PAB-OM-B006-B

When air is supplied to the port A IR S UP, the pump w ill operate and exhaust noise w ill start to come out of the port A IR E X H. F luid flow s from the suction port F L UID IN to the discharge port F L UID OUT . T o stop the pump. E xhaust pressure supplied to the pump. Pump also stops w hen ball valve is closed on the discharge side.

PAB-OM-B007-B

When air is supplied to the port A IR S UP, the pump w ill operate and exhaust noise w ill start to come out of the port A IR E X H. F luid flow s from the suction port F L UID IN to the discharge port F L UID OUT . It takes a w hile for pulse attenuator to operate. pump also stops w hen ball valve is closed on the discharge side.

INFORMATION Modular Connection Type Residual Pressure Relief 3 Port Solenoid Valve For connecting to F.R.L. units AC25-A AC30-A AC40-A VP500 IN OUT VP700 Allows for space saving and reduced piping labor. Power consumption: 0.35 W (Without light) EXH Exam

Surge voltage suppressor (for D YS, D YZ) 2 locations 70 52 Light (for D YZ) 24.5 18 25.5 Bracket (Option) Pg7 18 83 Breathing hole (6.2) 48.6 42.2 90.4 41.9 Max.10 39.6 Manual override part 19.9 IN OUT OUT 2 1 IN EXH 3 EXH 40 2 x M5 x 0.8 thread depth 9 (for bracket mounting) Applicable cable O.D. 3.5 to 7 (24.5) 64.3 56.8 Details of manual override part (for manual operation) 38.5 7 Type

CRB2-OM00001

I = m x r2 m:Mass (kg) This is moment of inertia to rotation axis of an object with mass m in the distance from the rotation axis. 9 How To Calculate Moment of Inertia Calculation of Moment of Inertia 10 Graph 1 How To Read Graph 1. Example 1) When CRB2BW40 is used in conditions of moment of inertia of load inertia of load: 9.5x10-5 kgm2 and rotation time: 0.12 sec/90.

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

Magnet Gripper Unit for Collaborative Robots

Centor of gravity Y Y X Z Flange mounting surface Z X Center of gravity(mm) X Y Z 2.4 0.0 42.6 12 - 4. Product Specifications * For detailed specifications not included in this document, please refer to the our website (www.smcworld.com) or operation manual. 4-1.

Magnet Gripper Unit for Collaborative Robots

Center of gravity Y Y X Z Flange mounting surface Z X Center of gravity X Y Z -0.1 -0.5 55.8 12 - 4.Product Specifications * For detailed specifications not included in this document, please refer to the our website (www.smcworld.com) or operation manual. 4-1.

Ｍ agnet Gripper Unit for Collaborative Robots

Center of gravity Y Y X Z Flange mounting surface Z X Center of gravity X Y Z -0.1 -0.5 55.8 12 - 4.Product Specifications * For detailed specifications not included in this document, please refer to the our website (www.smcworld.com) or operation manual. 4-1.

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns

25 to 85C (with no freezing and condensation)1000 VAC for 1 min. between external terminal and case50M or more (500 VDC Mega) between external terminal and case.10 to 500 Hz with a 1.5 mm amplitude or 98 m/s2 acceleration, in each X, Y, Z direction for 2 hrs, whichever is smaller. (de-energized)490 m/s2 in X, Y, Z directions 3 times each1000 Vp-p, Pulse width 1 ?s, Rise time 1 ns