
1
0.50.4
0.3
0.2
0.1
300
0 500 1000 1500
Series MB/32, 40, 50, 63, 80, 100Series CA1/40, 50, 63, 80, 100
Lateralloadappliedtotherodend
(fR)(N)
Cylinder stroke (mm)
200
100
5040
30
20
10
5
4
3
2
1
300
0 500 1000 1500
0011
AC001
BM
081
AC08
BM
361
A36
BM
051
AC05
BM
041
AC04
BM
23B
M
Series CS1/125, 140, 160, 180, 200, 250, 300
Lateralloadappliedtotherodend
(fR)(N)
Cylinder stroke (mm)
2000
1000
500400
300
200
100
50
40
30
20
10
3000
0 500 1000 1500 2000 2400
CM240
CM232
CM225
CM220
CG1100CG180
CG163
CG150
CG132
CG120
CG125
CG140
0031S
C
0521S
C
5211S
C041
1SC
081SC
0611S
C
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0.3
0.5
0.7
39
29
24
49
37
31
56
42
35
61
46
38
38
29
24
49
36
30
55
42
34
80
60
50
100
76
63
78
59
49
96
73
60
112
85
71
71
56
46
81
63
52
102
78
65
79
61
50
98
75
62
114
88
73
131
101
84
117
89
74
126
96
80
141
108
89
158
121
101
182
140
115
206
158
131
0.3
0.5
0.7
16
11
8
20
14
11
24
17
13
25
17
13
15
11
8
21
14
11
24
17
13
36
26
21
45
33
27
34
25
20
42
31
24
50
37
29
31
23
19
35
26
21
46
34
27
34
25
19
42
31
24
50
37
29
57
42
34
49
35
28
53
38
30
60
44
34
68
50
40
79
58
45
90
66
53
0.3
0.5
0.7
36
26
21
46
34
28
53
39
32
56
42
34
37
27
22
47
35
28
53
40
32
78
59
48
98
74
61
76
57
46
94
70
58
109
82
68
67
50
41
76
57
46
96
72
60
73
54
44
91
68
55
105
78
64
122
91
75
106
78
64
118
85
69
130
96
78
146
109
89
167
124
101
190
141
115
0.3
0.5
0.7
82
62
52
103
79
66
116
89
75
126
97
81
81
61
51
102
78
65
115
88
73
165
126
106
207
159
133
163
124
104
0.3
0.5
0.7
37
27
22
47
35
29
54
40
33
58
43
35
38
28
23
48
36
30
55
41
34
79
60
50
100
76
63
78
59
48
93
71
58
105
80
66
134
102
85
103
78
65
128
97
81
149
113
93
171
129
107
151
113
94
163
123
101
183
139
115
206
156
129
235
178
147
267
203
168
0.3
0.5
0.7
118
90
76
147
113
95
166
128
107
181
139
117
117
89
75
147
112
94
166
127
107
237
182
153
296
228
192
234
180
151
288
221
186
333
256
215
206
158
132
234
179
150
295
226
190
231
177
148
287
219
184
330
253
212
382
293
245
339
263
218
366
281
235
412
315
265
459
252
296
527
403
339
598
458
385
0.3
0.5
0.7
55
41
34
69
52
43
79
60
49
85
64
53
55
41
34
70
52
43
79
60
50
114
87
72
143
109
91
112
85
71
138
105
87
161
122
102
99
75
62
112
85
70
142
108
90
116
83
68
136
102
85
158
119
99
183
138
114
160
120
99
173
131
108
196
147
122
218
165
137
251
189
157
286
216
179
0.3
0.5
0.7
168
129
109
210
162
136
237
183
154
258
199
167
167
128
108
210
161
135
236
182
153
337
260
219
422
325
274
334
257
216
411
316
266
474
366
308
280
234
194
318
266
220
423
339
275
313
257
216
412
317
267
476
367
309
549
423
356
489
377
317
528
407
343
594
457
385
661
509
429
762
587
494
863
665
5610.3
0.5
0.7
80
61
50
101
77
64
114
87
72
123
94
78
80
61
50
101
77
64
114
87
73
164
126
105
206
158
132
162
124
103
200
152
127
231
177
148
136
110
93
154
125
105
206
158
132
151
123
102
199
152
127
231
176
147
266
203
170
235
179
149
254
194
144
287
218
182
320
244
204
369
281
235
419
320
268
L
F
Foot: LFront
flange: FRear
flange: G
W W W
W
WW
WW W
W W
W
W
wThe relationship between the cylinder size and the maximum stroke depending on the mounting style
Assuming that the force that is generated by the cylinder itself acts as a buckling force on the piston rod or on thepiston rod and the cylinder tube, the table below indicates in centimeters the maximum stroke that can be used,which was obtained through calculation.
