AC Servo Motor Driver (SSCNET /H Type) Acceleration/deceleration time (ms) = {3000 (r/min) 60 (S) } 8 (mm) 1000 3000 (mm/s2) 133 (ms) Speed at a rated motor rotation of 3000rpm Accel/decel time (ms) = {Rated Rotation Speed (r/min) 60 (S) } Screw Lead (mm) 1000 * Acceleration/deceleration speed (mm/s2) *Acceleration speed is measured in ms, so this must be calculated as (s) 1000 -39- 6.6.4 Movement distance Configuration and
-105 1050 Kgf/cm 2 0 10.197 -1.07 10.71 ISE70 Bar 0 10.000 -1.05 10.50 Psi 0 145.04 -15.2 152.3 (PD) 1000 5000 580 5200 MPa 0 1.6000 -0.105 1.680 kPa 0 1,600.0 -105 1680 Kgf/cm 2 0 16.315 -1.07 17.13 ISE71 Bar 0 16.000 -1.05 16.80 Psi 0 232.06 -15.2 243.7 (PD) 1000 5000 738 5200 ISE70 MPa (PD) PD [MPa] (PD)(ISE70 MPa) -62No.PS-OMV0003CN-G Pr = a (PD) + b (PD) = (Pr
2000 3000 6000 12000 PF2M7(-L) 0.001 L/min 0.01 1 0.02 2 0.01 L/min 0.05 5 Dry air N2 Ar CO2 0.1 10 Thermal type (MEMS) 0.3 25 0.1 L/min 0.5 50 1 100 1 L/min 2 200 PFMB 2 200 Thermal type (MEMS) 5 500 Dry air N2 1 L/min PFG300 10 1000 Bypass flow type 20 2000 PFMC(-L) Thermal type (MEMS) 5 500 Dry air N2 1 L/min PFG300 10 1000 Bypass flow type 20 2000 PF2A 1 10 0.1 L/min 0.5 L/min 5 50
63 63 3000 40 50 2000 500 50 1000 40 0 0 5 10 15 20 0 450 400 350 300 250 200 150 100 50 0 Arm length L (mm) Arm length L (in) Allowable load for clamp arm end Refer to the graph on pages 190 and 191 for parts weight of the arm.
Assuming that the tube I.D. is 2 mm, the piping capacity is as follows: V = /4 x D2 x L x 1/1000 = /4 x 22 x 1 x 1/1000 = 0.0031 L (2) Assuming that leakage (QL) during adsorption is 0, find the average suction flow rate to meet the adsorption response time using the formula on the front matter 17.
R O D B O R E S I Z E 7/16-20 7/16-20 7/16-20 3/4-16 3/4-16 3/4-16 1-14 1-14 1 1/4-12 1 1/2-12 1 7/8-12 5/8 5/8 5/8 1 1 1 1-3/8 1-3/8 1-3/4 2 2-1/2 S TA N D A R D S T R O K E 150 1.5 200 2 250 2.5 325 3.25 400 4 500 5 600 6 800 8 1000 10 1200 12 1400 14 E 1 G 1 3/8 H 1 3/4 J 2 K 2 1/2 L 3 M 3 1/2 Z Please consult SMC Customer Service for larger sizes.
Cushioning nearly equal to a shock absorber is achieved with a unique cushion ring configuration and cushion seal design. 3.5 80 25 to 1300 25 to 1000 25 to 1500 100 50 to 1000 50 to 1300 125 50 to 1200 50 to 1500 160 CHAW CHA Courtesy of Steven Engineering, Inc.-230 Ryan Way, South San Francisco, CA 94080-6370-Main Office: (650) 588-9200-Outside Local Area: (800) 258-9200-www.stevenengineering.com
Mr = 0.2 x 9.8 (20 + 6.8)/1000 = 0.053 Ma = Mmax Find the allowable static moment Ma (Nm).
/2000 1000/5000 500/2000 200/1000 100/500 100/200 *Dimension A reference after installation.
How to Order AL800 AL 23 80 12 0 R AL900 Semi-standard R Flow direction: Right Left Body size Port size Semi-standard Lubricator 1 1S-1 1S-2 2 3 6 8 1000 cm3 tank 1000 cm3 tank with switch (Bottom limit ON) 1000 cm3 tank with switch (Bottom limit OFF) Metal bowl With drain cock Nylon bowl (Including sight dome) Metal bowl with level gauge Symbol 12 14 20 4 1 1 1 2 2 1 80 90 1 2 2 1 Thread
Operating Parameters Status Gas Operating pressure Proof pressure Burst pressure Ambient and operating temperature Cv Vacuum to 250 psig (1.7 MPa) Vacuum to 125 psig (0.9 MPa) 1000 psig (6.9 MPa) 8000 psig (55.2 MPa) 14 to 160F (10 to 71C) (No freezing) 1) 0.29 2 x 10-11 Pam3/sec 2 x 10-10 Pam3/sec 2) 4 x 10-9 Pam3/sec 2) Ra max 15 in. (0.4 m) Option: 10 in. (0.25 m), 7 in. (0.18 m), 5 in
Value (-32767.. 32767 ) Value x 0.01 (mA or V) 1000 8 Upper Limit Value*1 1: True Generates an error. *1 9 Monitor Lower Limit 0: False Does not generate an error. Generates error per channel when the input value falls below the set value.
