Rodless Cylinder for Vacuum Series CYV ø15, ø32 1

Static moment M2 = m g (L1 + B) 103 m x g = 1 9.8 (50 + 48) 103 Review M2. Since M1 and M3 are not generated, review is unnecessary. = 0.96 [Nm] 2 = M2/M2 max = 0.96/4 = 0.24 M Guide shaft mounting surface L1 B We = 5 x 103m g U = 5 x 103 1 9.8 300 = 14.7 [N] Me3 = 1/3 We(L2 + A) 103 3.

CYV

Static moment M2 = m g (L1 + B) 103 m x g = 1 9.8 (50 + 48) 103 Review M2. Since M1 and M3 are not generated, review is unnecessary. = 0.96 [Nm] 2 = M2/M2 max = 0.96/4 = 0.24 M Guide shaft mounting surface L1 B We = 5 x 103m g U = 5 x 103 1 9.8 300 = 14.7 [N] Me3 = 1/3 We(L2 + A) 103 3.

CYP

L1 M2 = m g (L1 + B) 103 2. Static moment m x g = 1 9.8 (50 + 48) 103 Review M2. Since M1 & M3 are not generated, review is unnecessary. = 0.96 [Nm] 2 = M2/M2 max = 0.96/4 = 0.24 M Guide shaft mounting surface L1 B We = 5 x 103 m g U = 5 x 103 1 9.8 300 = 14.7 [N] Me3 = 1/3 We (L2 + A) 103 3.

CYPSeries

Static moment M2 = m g (L1 + B) 103 m x g = 1 9.8 (50 + 48) 103 Review M2. Since M1 & M3 are not generated, review is unnecessary. = 0.96 [Nm] 2 = M2/M2 max = 0.96/4 = 0.24 M Guide shaft mounting surface L1 B We = 5 x 103 m g U = 5 x 103 1 9.8 300 = 14.7 [N] Me3 = 1/3 We (L2 + A) 103 3.

CYPSeries

Static moment M2 = m g (L1 + B) 103 m x g = 1 9.8 (50 + 48) 103 Review M2. Since M1 & M3 are not generated, review is unnecessary. = 0.96 [Nm] 2 = M2/M2 max = 0.96/4 = 0.24 M Guide shaft mounting surface L1 B We = 5 x 103 m g U = 5 x 103 1 9.8 300 = 14.7 [N] Me3 = 1/3 We (L2 + A) 103 3.

Rodless Cylinder for Vacuum Series CYV ø15, ø32

Static moment M2 = m g (L1 + B) 103 m x g = 1 9.8 (50 + 48) 103 Review M2. Since M1 and M3 are not generated, review is unnecessary. = 0.96 [Nm] 2 = M2/M2 max = 0.96/4 = 0.24 M Guide shaft mounting surface L1 B We = 5 x 103m g U = 5 x 103 1 9.8 300 = 14.7 [N] Me3 = 1/3 We(L2 + A) 103 3.

Precision Air Slide Table Series MXP ø6, ø10, ø12, ø16, (ø8: new addition, see 8-8-23 ) 1

Dimensions 2-M2 x 3 (Countersunk head Phillips screw for precision instruments) 2-M2 x 3 (Cross recessed head machine screw for precision instruments) 2-M3 x 8 (Bolt with hex. hole) 2-M2 x 5 (Bolt with hex. hole) MXP10/12/16 MXP6 Applicable size Switch rail part no.

MHC2

MHCM2-7S D8.3 205.2 2-M2 x 0.4 thread (Mounting thread) 2-M2 x 0.4 depth 4 (Mounting thread) 2.5 2 1.5 When open 20 When closed 7 10 6 4.5 15 11 7.7 1.8 16.5 6 100.05 (23) M3 x 0.5 (Finger closing port) 2-M2 x 0.4 thread (Attachment mounting thread) 4 0 0.03 3 12-8-23

CY1

Static moment M2 = WL1 = 100.05 = 0.5 [Nm] 2 = M2/M2max = 0.5/16 = 0.031 W = 1 [kg] =10 [N] Investigate M2. Since M1 & M3 are not generated, investigation is unnecessary. Find the value of M2max when Va = 300mm/s from . W M L1 From V = 1.4Va We = WV = 4/100101.4300 = 168 [N] Me3 = 1/3We(L2-A) = 1/31680.032 = 1.8 [Nm] 3 = Me3/Me3max = 1.8/7.2 = 0.250 3.

MHC2

MHCM2-7S D8.3 205.2 2-M2 x 0.4 thread (Mounting thread) 2-M2 x 0.4 depth 4 (Mounting thread) 2.5 2 1.5 When open 20 When closed 7 10 6 4.5 15 11 7.7 1.8 16.5 6 100.05 (23) M3 x 0.5 (Finger closing port) 2-M2 x 0.4 thread (Attachment mounting thread) 4 0 0.03 3 12-8-23

