SMC Corporation of America
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Search Results "ZA1071-J16L-FP1-M2"

Static Load) 40 1 2 Ek= m2 Bore size 1000 Holding force (N) 32 500 25 20 60 40 50 0 0.1 0.2 0.3 0.4 0.5 Load weight (kg) 40 Air pressure to pressurized lock port (MPa) 32 Cautions when Locking Caution 40 30 25 20 32 The holding force is the lock's ability to hold a static load that does not involve vibrations or impacts, when it is locked without a load.

Then, replace the moment of inertia B around the shaft (A) by A, m2 + m2a22 + K 3 a12 = m1 m1 (Ex.) Refer to 7 when the shape of m2 is spherical. b a A = ( ) 2B 5 2r2 Number of teeth = b K = m2 Load Type Load type Resistance load: Tf Inertial load: Ta Static load: Ts Gravity or friction force is applied to rotating direction. Rotate the load with inertia.

Connector for encoder Screw size: M2 Tightening torque: 0.1 [Nm] lock Connector for electromagnetic brake Screw size: M2 Tightening torque: 0.2 [Nm] Connector for pow er supply Screw size: M2 Tightening torque: 0.2 [Nm] (3) The servo motor fitting part of each connector is provided with a splash-proof seal (O ring).

Connector for encoder Screw size: M2 Tightening torque: 0.1 [Nm] lock Connector for electromagnetic brake Screw size: M2 Tightening torque: 0.2 [Nm] Connector for power supply Screw size: M2 Tightening torque: 0.2 [Nm] (3) The servo motor fitting part of each connector is provided with a splash-proof seal (O ring).

Connector for encoder Screw size: M2 Tightening torque: 0.1 [N m] lock Connector for electromagnetic brake Screw size: M2 Tightening torque: 0.2 [N m] Connector for power supply Screw size: M2 Tightening torque: 0.2 [N m] (3) The servo motor fitting part of each connector is provided with a splash-proof seal (O ring).

(mm) Model L Q Weight (g) 2-applicable tubing M2 D KGL04-00 18 4 6 8 10 16 17 18.5 21 10.4 4.5 4.2 4.2 6 KGL06-00 20 12.8 5.3 11.4 9.0 6 KGL08-00 23 15.2 6 21.6 14.9 10 KGL10-00 26.5 18.2 6.8 35.2 25.0 17 KGL12-00 28.5 20.9 7.5 50.2 39.7 21 12 22 KGL16-00 34 26.5 10 100 (84) 29 16 25 K Note 1) D: Max. diameter Note 2) ( ): Values for nylon.

The emitter cleaning kit (IZS30-M2) has felt at one end of the tool and rubber-bonded whetstone at the other end of the tool. Rubber-bonded whetstone Felt (White) (Green) Emitter cleaning kit (IZS30-M2) Emitter cleaning kit Saturate the felt end of the emitter cleaning tool with alcohol and insert it into the back of the emitter cartridge.

Then, replace the moment of inertia IB around the shaft (A) by IA, m2 + m2a22 + K 3 a12 I = m1 m1 (Ex.) Refer to 7 when the shape of m2 is spherical. b a IA = ( ) 2IB 5 2r2 Number of teeth = b K = m2 Load Type Load type Static load: Ts Resistance load: Tf Inertial load: Ta Only pressing force is necessary. (e.g. for clamping) Gravity or friction force is applied to rotating direction.

18 C 6 +0.030 0 depth 2.5 2.5 Width across flats 6 E 5 6 5 Prepared hole diameter 3.3 2 x M4 x 0.7 Piping port 2 x M3 x 0.5 (Plug: M-3P) F QL 6 13.5 17 Stroke: S M 2 0.05 M4 x 0.7 Mounting base side B D 7 5 2 x M3 x 0.5 Piping port Y J 3 M3 x 0.5 Vacuum suction port Z Max. 9.5 (Rubber stopper) 2.4 3.5 depth 2 2.5 +0.030 0 7 +0.030 0 depth 2 2.5 Q QL Without magnet and switch rail 2 2 x M2

High flow type (0 to 0.3 MPa) PV060 4A 40 For 4 stations 4 mounting screws (M2 x 27 L) and one gasket are included. PV060 3A 40 For 8 stations w Plate Assembly Part No. Stations Fitting Barb fitting One-touch fitting PV060-10-8A PV060-10-7A PV060-10-10A PV060-10-9A 4 stations Connector cable length 8 stations Nil 6 10 300 mm Barb fitting is included.

Find the inertial moment B for the rotation of shaft (B). 3 + m2 a22 + K (Example) When shape of m2 is a sphere, refer to 7, and K = m2 2r2 2.

