EX510 EX510-VSS EX510-VSQ L 20 20 L 20 20 2.8 2.8 B C A How to Order EX510-V + 10 S S EX510-VWS EX510-VWQ Output Valve connector L 20 20 L 20 20 S W 1 point 2 points Nil S Q None For SY, SYJ series For VQ, VQZ series Note) Cable length (L) 2.8 2.8 10 30 1 m 3 m B C A + Note) VQ is compatible with the positive common only.
2 For 40 to 100 12 BUSHING 1 32 TIE ROD 4 13 HEXAGON SOCKET CAP BOLT 4 33 TIE ROD NUT 8 14 HEXAGON SOCKET CAP BOLT 2 34 WEAR RING B 1 15 WEAR RING A 2 35 ROD END NUT 1 16 PISTON SEAL A 1 36 MAGNET (1) For MDWB 17 ROD SEAL A 1 37 ROD SEAL B 1 18 GASKET 1 38 PISTON SEAL B 1 19 ELEMENT 1 39 CUSHION SEAL 2 20 RELEASE BOLT 1 40 CUSHION VALVE SEAL 2 41 CYLINDER TUBE GASKET 2 43 - Revision history
1 34 FLAT WASHER (8) In case of 80,100 13 HEXAGON SOCKET CAP BOLT 4 35 BUMPER A 1 14 HEXAGON SOCKET CAP BOLT 2 36 BUMPER B 1 15 WEAR RING A 2 37 WEAR RING B 1 16 PISTON SEAL A 1 38 ROD END NUT 1 17 ROD SEAL A 1 39 MAGNET (1) In case of CP96ND* 18 GASKET 1 40 ROD SEAL B 1 19 ELEMENT 1 41 PISTON SEAL B 1 20 RELEASE BOLT 1 42 CUSHION SEAL A 1 21 SEAL WASHER 1 43 CUSHION SEAL B 1 22 HEXAGON
1 34 FLAT WASHER (8) In case of 80,100 13 HEXAGON SOCKET CAP BOLT 4 35 BUMPER A 1 14 HEXAGON SOCKET CAP BOLT 2 36 BUMPER B 1 15 WEAR RING A 2 37 WEAR RING B 1 16 PISTON SEAL A 1 38 ROD END NUT 1 17 ROD SEAL A 1 39 MAGNET (1) In case of C96ND* 18 GASKET 1 40 ROD SEAL B 1 19 ELEMENT 1 41 PISTON SEAL B 1 20 RELEASE BOLT 1 42 CUSHION SEAL A 1 21 SEAL WASHER 1 43 CUSHION SEAL B 1 22 HEXAGON SOCKET
BS Bumper bolt (resin tipped): Plate B side or C side Shock absorber Applicable Auto Switches/Refer to pages 1575 to 1701 for further information on auto switches.
Mounting side Closed C B A A Open D Open E F F Mounting side MHL2-25DZ-X86/X86A MHL2-25D Z-X86/X86A 1 2 200 200 160 160 Gripping force [N] Gripping force [N] Pressure 0.6 MPa Pressure 0.6 MPa 0.5 MPa 120 120 0.5 MPa 0.4 MPa 0.4 MPa 80 80 0.3 MPa 0.3 MPa Closed F (Fingers closed) 40 40 0 0 40 80 120 160 200 0 0 40 80 120 160 200 [mm] Model A B C D E F Weight [g] MHL2-25DZ-X86(A) 9 106 128
MY-S25 MY-S32 MY-S40 Applicable cylinder A 105 130 145 B 119 148 167 C 35 45 55 D 50 64 80 E 8 11.7 14.8 F 5 6 8.5 G 9.5 11 14 H 5.5 6.6 9 J M6 x 1 M8 x 1.25 M10 x 1.5 A B A B A B MY1H25 MY1H32 MY1H40 MY1 HT Side supports consist of a set of right and left supports.
(The tightening torque should be about 2 to 3 Nm.) (5) Modification of the detecting position should be made in the condition of 3. 16 Table 3 Table 4 17 Table 5 Auto switch model D-Y59 D-Z7 D-Z80 D-Y69 D-Y7P D-Y7H D-Y7W D-A3 D-A44 D-G39 D-K39 D-M9 D-M9V D-M9A D-F5 D-J5 D-J51 D-Y7BA D-P4DW D-A5 D-A6 D-A9 D-A9V Bore size A B A B A B A B A B A B A B A B A B 32 10 6.5 14 10.5 7.5 4 7.5 4 7 3.5
Side support B MY-SB 2 x J MY1B MY1B MY1H E A B MY1B C D MY1M (mm) MY1C A 61 70 87 B C D E F G H J Part no.