Therefore, it is possible to find the maximum stroke that can be used with each cylinder size according to therelationship between the level of the operating pressure and the type of cylinder mounting, regardless of the loadfactor.Reference: Even under a light load, if the piston rod has been stopped by an external stopper at the extending side
of the cylinder, the maximum force generated by the cylinder will act upon the cylinder itself. P
20 25 32 40 20 25 32 40 50 63 80 100 32 40 50 63 80 100 125 140 160 180 200 250 300
L
F
C
D
G
U
T
G
G
Mounting style Maximum stroke that can be used according to buckling strength
CM2 CG1 MB MB/CA1 CS1Mounting bracketdiagram
Symbol
Ope
rating
pres
sure
Foot: LFront
flange: FRear
flange: G
Clevis: C, DFront
trunnion: U
Centertrunnion: U
Reartrunnion: U
CA1/CS1 only
(cm)
MPa
L
F
Foot: L Frontflange: F Rearflange: G
Air Cylinder Model Selection Procedures
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How to obtain the air consumption/How to view Graphs 12, 13
Using Graph 12, obtain the air consumption of the air cylinder.
qSeek the point at which the operating pressure (diagonalline) intersects with the cylinder stroke, and from that point,perpendicularly extend a vertical line upward.
wFrom the point at which it intersects with the bore size(diagonal line) of the cylinder to be used, look sideways
(either to the right or left) to obtain the air consumption thatis required by one cycle of the air cylinder.
Using Graph 13, obtain the air consumption of the tube or
steel pipe in the same way as in step 1.
Obtain the total air consumption per minute as described below.(air consumption of air cylinder + air consumption of tube orsteel pipe) X number of cycles per minute X number of cylinders
being used = total air consumption [unit: L/min (ANR)]
When 10 air cylinders with a 50mm bore size and a 600mmstroke are used at a pressure of 0.5MPa, what is the airconsumption of their 5 cycles per minute?(A 2m tube with a 6mm bore is used for piping between thecylinders and the switching valve.)1. Operating pressure 0.5MPa cylinder stroke 600mm bore size 50mm air consumption volume 13 l(ANR)
2. Operating pressure 0.5MPa piping length 2m bore6mm air consumption 0.56 l (ANR)
3. Total air consumption = (13 + 0.56) X 10 X 5 = 678 l/min (ANR)
How to obtain the required air volume/How to view Graph 14
Using Graph 14, obtain the air cylinder's required air volume.qSeek the point at which the operating pressure (diagonal
line) intersects with the maximum piston speed, and fromthat point, perpendicularly extend a vertical line upward.
wFrom the point at which it intersects with the bore size(diagonal line) of the cylinder to be used, look sideways
(either to the right or left) to obtain the required airconsumption.
Example: What is the required air volume for operating a cylinderwith a bore size of 50mm, at a pressure of 0.5MPa, and ata speed of 500mm/s?
How to: Operating pressure 0.5MPa maximum piston speed500mm/s bore size 50mm then, a required air volume350 l/min (ANR) can be obtained.
In equipment that uses a cylinder, air consumption is the volume of air that is consumed in the cylinder, or in thepiping between the cylinder and the switching valve, every time the switching valve operates. This is necessary forselecting a compressor and for calculating the running cost. The required air volume is the volume of air that isnecessary for operating a specified load at a specified speed, and it is necessary for selecting the F.R.L. equipmentor the size of the upstream piping.
Note:In selecting a compressor, the temperature drop, leakage, andconsumption by the intermediary equipment must be taken intoconsideration. Thus, select one with a generous capacity, with adischarge that exceeds the total air consumption indicated above.(Reference: At a minimum, select one with 1.4 times the volume;select one with a higher volume as needed.)