) [P_1] OUT1 [ 500] 500 L/min(PFMB7102) [F 1][oU1] [1000] 1000 L/min(PFMB7202) 28 [ 25] 25 L/min(PFMB7501) [H_1] OUT1 [ 50] 50 L/min(PFMB7102) [100] 100 L/min(PFMB7202) [CoL] OUT1 [SoG] ONOFF [oU2] OUT2 2 [HYS] [2ot] OUT2 2 [2_P] [ 250] 250 L/min(PFMB7501) 2 [P_2] OUT2 [ 500] 500 L/min(PFMB7102) [F 2][oU2] 36 [1000] 1000 L/min(PFMB7202) [ 25] 25 L/min(PFMB7501) 2 [H_2] OUT2 [ 50] 50 L/min
1000 0 0 0 10 20 30 40 50 0 10 20 30 40 50 Circulating fluid temperature [] Circulating fluid temperature [] 50Hz 60Hz Fig. 9-4 Cooling capacity(HRS050--20-(BJM)) 9.5 Heating capacity 9.5.1 HRS050-A-20-(BJM) 2000 2000 Ambient Ambient temperature temperature 1500 1500 5 Heating capacity [W] Heating capacity [W] 5 20 20 25 25 1000 32 1000 32 40 40 500 500 0 0 5 10 15 20 25 30 35 40 5 10 15
HRS060-A-2060Hz 9.5.1 HRS060-A-20-(BJM) 2000 2000 Ambient Ambient temperatur temperatur Heating capacityW Heating capacityW 1500 1500 e e 40 40 32 32 1000 1000 25 25 20 20 5 500 5 500 0 0 5 10 15 20 25 30 35 40 5 10 15 20 25 30 35 40 Circulating fluid temperature Circulating fluid temperature 60Hz 50Hz Fig. 9-5 Heating capacity(HRS060-A-20-(BJM)) 9.5.2 HRS060-W-20-(BJM) 2000 2000 Ambient
Max. 2s 2s 1s 1s Min. 0.5s 0.5s 0.2s 0.2s 0.1s 0.1s 0.05s 0.05s 0.02s 0.02s 0.01s 0.01s 6000 100 125 200 300 400 500 700 1000 1500 2000 30004000 10 100 125 200 300 400 500 600700 1000 1500 2000 3000 4000 600 5000 7000 Current (% for breaker capacity) Current (% for breaker capacity) For HRS100-A/W-20-B For HRS150-A/W-20-B HRS100-A/W-40, HRS150-A/W-40 4h 2h 1h 30min 20min 14min 10min 6min
Monitoring of TEMP READY alarm (AL12) does not start since Start Time is set at 1000 sec. Status (6): Monitoring of TEMP READY alarm (AL12) starts at this point where 1000 sec of Start Time has elapsed. Status (7): TEMP READY signal output continues since the temperature is now back within the Out Time range of 200 sec even though it was temporarily outside the Low range.
Monitoring of TEMP READY alarm (AL12) does not start since Start Time is set at 1000 sec. Status (6): Monitoring of TEMP READY alarm (AL12) starts at this point where 1000 sec of Start Time has elapsed. Status (7): TEMP READY signal output continues since the temperature is now back within the Out Time range of 200 sec even though it was temporarily outside the Low range.
Monitoring of TEMP READY alarm (AL12) does not start since Start Time is set at 1000 sec. Status (6): Monitoring of TEMP READY alarm (AL12) starts at this point where 1000 sec of Start Time has elapsed. Status (7): TEMP READY signal output continues since the temperature is now back within the Out Time range of 200 sec even though it was temporarily outside the Low range.
Maximum Flow Rate Lines Clean Gas Filter 1000 SFC10 SFA30 Maximum flow rate L/min (ANR) A SFA20 100 SFB10 30 SFA10 10 1 0.6 1 0.8 0 0.2 0.4 Inlet pressure MPa Clean Gas Strainer 1000 SFB20 Maximum flow rate L/min (ANR) 100 10 1 0.6 1 0.8 0 0.2 0.4 Inlet pressure MPa 298 Clean Gas Filter: Cartridge Type/Disc Type SFA100/200/300 Series RoHS HAA HAW How to Order AT Precision filtration for compressed