D-Y7W D-Y7WV 10 2 pcs. 15 Auto Switch Proper Mounting Position (Detection at Sroke End) Auto Switch Proper Mounting Position Auto switch (mm) Auto switch model D-Z7/Z80 D-Y59/Y7P D-Y69/Y7PV D-Y7W D-Y7WV D-M9 D-M9V D-M9W D-M9WV D-A9 D-A9V Bore size (mm) A B A B A B A B 12 16 20 25 32 40 50 63 80 100 6 8 2 4 1 3 9 9 5 5 4 4 9.5 12.5 5.5 8.5 4.5 7.5 9.5 13 5.5 9 4.5 8 10.5 12 6.5 8 5.5 7 14.5
If air pressure is applied from the B port side, the shaft rotates counterclockwise.
Flat face and parallel key position indicate B port is pressurized. adjustment 5 adjustment 5 adjustment 5 Key or flat Key or flat B Port B Port Angle Angle Angle A Port A Port Angle adjustment 5 Rotation range180 Rotation range90 adjustment 5 Key or flat B Port Angle A Port Rotation range360 -18- Internal structure and parts description 2-1 Size 10,15 24 Heat transferred label 1 23 Seal
Calculate the moment of inertia for A and B separately as shown in the figures on the right. A part B part Procedure Calculation Calculation example 1. Check the operating conditions, dimensions of attachment, etc. Operating model: MHY2-16D Opening time: 0.15 s a = 40 (mm) b = 7 (mm) c = 8 (mm) d = 5 (mm) e = 10 (mm) f = 12 (mm) A part a b c B part e f d 2.
Operating model: MHY2-16D Opening time: 0.15 s a = 40 (mm) b = 7 (mm) c = 8 (mm) d = 5 (mm) e = 10 (mm) f = 12 (mm) A part a b Courtesy of Steven Engineering, Inc.-230 Ryan Way, South San Francisco, CA 94080-6370-Main Office: (650) 588-9200-Outside Local Area: (800) 258-9200-www.stevenengineering.com c B part e f d 2.
B 23.5 A 7.0 B A 10.5 (13.0) B Bore size 50 63 80 23.5 19.5 25.5 12.5 25.5 14.5 25.5 10.5 21.5 14.0 (16.5) 39.5 19.5 39.5 21.5 39.5 17.5 35.5 21.0 (23.5) The values inside ( ) are for the D-A96/A96V.
+ Stroke K A + Stroke M G J W 16 Minimum lead wire bending radius 10 Auto switch Q F 4 x N through H thread effective depth C 2 x M3 x 0.5 (Port size) I D M E Z L B + Stroke K A + Stroke M G J W Standard [mm] Bore size Stroke range Without magnet for auto switch With magnet for auto switch C D E F G H I J K L M N Q W Z A B A B 12 5 to 30 19.5 16 23 19.5 6 6 23 4 21.5 M3 x 0.5 26 1.5 5 3.5
Auto Switch Proper Mounting Position (Detection at Stroke End) Reed auto switch Solid state auto switch D-A9 D-M9 D-M9W Hs Hs 22 B A 24.5 B A A and B are the dimensions from the end of the head cover/rod cover to the end of the auto switch. A and B are the dimensions from the end of the head cover/rod cover to the end of the auto switch.
Find the moment of inertia I for the rotation of shaft (B). B 2. I is converted to the rotation of the shaft (A). B 2 r I = m2 2 b a I I = A B Number of teeth=b 5. Solid sphere Position of rotational axis: Through the center of diameter 2 2 r I = m5 27 - Kinetic energy Table (9) shows the allowable kinetic energy of the rotary actuator. The end angular speed is obtained by: Table 9.
A Hs 32 to 63 D-P3DWA B A Hs Auto Switch Proper Mounting Position Auto Switch Mounting Height (mm) (mm) D-M9 D-M9V D-M9W D-M9WV D-M9A D-M9AV Auto switch model Auto switch model D-A9V D-P3DWA D-M9V D-M9WV D-M9AV D-A9 D-A9V D-P3DWA Bore size (mm) Bore size (mm) B 11 12.5 13 15 16 20 A 11 10.5 12 14 13.5 16.5 B 7 8.5 9 11 12 16 A 6 7.5 9.5 9 12 B 8 8.5 10.5 11.5 15.5 Hs 24.5 26 29 33 38.5
Operating equipment: MHC2-6D A part a b c d e f = 20 (mm) = 3 (mm) = 4 (mm) = 4 (mm) = 5 (mm) = 6 (mm) b c a e B part f d z f1 x.Calculate the inertial moment of the attachment. Assuming the attachment material is aluminium alloy (relative density=2.7), r1= 16.4 (mm).