Obtain the cylinder's air consumption and its required air volume.
Step
4
Cylinder's air consumption and its required air volume
Step 1
Step 2
Step 3
Step 3
Example:
view
Cylinder's air consumption (For one cycle)
20001500
1000
500400300
200150
100
5040
30
20
15
10
54
3
2
1.5
1
0.6
500040003000
20001500
1000
500400300
200150
100
50
3000
20001500
1000
500400300
200150
100
5040
30
20
15
10
54
3
2
1.5
1
0.50.40.3
0.20.15
0.1
0.050.04
0.03
0.02
0.015
0.01
3000
Airco
nsumption(l(ANR))
Airco
nsumption(l(ANR))
Cylinderstroke(mm)
Operating pressure (MPa)
0.20.3
0.40.5
0.60.70.8
3
00250
200180160140125
100
80
63
50
40
32
25
20
16
10
6
300250200180160140125100
80
63
50
40
32
25
20
16
10
6
Bore size
(mm)
Air Cylinder Model Selection Procedures
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100
5040
30
20
10
5
4
3
2
1
0.5
0.4
0.3
0.2
10
54
3
2
1.5
1
0.5
0.4
0.3
100
5040
30
20
10
5
4
3
2
1
0.5
0.4
0.3
0.2
0.1
0.05
0.04
0.03
0.02
0.01
0.005
Airconsumption(l(ANR))
Airconsumption(l(ANR))
Pipinglength(m)
Operating pressure (MPa)
Air consumption of tube or steel pipe (For one cycle)
Bore size (mm)
Bore size (mm)
0.20
.3
0.40
.5
0.60.7
0.8
1"
3/4
"
1/2
"
12
87.5
2.5
6
5
4
13
3/8
1/4"
9
20000
15000
10000
50004000
3000
2000
1500
1000
500400
300
200150
100
5040
30
20
15
108
2000
1500
1000
500400
300
200
100
30000
20000
15000
10000
50004000
3000
2000
1500
1000
500400
300
200150
100
5040
30
20
15
10
5
4
3
2
1
0.5
30000
Airconsumption(l/min(ANR))
Airconsumption(l/min(ANR))
Max.pistonspeedmm/s
Operating pressure (MPa)
Required air volume of cylinder and piping
0.2
0.3
0.4
0.5
0.6
0.7
0.8
180160140125
100
80
63
50
40
32
25
20
16
10
6
200
250
300
The piping length is the length of the steel pipe or tube that connects the cylinder with theswitching valve (solenoid valve, etc.).
Refer to p.5.6-6 for the dimensions (bore size and O.D.) of the steel tubing.
Air Cylinder Model Selection Procedures
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0
Load factor 50% Load factor 0%
20
Bore size
300
Stroke
(mm)
Time (sec)
Max.s
peed
Example:If the load factor is 30%, divide the portion between0% to 50% into 5 parts, and find the speed at thepoint that corresponds to 30%.
This graph shows the maximum speed when a cylinder
drive system is composed of ideal equipment. Divided
according to the series of the cylinder (CM2, CG1, CA1, CS1),it indicates the maximum speed for every bore size, with a
load factor of 0% to 50%, as shown in the example diagram below.
