non-rotating function without having to use a rod with flats, offering increased bearing and seal life.Single acting, spring return/extend, plate cylinder , Possible to mount without brackets , Auto switch mounting grooves prevent projection of auto switches , Auto switches can be mounted in 4 directions , Strokes up to 20mm, Series Catalog, DOUBLE CLEVIS, ACTUATOR, MU COMPACT CYLINDER, M2
Max. operating pressure differential (MPa)Flow characteristicsMax. system pressure (MPa)Mass (kg) Av x 10-6 (m2)Cv convertedVCS221/8 ( 6A)1/4 ( 8A)21.03.80.161.01/8: 0.211/4: 0.24
ModelFlow-rate characteristicsMaximum operating pressure differential (MPa)Note)Weight(g) AV (x 10 6 m2)Conversion Cv11/8, 1/42VX2125.50.231300
ModelFlow-rate characteristicsMaximum operating pressure differential (MPa)Note)Weight(g) AV (x 10 6 m2)Conversion Cv11/8, 1/42VX2125.50.231300
Part Number Description: DOUBLE ROD CLEVIS Product Line: A Product Line Description: ACTUATOR Family Code: 420 Family Description: CG ROUND BODY CYLINDER Class Code: M2 Part Code: 2 Reference Code: E This is a custom made item that is NOT returnableClick here to report information errorImage shown may not match exact part number
Double acting, single rod, standard type, Bore sizes (mm): 40, 50, 63, 80, 100, Standard strokes (mm): 25 to 700, Maximum operating pressure: 1.0MPa, Auto switch capable, DETACHABLE REAR CLEVIS KIT, ACTUATOR, CA1/CA2 TIE-ROD CYLINDER, M2, 40MM CA1 KIT/ACCESSORY, 1.75899 lb
ModelFlow-rate characteristicsMaximum operating pressure differential (MPa)Note)Weight(g) AV (x 10 6 m2)Conversion Cv11/8, 1/42VX2125.50.231300
ModelFlow-rate characteristicsMaximum operating pressure differential (MPa)Note)Weight(g) AV (x 10 6 m2)Conversion Cv11/8, 1/42VX2125.50.231300
ModelFlow-rate characteristicsMaximum operating pressure differential (MPa)Note)Weight(g) AV (x 10 6 m2)Conversion Cv21/4, 3/84VX22215.00.631460
ModelFlow-rate characteristicsMaximum operating pressure differential (MPa)Note)Weight(g) AV (x 10 6 m2)Conversion Cv11/8, 1/42VX2125.50.231300
ZVB20_E_ Ionizer emitter cleaning kit: The emitter is cleaned with IZS30-M2. 3. Insert the emitter assembly back to the port using caution not to damage the end of the emitter, and screw it in. Note) 4.1.2 Replacement of Emitter 1. Rotate the handle of the emitter assembly by hand and remove it. 2. Replace it with a new emitter assembly. 3.
Ionizer emitter cleaning kit: The emitter is cleaned with IZS30-M2. 3. Insert the emitter assembly back to the port using caution not to damage the end of the emitter, and screw it in. Note) 4.1.2 Replacement of Emitter 1. Rotate the handle of the emitter assembly by hand and remove it. 2. Replace it with a new emitter assembly. 3.
Dynamic viscosity [m2/s] Viscosity [Pas] Density [kg/m3] Viscosity and dynamic viscosity are obtained by the formulas below. Dynamic viscosity [cSt] Viscosity [mPas] Density [g/cm3] 1 [mPas1 [cP] 13 Working Principle 1. When air is supplied, it passes through the switching valve and enters drive chamber B. 2.
Dynamic viscosity [m2/s] Viscosity [Pas] Density [kg/m3] Viscosity and dynamic viscosity are obtained by the formulas below. Dynamic viscosity [cSt] Viscosity [mPas] Density [g/cm3] 1 [mPas1 [cP] 14 Working Principle 1. When air is supplied to P1 port, it enters drive chamber A. 2. Diaphragm A moves to the left, and at the same time diaphragm B also moves to the left. 3.
Dynamic viscosity [m2/s] Viscosity [Pas] Density [kg/m3] Formulas below can be used for common units 1cP = 1mPas = 10-3Pas 1cSt = 1mm2/s = 10-6m2/s 13 Working Principle 1. When air is supplied, it passes through the switching valve and enters drive chamber B. 2.
Dynamic viscosity [m2/s] Viscosity [Pas] Density [kg/m3] Formulas below can be used for common units 1cP = 1mPas = 10-3Pas 1cSt = 1mm2/s = 10-6m2/s 14 Working Principle 1. When air is supplied to P1 port, it enters drive chamber A. 2. Diaphragm A moves to the left, and at the same time diaphragm B also moves to the left. 3.
Dynamic viscosity [m2/s] Viscosity [Pas] Density [kg/m3] Formulas below can be used for common units 1cP = 1mPas = 10-3Pas 1cSt = 1mm2/s = 10-6m2/s Pulsation Attenuating Capacity The process pump generates pulsation because it discharges a liquid using two diaphragms.
HANDLE LOCK NUT SETTING SPRING RELIEF VALVE EXH&BLEED PILOT VALVE DIAPHRAGM SUP OUT ELEMENT DRAIN COCK DRAIN SUP 1 Setting Main Composite Displacement Pressure MPa +/-Force Displacement OUT Spring Valve spring m m N/m MPa/m m/N Diaphragm Force N m2 Block Diagram -5- 3.
Nm N M1 M M3 W W2 W W4 ML2B25 10.0 1.2 3.0 200.0 58.0 65.0 100.0 ML2B32 20.0 2.4 6.0 300.0 80.0 96.0 150.0 ML2B40 40.0 4.8 12.0 500.0 106.0 140.0 250.0 ML2B25 ML2B32 ML2B40 J 0.43 0.68 1.21 18 ML2B/M1 ML2B/W1 ML2B/W1 0 0 0 Nm 0 0 0 N N 0 m/s m/s m/s ML2B/M2 ML2B/W2 ML2B/W2 N m N N m/s ML2B/M3 m/s m/s 20 ML2B/W3 ML2B/W3 10 Nm 5 3 2 1 N N m/s m/s m/s ML2B/W4 500 N 00 N
Please refer below for calculation of kinetic energy. 2 I 2 1 E = E : Kinetic energy J : Angular speed rad/s I: Inertia moment kg/m2 Allowable kinetic energy for the rotary actuator is limited. The limit of rotation time is obtained by calculating inertia moment. Please refer following for obtaining inertia moment.