The emitter cleaning kit (IZT43-M2) has felt at one end of the tool and rubber-bonded whetstone at the other end of the tool. Emitter cleaning kit Felt Rubber-bounded whetstone (IZT43-M2) Saturate the felt end of the emitter cleaning tool with alcohol and insert it into the back of the emitter cartridge. Turn the tool for several rotations to thoroughly remove dirt.

IZN10 IZN10 IZN10 IZN10 01 01 01 01 P P P P 06 06 06 06 Z Z Z Z B1 B1 B1 B1 IZN10 AC 01 02 11 Rc1/8 NPN P PNP 06 6 07 6.351/4) 16 6 ( 17 6.351/4() (3m) Z (10m) N IZN10-NT L DIN IZN10A002 IZN10B1 L B2 B3 DIN 01 06 ES 2 01 ES 17mm 2 2 02 3 3 11 Rc1/8 4 4 /IZS30 /IZS30 /IZS30 /IZS30-M2 M2 M2 M2 06 6: 07 6.351/4: 16 6 :( 17 6.35(1/4):() IZN10-CP(3m) IZN10-CPZ(10m) IZN10A003 NPN

2.5 XA XB 4 5 YC 7 7.5 Model MHS2-50D MHS2-63D MHS +0.030 0 +0.030 0 +0.074 0 +0.074 0 +0.030 0 +0.030 0 52H9 4H9 5H9 65H9 MHC MHT Series MHS2 Detailed dimensions of mounting portion of end plate D depth E MHY MHW F F -X C (mm) MRHQ D 21 24 27 32 38 42 54 A Model MHS2-16D MHS2-20D MHS2-25D MHS2-32D MHS2-40D MHS2-50D MHS2-63D B C 11 13 15 18 21 24 32 E 0.5 5.5 MA 2 x A screw depth B 5.4 M2

= d x e x f x Specific gravity m2 = 5 x 10 x 12 x 2.7 x 10-6 = 0.002 (kg) Moment of inertia around Z2 axis IZ2 = {m2 (d2 + e2)/12} x 10-6 IZ2 = {0.002 x (52 + 102)/12} x 10-6 = 0.02 x 10-6 (kgm2) IB = 0.02 x 10-6 + 0.002 x 472 x 10-6 = 4.4 x 10-6 (kgm2) I = 9.0 x 10-6 + 4.4 x 10-6 = 13.4 x 10-6= 0.13 x 10-4 (kgm2) Moment of inertia around Z axis IB = IZ2 + m2r22 x 10-6 Total moment of

= d x e x f x Specific gravity m2 = 5 x 10 x 12 x 2.7 x 10-6 = 0.002 (kg) Moment of inertia around Z2 axis IZ2 = {m2 (d2 + e2)/12} x 10-6 IZ2 = {0.002 x (52 + 102)/12} x 10-6 = 0.02 x 10-6 (kgm2) IB = 0.02 x 10-6 + 0.002 x 472 x 10-6 = 4.4 x 10-6 (kgm2) I = 9.0 x 10-6 + 4.4 x 10-6 = 13.4 x 10-6= 0.13 x 10-4 (kgm2) Moment of inertia around Z axis IB = IZ2 + m2r22 x 10-6 Total moment of

Calculate (1) (Wmax) from the graph of max. payload (W1, W2, W3) and calculate (2) and (3) (Mmax) from the maximum allowable moment graph (M1, M2, M3).

Calculate (1) (Wmax) from the graph of max. payload (W1, W2, W3) and calculate (2) and (3) (Mmax) from the maximum allowable moment graph (M1, M2, M3).

Moment (Nm) Moment (Nm) Moment (Nm) Load mass (kg) M1 = F1 x L1 Piston speed V (mm/s) ML1C/M2, M3 M2 = F2 x L2 M3 = F3 x L3 Piston speed V (mm/s) (How to calculate the load ratio) A. Consider (1) max. load mass, (2) static moment, (3) dynamic moment (when stopper collides) when calculating the max. allowable moment and load mass.

= d x e x f x Specific gravity m2 = 5 x 10 x 12 x 2.7 x 10-6 = 0.002 (kg) Moment of inertia around Z2 axis IZ2 = {m2 (d2 + e2)/12} x 10-6 IZ2 = {0.002 x (52 + 102)/12} x 10-6 = 0.02 x 10-6 (kgm2) IB = 0.02 x 10-6 + 0.002 x 472 x 10-6 = 4.4 x 10-6 (kgm2) I = 9.0 x 10-6 + 4.4 x 10-6 = 13.4 x 10-6= 0.13 x 10-4 (kgm2) Moment of inertia around Z axis IB = IZ2 + m2r22 x 10-6 Total moment of