Conditions
PressurePiping length
Cylinder stroke
Cylinder orientation
Load factor
0.5MPa5m
300mm
Vertically upward
0% to 50%
How to View Graph
Optimized Air Cylinder Drive System
Maximum Operating Speed Characteristics
0-26
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Rubber Seal Solenoid Valve
Metal Seal Solenoid Valve
Load factor 0%
32
40
2025
32
40
2025
32
2532
40
32
40
40
20
Applicable products
SpeedcontrollerSolenoidvalveTubingSilencer
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-10
AS2201F-01-08
AS2201F-02-10
SYJ5140-01VZ3140-01
VZ5120-01SYJ7120-01VF3130-01VFR2100-01
VK3140-01VF1120-01
SYJ7120-02VZ5120-02
VF3130-02VFR3100-02VF5120-02
T0806
T1075
T0806
T1075
AN110-01AN120-M5
AN200-02
1400120010008006004002000
Max. speed (mm/sec)
Max. speed (mm/sec)
50%20
AN110-01
AN200-02
Air Cylinder
SeriesCM2
2520
Optimized Air Cylinder Drive System: Max. Operating Speed: 20, 25, 32, 40
Speedcontroller
Solenoidvalve
TubingSilencer
Load fator 0%
Applicable toVF1120-02( )
Applicable toVF3130-20( )
25
1400120010008006004002000
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-10
T0806
T1075
AN110-01
AN200-02
VZS2150-01
VZS3150-01VFS1120-01VFS2120-01VS4110-01VS4120-01
VFS3120-02
50%
Applicable products
20
32
40
2520
32
40
2532
40
25
20
0-27
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8/2/2019 Pneumatic Cylinders 1
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Rubber Seal Solenoid Valve
Speedcontroller
TubingSilencer Solenoidvalve
SYJ5140-01VZ3140-01
VZ5120-01SYJ7120-01VF3130-01VFR2100-01
VK3140-01VF1120-01
SYJ7240-02VZ5140-02
VP7-8-FG-S-03VP4150-03VP7-8-FG-S-04VFR4100-04VP4150-04
VP4150-06
VP7-8-FG-S-03VP4150-03
VP7-8-FG-S-04VFR4100-04VS4150-04
VF3130-02VFR3100-02VF5120-02
Applicable products
Load factor 50%20
2532
40
5063
3240
5063
2025
3240
5063
2025
3240
5063
80
100
2025
3240
5063
80100
80
100
100
80
80
100
100
AN300-03
AN400-04
AN500-06
AN300-03
AN400-04
T1075
T1209
T0806
T1075
T1209
T1613
T1613
SGP1/2
SGP3/8
T0806
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-10
AS3201F-03-10
AS4201F-04-12
AS2201F-01-08
AS2201F-02-10
AS3201F
-03-12AS4201F-04-12
AS3201F-03-12
AS4201F-04-12
AS4201F-04-12
AS420-03
AS420-04
200 400 600 8000 1000 1200 1400 1600
0%
Max. speed (mm/sec)
2025
Air Cylinder
SeriesCG1Optimized Air Cylinder Drive System: Max. Operating Speed: 20, 25, 32, 40, 50, 63, 80, 100
AN110-01AN120-M5
Applicable to
VF1120-02( )
AN110-01AN120-M5
Applicable toVF3130-02( )
0-28
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8/2/2019 Pneumatic Cylinders 1
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Load factor 50% 0%
2025
3240
5063
3240
5063
40
6350
80
100
80
80
100
100
3225
20
20
25
SpeedcontrollerTubingSilencer Solenoidvalve
VZS3150-01VFS1120-01VFS2120-01VS4110-01VS4120-01
VZS2150-01
VFS3120-02
VS-7-8-FG-S-03VFS4100-03VFS5100-03
VS-7-8-FG-S-04VFS4100-04VS4140-04
AN110-01
AN200-02
AN300-03
AN400-04
T0806
T0806
T1075
T1209
T1613
T1613
AS2201F-01-08
AS2201F-02-08
AS2201F-01-08
AS2201F-02-08
SGP1/2
SGP3/8
Applicable products
0 200 400 600 800 1000 1200 1400 1600
Max. speed (mm/sec)
AS2201F-01-08
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS420-03
AS420-04
Metal Seal Solenoid Valve
Air Cylinder
SeriesCG1Optimized Air Cylinder Drive System: Max. Operating Speed: 20, 25, 32, 40, 50, 63, 80, 100
