Stopper Cylinder 2 20 20 10 10 10 5 4 3 4 5 3 4 5 3 2 2 2 1 1 1 1 5 10 20 10 5 1 20 30 10 5 1 20 30 Transfer speed (m/min) Transfer speed (m/min) Transfer speed (m/min) Lever-type weight of transferred object and transfer speed graphs (graphs (2) and (3)) show the values at room temperature (20 to 25C).
Q = qm x C x (T2 T1) r x qv x C x iT 60 = 1 x 10 x 4.2 x 103 x 2.0 60 = Q = qm x C x (T2 T1) 860 = 1400 [J/s] 1400 [W] g x qv x 60 x C x iT 860 = Cooling capacity = Considering a safety factor of 20%, 1400 [W] x 1.2 = 1680 [W] 1 x 10 x 60 x 1.0 x 103 x 2.0 860 = qv: Circulating fluid flow rate Q: Heat generation amount Users equipment T2: Return temperature 120 [cal/h] 860 = 1400 [W]
AC 110 12 2 12 3 q e w e t y 220 10 1 10 1.5 440 6 1 3 1 550 5 0.8 2 0.5 r b contact w a contact r q DC 24 3 2.5 3 2.5 C C 48 1.5 1.2 1.5 1.25 When rising pressure q w = ON e r = OFF When rising pressure q e r y = ON q w r t = OFF 110 0.5 0.25 0.5 0.2 220 0.25 0.1 0.25 0.1 Insulation resistance: 100 M or more at 500 VDC by megameter Voltage resistance: 2000 VAC/1 min. 16-9-5 2 Series
, CA 94080-6370-Main Office: (650) 588-9200-Outside Local Area: (800) 258-9200-www.stevenengineering.com Usable range 10 CX 10 Usable range 5 5 D-X 1 0 1 2 3 4 5 6 1 0 1 2 3 4 5 6 7 8 9 1 0 1 11 2 1 31 41 5 7 8 9 10 11 20Distance from cylinder shaft center Lo (cm) Distance from cylinder shaft center Lo (cm) Data CY3R20 CY3R40 500 200 300 100 200 50 100 20 30 40 50 30 10 Usable range 10 5
q w q AZ1510S e q FV4 FV4 FV4 FV4 w FV4 FV4 FV4 FV4 r 2PW 3PW 3PW 4PW 0 1 1 MPA MPA 2PW 3PW 4PW 40 qIN wOUT eGauge port (Inlet) rGauge port (Outlet) 1) Refer to gauge guide (P.94) for gauge specifications.
LE CP 1 B A1 1 2 5 6 (17.7) (10.2) (14) (18) A6 B1 B3 A1 A3 B6 (13.5) Cable length (L) [m] 1 2 1 1.5 3 3 5 5 8 8*1 A 10*1 B 15*1 C 20*1 15 16 Connector B Connector D (14.7) (30.7) L (11) (10) 8 A B C LE-CP/Cable length: 8 m, 10 m, 15 m, 20 m (*1 Produced upon receipt of order) Controller side (5.5) (6.3) (5.7) (14.2) Connector C Actuator side (Terminal no.)
CJP 1 15 10 10 + 10 (n 2) 10 + 15 (n 2) 15 + 10 (n 2) n CJ2 2 (Different surfaces, Same surface) 15 25 D-Z7 D-Z80 1 15 25 15 + 15 (n 2) 15 + 20 (n 2) 25 + 15 (n 2) CM2 n 2 (Different surfaces, Same surface) 15 25 D-Y59 /Y69 D-Y7P/Y7PV CG1 1 15 25 15 + 10 (n 2) 15 + 15 (n 2) 25 + 10 (n 2) n MB 2 (Different surfaces, Same surface) 20 25 D-Y7W D-Y7WV 1 20 25 20 + 10 (n 2) 20 + 15
Examine for My My=10(10+30)/1000=0.4 A3=30 Examine for My My=10(30+10)/1000=0.4 A6=10 M=W(Ln+An)/1000 Corrected value for center position distance of moment An: Table 3 Calculate allowable static moment Ma(Nm) Ma=K Mmax Work mounting coeficient K: Fig.3 Allowable moment coeficient : Graph 2 Max. allowable moment Mmax: Table 4 2=M/Ma May=1 x 1 x 15.9=15.9 Mymax=15.9 K=1 =1 2=0.4/15.9=0.0252
10 1 100 1 100 10 200 20 30 40 50 2 3 4 5 Eccentric distance l (mm) Eccentric distance l (mm) MXS 75 to 124 stroke 50 to 74 stroke MXQ 100 100 200 63 P=0.5MPa P=0.5MPa MXF 80 50 40 50 100 MXW 40 Load weight m (kg) Load weight m (kg) 30 40 50 32 MXP 20 30 MG 10 20 MGP 5 4 3 10 MGQ 5 10 100 200 20 30 40 50 1 100 10 200 20 30 40 50 2 3 4 5 MGG Eccentric distance l (mm) Eccentric distance l
1 pc. 5 *1 5 2 pcs. 10 *1 10 D-A9V 1 pc. 5 2 pcs. 10 D-Z7 D-Z80 1 pc. 5 *1 5 2 pcs. 10 D-Y59 D-Y7P 1 pc. 5 *1 5 2 pcs. 10 D-Y69 D-Y7PV 1 pc. 5 2 pcs. 5 D-Y7W D-Y7WV 1 pc. 5 *2 2 pcs. 10 *2 D-Y7BA 1 pc. 5 *2 2 pcs. 10 *2 D-P3DWA 1 pc. 15 2 pcs. 15 D-P4DW 1 pc. 5 *2, 3 2 pcs.