Angular Air Gripper Series MHC2/MHCA2/MHCM2

= d x e x f x Relative density m2 = 4 x 5 + 6 x 2.7 x 10-6 = 3.24 x 10-4 (kg) Inertial moment around Z2 axis IZ2 = {m2 (d2 x e2) / 12} x 10-6 IZ2 = {3.24 x 10-4 x (42 + 52) / 12} x 10-6 = 1.11 x 10-9 (kg.m2) = 1.11 x 10-9 + 3.24 x 10-4 x 23.52 x 10-6 = 0.18 x 10-6 (kg.m2) Inertial moment around Z axis IB = IZ2 x m2r22 x 10-6 IB Thus, the total inertial moment is I = IA x B I = 0.20 x 10

Precision Air Slide Table Series MXP ø6, ø10, ø12, ø16

Dimensions Vacuum suction 2-M2 x 3 (Counter sunk Phillips screw for precision equipment) 2-M2 x 3 (Round head Phillips screw for precision equipment ) Relief port Cover installed in end cap section Vacuum suction Relief port 11-MXP 2-M3 x 8 (hexagon socket head screw) 2-M2 x 5 (hexagon socket head screw) MXP10, 12, 16 MXP6 Note Applicable size Switch rail model MXP 65 MXP-AD 65 MXP 6-10 MXP10

Sine Rodless Cylinder Series REBR Direct Mount Type

Static moment M2 = WL1 = 100.2 = 2 [Nm] 2 = M2/M2 max = 2/16 = 0.125 W = 1 [kg] = 10 [N] W Review M2. Since M1 & M3 are not generated, review is unnecessary. M L1 3. Dynamic moment We = 5 x 10-3WgU = 5 x 10-31.9.8500 = 25 [N ] Me3 = 1/3We(L2-A) = 1/3250.182 = 1.52 [Nm] 3 = Me3/Me3max = 1.52/6 = 0.25 Me3 Review Me3. (For Memax, find the value in when U = 500mm/s.)

Smooth Cylinder/Low Speed Cylinder

As a guide, when W + P0a>P0A, adjust P1 to make W + P1a = P0A. W: Load (N) P0: Operating pressure (MPa) P1, P2: Reduced pressure (MPa) a: Rod side piston area (mm2) A: Head side piston area (mm2) D-X 1241 Smooth Cylinder Specific Product Precautions 2 Be sure to read before handling.

Title not found

L1 L2 L2 Main circuit power supply L3 L3 Regenerative converter N P1 P2 N DC reactor Connect between P1 and P2. (Connected at time of shipping.) P1 Control Circuit Power Supply Connector: CNP2 Accessory P2 Terminal name Function Function details P P C D L11 L21 Connect between P and D. (Connected at time of shipping.)

Series 10-, 21- AR-B Regulator, Series 10-, 21- ARK-B Regulator with Backflow Function

10-/21-AR20-B30-B: Max. 3.5 10-/21-AW40-B: Max. 5 AR50-B/60-B 10212 x P1 (Port size) A BB Pressure gauge (Option) C H K IN OUT B Q AA Applicable tubing 6/4 P2 (Pressure gauge port size) R F J M D J U Bracket (Option) T N S Optional specifications Standard specifications Model Round type pressure gauge Bracket mounting size Panel mount P1 P2 A B Note 1) C D Q R S T U V W Y Z F J K AA BB H

VN-OMP0001

) 12(P1) 12(P1) 12(P1) 10(P2) 10(P2) 10(P2) 10(P2) 12(P1)10(P2) Air operated Solenoid Port VNC02 12 (P1) External pilot Bleed port External pilot 10 (P2) Bleed port External pilot Pilot exhaust Ass Ass Ass Ass y y y y VNH VNH VNH VNH () 3 3 3 3 (VNH (VNH (VNH (VNH ) ) ) ) VNH13 3 5MPa 7 VN-OMP0001 VNC VNC VNC VNC VNH VNH VNH VNH / / / / (VNC (VNC (VNC (VNC ) ) ) ) /30m /30m 0.49MPa

4 Way • 4 and 5 Port, Rubber Seal • Solenoid Pilot Valve, Series SYJ3000

1 Q=226S P(P2+0.1013) Sonic flow : P1+0.1013 1.89(P2+0.1013) Do not use in an explosive environment. 2 Q=113S(P1+0.1013) Q : Flow rate [ /min(ANR)] S : Effective area (mm2) P : Differential pressure (P1-P2) [MPa] P1 : Upstream pressure [MPa] P2 : Downstream pressure [MPa] Do not use in locations subject to heavy vibration and/or shock.

Stainless Steel High Vacuum, Angle/In-line Valve, Angle type Series XM, In-line type Series XY

Both of these become slower as the operating pressure is increased. 14 Technical Data 5 He leakage 8 Exhaust time (low/medium vacuum) The time (t) required to exhaust a chamber at low vacuum with volume V (l), from pressure P1 to P2, using a pump with pumping speed S (l/sec) is t=2.3(V/S)log(P1/P2).

VQ5000

How to Find the Flow Rate (at air temperature of 20C) Subsonic flow when P1 + 0.1013 < 1.89 (P2 + 0.1013) Q = 226S P(P2 + 0.1013) Sonic flow when P1 + 0.1013 1.89 (P2 + 0.1013) Q = 113S (P1 + 0.1013) Q: Air flow rate [l/min (ANR)] S: Effective area (mm) P: Differential pressure (P1P2) [MPa] P1: Upstream pressure [MPa] P2: Downstream pressure [MPa] Correction for different air temperatures