0-29
-
8/2/2019 Pneumatic Cylinders 1
13/19
Rubber Seal Solenoid Valve
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS4201F-04-12
AS420-03
AS420-04
SpeedcontrollerTubingSilencer Solenoidvalve
T1075
Max. speed (mm/s)
SYJ7240-02VZ5140-02
VF3130-02
VFR3100-02
VF3140-03
VFR3100-03VP4150-03VP-7-8-FG-S-03VF5120-03VP7-6-FG-S-03
VFR4100-04VP4150-04
VF3140-03
VFR4100-04VP4150-04
Applicable products
AN300-03
AN400-04
AN300-03
AN400-04
T1209
T1075
T1209
T1075
T1209
T1209
T1075
T1209
T1613
T1613
SGP1/2
SGP3/8
Load factor 50%
50
63
80
100
40
5063
80100
40
5063
80100
40
5063
80100
40
5063
80100
80100
5063
50
63
80
100
80100
40
T1075
200 400 600 8000 1000 1200 1400 1600 1800
0%
Applicable toVF3130-02
( )
Air Cylinder
SeriesCA1Optimized Air Cylinder Drive System: Max. Operating Speed: 40, 50, 63, 80, 100
AN200
-02
0-30
-
8/2/2019 Pneumatic Cylinders 1
14/19
Metal Seal Solenoid Valve
SpeedcontrollerTubingSilencer Solenoidvalve
VZS2150-01
VZS3150-01
VS4120-01
VZS2150-01
VFS3120-02VS4120-02VS7-6-FG-S-02
VFS4100-03VFS5100-03
VS4110-03
VS7-6-FG-S-03VS4120-03V4110-03
Applicable products
Load factor50%
40
50
63
40
50
63
40
50
63
80100
40
5063
80100
40
5063
80100
63
63
50
50
50
40
63
AN110-01
AN300-03
T0806
T1075
T1209
T1075
T12209
T1075
T1209
T1613
2000
0%
200200 400 600 800 1000 1200 1400 1600 1800 2000 2200 2400
Max. speed (mm/s)
AS2201F-02-08
AS3201F-03-08
AS2201F-02-08
AS3201F-03-08
AS2201F-02-08
AS3201F-03-08
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS2201F-02-10
AS3201F-03-12
AS4201F-04-12
AS2201F
-02-10
AS3201F-03-12
AS4201F-04-12
AS420-03
SGP3/8
Air Cylinder
SeriesCA1Optimized Air Cylinder Drive System: Max. Operating Speed: 40, 50, 63, 80, 100
AN200-02AN300-03
Applicableto VS7-6( )
0-31
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8/2/2019 Pneumatic Cylinders 1
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Solenoidvalve
VP7-8-FG-S-04
VP4150-04
VP4150-06
VP4150-10
VP4150-12
VFR4100-04VF5144-04
SpeedcontrollerTubing
SGP1/2
SGP3/4
Silencer
AS420-04
AS500-06
Max. speed (mm/s)
8006004002000
50%
125140
125140
125140
160
180200
250300
250300
AN400-04
AN500-06
Applicable products
SpeedcontrollerTubing
SGP1/2
SGP3/4
Silencer
AS420-04
AS500-06
Solenoidvalve
VS7-8-FG-S-04
VS4140-04
VFS5100-04
VS4140-06
VFS5100-06
Max. speed (mm/s)8006004002000
50%
125140
125140
125140
125140
160180
200
160180
200
AN400-04
AN500-06
VS4130-04
Applicable products
Rubber Seal Solenoid Valve
Metal Seal Solenoid Valve
Air Cylinder
SeriesCS1Optimized Air Cylinder Drive System: Max. Operating Speed: 125, 140, 160, 180, 200
Load factor0%
Load factor0%
0-32
-
8/2/2019 Pneumatic Cylinders 1
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25
Stroke(mm)
Time (sec)0
How to View Graph
Load factor 30% Load factor 0%
20
Bore size
Example:If the load factor is 20%, divide the portion between0% to 30% into 3 parts, and find the speed at thepoint that corresponds to 20%.
This graph shows the approach time when the drive system
of a small stroke cylinder is composed of ideal equipment.
Divided according to the series of the cylinder (CJ2, CQ2, CG1, CM2),it indicates the approach time for every bore size, with a
load factor of 0% to 30%, as shown in the example diagram below.