2 5 (Ch0&1 in) Monitor under range 0: disable, 1: enable 6..7 Data format 0: offset binary, 1: signed magnitude, 2: 2s complement Channel parameter Channel 0 to 1 0: -10..+10 V, 1: -5..+5 V, 2: -20..+20 mA 3: 0..10 V, 4: 0..5 V, 5: 1..5 V, 6: 0..20 mA, 7: 4..20 mA 0..2 (Ch0 in) Analogue input range 3 Reserved 3 0: -10..+10 V, 1: -5..+5 V, 2: -20..+20 mA 3: 0..10 V, 4: 0..5 V, 5: 1..5 V,
Ejector assembly How to Order Pressure Gauge Assembly*3 1 ZL112A PG A m How to Order Valve Plate Assembly*1 q 1 ZL112A VP A Valve plate assembly Pressure gauge assembly q Units for pressure q 1 kPa 2 inHgpsi*4 *4 Under the New Measurement Act, products with inHgpsi unit specifications are not permitted for use in Japan. q Supply valve/Release valve combination 1 Supply valve + Release valve
10 5 6 Q N Note 1) The above dimensions are for ZQ1000U-Q2 L-E G-00.
9 q r !5 y i !8 o !6 e u @4 @0 @1 @2 w !4 !2 !0!1 !3 !
l % M5 M6 i M8 Ye I M4 1MS M6 , M8. li ZPT02 2.5 3.5 ~~112.5 3.5 \ '(~i~ ~ ~ 1-\ ZPT08 (3.5) (3) H 1""'2., "2,'~) {:~~.:) zpno 10 12 171 (6) (13) ZPn3 10 12 10 12 10 12 ,'6.5) (6) : (13) (6.5) (6) ' :13) 1 1 6.5) (6) (13) II . 13 (7) (7) (13) ZPn6 I ZPT20 IS 26 15 26 15 15 15 16 .
Description Material Qty Note HRSE q Body PC, PP 1 w Element PP 1 e Extension piece Stainless steel 2 Conversion from NPT to Rc HRZ Replacement Element r Handle 1 When -H is selected HRZD HRS PF006 t Sealant tape PTFE 1 HRW e HECR Rc1 HEC NPT1 NPT1 HEB HED (256) e HEA Rc1 w IDH q (343) t r 183 HRSH Series u Wired Remote Controller When the wired remote controller is connected to the thermo-chiller
How to OrderValves (With two mounting screws) SY 3 5 1 0 0 1 q w r e t y u i o !0 !1 Base mounted q Series !
HRZ x V x C x iT it m x C x (T0 Tt) it Q = = HRZD 1 x 150 x 4.186 x 103 x 10 900 = = 6977 [J/s] 7.0 [kW] m x C x (T0 Tt) it x 860 x V x 60 x C x iT it x 860 HRW Q = = Cooling capacity = Considering a safety factor of 20%, 7.0 [kW] x 1.2 = HECR 1 x 150 x 60 x 1.0 x 103 x 10 15 x 860 8.4 [kW] = HEC Q x t: Heat capacity [kJ] Thermo-chiller 6977 [W] = 7.0 [kW] Water bath HEB Cooling capacity