port 2 2 3-0.02 0 3-0.02 0 8-0.05 0 +0.02 3 x 3 0 depth 6 (A, B, C common view) Open: 16, Closed: 10 12 12 2 x M3 x 0.5 thread depth 6 (Thread for mounting attachment) 4 4 4 4 With Auto Switch: MDHR2-10R 11223 x M3 x 0.5 thread depth 6 P.C.D.24 (Mounting thread) MDHR2-10E port location 112233.4 B 32 36 120 120 D A 32 +0.02 2 x 3 0 depth 6 9.5 Finger closing port Finger opening port M3 x
8370: JIS B 8361: JIS B 9960-1: 1 ) JIS B 8433: *2) 1. 2. 3. 1. 2. 3. 4.
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.
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
Inversion Traveling direction of cylinder Rod extending Rod retracting A-phase pulse B-phase pulse Count In rod extending direction, A-phase turns on first, then B-phase turns on with the delay of approximately 90 phase difference. In rod retracting direction, B-phase turns on first, then A-phase turns on with the delay of approximately 90 phase difference.
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.
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.
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).
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 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 e B part f d z f1 x.Calculate the inertial moment of the attachment.
Proper Auto Switch Mounting Position (Detection at stroke end) C D A B D-A9, D-A9V D-M9, D-M9V, D-M9W, D-M9WV B B Series model A Series model A Operating range Operating range MY2C16 MY2C16 44 116 48 112 MY2H16 MY2H16 46 114 50 110 MY2HT16 MY2HT16 11 8.5 70 90 74 86 MY2C/H/HT25 MY2C/H/HT25 54 156 58 152 MY2C/H/HT40 MY2C/H/HT40 85 245 89 241 Series model C Series model C D D Operating range
A-phase pulse B-phase pulse 11 12 11 10 10 Count multiplier In rod extending direction, A-phase turns on first, then B-phase turns on with the delay of In rod retracting direction, B-phase turns on first, then A-phase turns on with the delay of approximately 90 phase difference. approximately 90 phase difference. Counter performs addition in and does subtraction in .
B B For D-F8 Operating range at proper mounting position (Lm/2) Most sensitive position Operating range of single auto switch (Lm) 11-6-10
ad an an ju t r t r st en m en en stm m t r st ju ju an ad ad ge le e Ang 5 gl n A B port A port B port A port 90 A 5 n gl ge e an ad t r ju en st m 180 Note) The drawings show the rotation range for the shaft's single flat.
Nil (Example) M9N 118in (3 m) . L M9NL 197in (5 m) .
Auto Switch Proper Mounting Position (Detection at Stroke End) D-A9 D-M9 22 (24.5) A 2.8 0.5 W B ( ): Dimensions for D-A93 Bore size (mm) D-A9 A B W 6 10 16 36 11.5 9.5 (7) D-M9 A B W 29.5 5.5 3.5 (1) 29.5 9.5 7.5 (5) 33.5 9.5 0.5 33.5 13.5 3.5 40 15.5 5.5 20 41 15 13 (10.5) 45 19 9 25 40.5 16.5 14.5 (12) 45.5 20.5 10.5 Note) The above mentioned values are indicated as a guide for auto switch
W B D-A9, D-A9V D-M9, D-F9W D-M9V, D-F9WV Bore size (mm) B A W A B W A 10 16 20 25 32 0.5 7.5 2.5 7.5 16.5 3 12.5 16.5 1.5 (1) 0 8 1.5 8 20 4 16 20 2 (0.5) 2 10 0 10 24 6 20 24 4 (1.5) 3.5 11.5 1.5 11.5 26.5 7 22.5 26.5 5.5 (3) 4.5 12.5 2.5 12.5 27.5 8 23.5 27.5 6.5 (4) Note 1) Figures in the table above are used as a reference when mounting the auto switches for stroke end detection.
RHC B 16 60 Z CJ2Y RZQ 16 With auto switch B Z CDJ2Y 60 B Auto switch M9BW Smooth cylinder With auto switch (Built-in magnet) Auto switch mounting type Nil Without auto switch A Rail mounting B Band mounting Head cover port location * For applicable auto switches, refer to the table below. * For rail mounting, screws and nuts for 2 auto switches come with the rail. * Refer to page 153 for
MXS (mm) B E MXQ Stroke Stroke Model A 75 20 50 10 20 10 30 100 30 50 75 100 MXF MXF8 13.5 9 14 14 1 4 4 MXF12 16 17.1 33.1 17.1 7.1 7.1 23.1 MXW MXF16 21.2 29.8 19.8 50.8 9.8 19.8 40.8 MXF20 23.4 MXJ 26.7 24.7 74.7 50.2 14.7 16.7 40.2 64.7 Solid State Auto Switch: D-M9BV, D-M9NV, D-M9PV, D-M9BWV, D-M9NWV, D-M9PWV MXP (mm) B B E MXY Stroke Stroke Model A 20 20 10 30 50 75 100 10