Conditions
Pressure
Piping lengthCylinder stroke
Cylinder orientation
Load factor
0.5MPa
1m25mm
Vertically upward
0% to 30%
Optimized Air Cylinder Drive System: Short Stroke (25mm)
Extending Time Characteristics
0-33
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Applicable products
SpeedcontrollerSolenoidvalve
TubingSilencer 0.100.050.00
Extending time (sec)
Load factor30%
16
10
16
610
16
610
610
16
610
610
16
16
16
6
AS1201F-M5-23
AS1201F-M5-04
AS1201F-M5-23
AS1201F-M5-04
AS1201F-M5-23
AS1201F-M5-04
AS1201F-M5-23
AS1201F-M5-04
AS1201F-M5-23
AS1201F-M5-04
SYJ3140-M5
SYJ5120-M5
VK3120-M5
VZ1120-M5
VF1120-M5
VF1120-01
VF3130-01
TIA01
T0425
TIA01
T0425
TIA01
T0425
TIA01
T0425
TIA01
T0425
AN120-M5
AN120-01
AN110-01
0%6
10
Applicable products
Speedcontroller
Solenoidvalve
TubingSilencer 0.100.050.00
Extending time (sec)
Load factor30%
16
AS1201F
-M5-23
AS2201F-M5-04
VZS2150-01
VFS1120-01
VFS2100-01
TIA01
T0425
0%6
10
Rubber Seal Solenoid Valve
Metal Seal Solenoid Valve
Short Stroke (25mm)Air Cylinder
SeriesCJ2Optimized Air Cylinder Drive System: Extending Time: 6, 10, 16
0-34
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Rubber Seal Solenoid Valve
Metal Seal Solenoid Valve
0%
Applicable productsSpeed
controllerSolenoid
valveTubingSilencer 0.00
AS1201F-M5-23
VZS2150-01
VFS1120-01
VFS2100-01
TIA01AN110-01
Extending time (sec)
Speedcontroller
TubingSilencer Solenoidvalve
SYJ3140-M5VF1120-M5
SYJ5120-M5
VK3140-M5
VZ1120-M5
VF1120-01
VF3130-01
Applicable products
Load factor0%
0.00
30%
0.10 0.15 0.200.05
0.10 0.15 0.200.05
AS1201F-M5-23
1216
20
1216
20
1216
20
12
16 20
1216
16
20
20
12
Extending time (sec)
AN120-M5
AN110-01
TIA01
16
Load factor30%
20
Short Stroke (25mm)Air Cylinder
SeriesCQ2Optimized Air Cylinder Drive System: Extending Time: 12, 16, 20
12
0-35
-
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19/19
SpeedcontrollerTubingSilencer Solenoidvalve
Applicable products Extending time (sec)
0.00
VZS2150-01VFS1120-01VFS2100-01
AN110-01 T0425
AS2201F-01-04
Speedcontroller
TubingSilencer Solenoidvalve
Applicable products Extending time (sec)
0.00
VZS2150-01VFS1120-01VFS2100-01
AN110-01 T0425
AS2201F-01-04
Speedcontroller
TubingSilencerSolenoid
valve
VJ5120-M5
Applicable products
0%
0.00 0.10 0.15 0.200.05 0.10 0.200.05
0.10 0.15 0.200.05
0.10 0.15 0.200.05
AS2201F-01-04
AS2201F-01-23
AS2201F-01-06
20
20
SYJ3140-M5VF1120-M5
VK3140-M5
VZ1120-M5
VF1120-01
VF3130-01
AS2201F-01-04
Extending time (sec)
AN120-M5
AN110-01
T0425
T0425
TIA01
T0604
Speedcontroller
TubingSilencer Solenoidvalve
SYJ5120-M5
Applicable products
0%
0.00
30%
0.10 0.15 0.200.05
AS2201F-01-04
20
20
20
20
20
20
SYJ3140-M5VF1120-M5
VK3140-M5
VZ1120-M5
VF1120-01
VF3130-01
Extending time (sec)
AN120-M5
AN110-01
T0425
TIA01
Rubber Seal Solenoid Valve
Rubber Seal Solenoid Valve
Metal Seal Solenoid Valve
Metal Seal Solenoid Valve
30%
20
30%20
20
20
20
Load factor0%
30%
20Load factor0%
Short Stroke (25mm)Air Cylinder
SeriesCM2Optimized Air Cylinder Drive System: Extending Time: 20
Short Stroke (25mm)Air Cylinder
SeriesCG1Optimized Air Cylinder Drive System: Extending Time: 20
