20 Pages

PittmanDirectDriveMotorSpecSheet

Course: ME 211, Fall 2009
School: Missouri S&T
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Word Count: 2806

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LCM BULLETIN Series 8000, 9000, 14000 LO-COG DC Servo Motors Pittman brand LO-COG brush-commutated DC motors offer smooth, quiet operation and long life. Armatures are skewed to minimize magnetic cogging, even at low speeds, and windings are resin impregnated for greater reliability in incremental motion applications. An innovative cartridge brush assembly reduces audible and electrical noise and significantly...

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LCM BULLETIN Series 8000, 9000, 14000 LO-COG DC Servo Motors Pittman brand LO-COG brush-commutated DC motors offer smooth, quiet operation and long life. Armatures are skewed to minimize magnetic cogging, even at low speeds, and windings are resin impregnated for greater reliability in incremental motion applications. An innovative cartridge brush assembly reduces audible and electrical noise and significantly improves brush life by maintaining optimum brush force throughout the life of the motor. For precision motor control, Hewlett-Packard optical encoders are available in 2 or 3 channel versions with several CPR ranges to meet your position, velocity and direction feedback needs. Series 8000 Available in 3 lengths 7 slot armature Speeds from 7,700 to 10,650 RPM Peak Torques from 5.05 to 16.8 ozin Encoder resolutions from 96 to 1024 Construction 2 pole permanent magnet stators are constructed of ceramic magnets enclosed in heavy-gauge steel return rings Diamond turned commutators ensure maximum brush life Standard copper graphite brushes Precision ground hardened stainless steel shafts Silicon-steel laminations Self-aligning, sintered bronze bearings Options Custom cables Multiple shaft configurations Shaft-mounted pulleys and gears Ball bearings Multiple windings Electromechanical brakes Integrated Hewlett-Packard optical encoders Adaptors available for other encoders RFI suppression Dynamic armature balancing Customized versions available in production quantities Other brush materials available Series 9000 Available in 6 lengths 7 slot armature Speeds from 4,900 to 8,250 RPM Peak Torques from 8.35 to 77 ozin Encoder resolutions from 96 to 2048 Series 14000 Available in 7 lengths 11 slot armature Speeds from 3,050 to 4,230 RPM Peak Torques from 62.8 to 410 ozin Encoder resolutions from 96 to 2048 Get same day shipment of sample motors for models listed in the Pittman Express Catalog (Bulletin PE). Every Pittman motor is subjected to automated performance testing prior to shipment. LCM-1 SERIES 8000 Motor Data Line No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 Parameter Continuous Torque (Max.) 1 Peak Torque (Stall) 2 Motor Constant No-Load Speed Friction Torque Rotor Inertia Electrical Time Constant Mechanical Time Constant Viscous Damping Infinite Source Impedance Viscous Damping Zero Source Impedance Maximum Winding Temperature Thermal Impedance Thermal Time Constant Motor Weight (Mass) Motor Length, 81XX/82XX Motor Length, 83XX/84XX Symbol TC TPK KM SNL TF JM E M D KD MAX RTH TH WM L1 L1 Units ozin (Nm) ozin (Nm) ozin/W (Nm/W) rpm (rad/s) ozin (Nm) ozins2 (kgm2) ms ms ozin/krpm (Nm/(rad/s)) ozin/krpm (Nm/(rad/s)) F (C) F/watt C/watt min oz (g) in max (mm max) in max (mm max) and without additional heat sink. 8X22 1.6 (11.2 X 10 3) 7.4 (52.0 X 10 3) 1.12 (7.9 X 10 3) 7847 (822) 0.35 (2.5 X 10 3) 1.4 X 10 4 (9.89 X 10 7) 0.52 15.6 0.0153 (1.03 X 10 6) 0.92 (6.20 X 10 5) 311 (155) 75.9 (24.4) 7.75 4.69 (133.0) 2.070 (52.6) 2.007 (51) 8X23 2.0 (14.1 X 10 3) 10.5 (74.2 X 10 3) 1.30 (9.2 X 10 3) 8298 (869) 0.35 (2.5 X 10 3) 1.7 X 10 4 (1.20 X 10 6) 0.55 14.1 0.0176 (1.19 X 10 6) 1.25 (8.42 X 10 5) 311 (155) 72.9 (22.7) 9.00 5.05 (143.2) 2.195 (54.61) 2.132 (54.2) 8X24 2.6 (18.5 X 10 3) 16.8 (118.6 X 10 3) 1.49 (10.5 X 10 3) 10158 (1064) 0.35 (2.5 X 10 3) 2.3 X 10 4 (1.62 X 10 6) 0.54 14.7 0.0202 (1.36 X 10 6) 1.63 (1.10 X 10 4) 311 (155) 70.52 (21.4) 10.70 5.81 (164.7) 2.445 (62.1) 2.382 (60.5) 1 Continuous torque specified at 25C ambient temperature 2Theoretical values supplied for reference only. 1999 Pittman, a PennEngineering company. LO-COG, ELCOM, ELCOM SL, and ELCOM ST are brand names and trademarks for motors manufactured exclusively by Pittman. R LCM-2 SERIES 8000 Model 8XX2 Winding Data (Other windings available upon request) Line No. 17 18 19 20 21 22 23 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V ozin/A (Nm/A) V/krpm (V/rad/s) mH A A 12.0 1.94 (13.7 X 10 3) 1.43 (13.7 X 10 3) 3.10 1.57 0.25 3.88 19.1 3.07 (21.7 X 10 3) 2.27 (21.7 X 10 3) 7.61 3.93 0.16 2.51 8X22 24.0 3.88 (27.4 X 10 3) 2.87 (27.4 X 10 3) 12.1 6.27 0.12 1.99 30.3 4.88 (34.5 X 10 3) 3.61 (34.5 X 103) 19.1 9.92 0.10 1.59 Model 8XX3 Winding Data (Other windings available upon request) Line No. 24 25 26 27 28 29 30 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V ozin/A (Nm/A) V/krpm (V/rad/s) mH A A 12.0 1.88 (13.3 X 10 3) 1.39 (13.3 X 10 3) 2.17 1.17 0.27 5.54 19.1 2.94 (20.8 X 10 3) 2.18 (20.8 X 10 3) 5.20 2.85 0.17 3.67 8X23 24.0 3.73 (26.4 X 10 3) 2.76 (26.4 X 10 3) 8.24 4.57 0.13 2.91 30.3 4.71 (33.3 X 10 3) 3.48 (33.3 X 10 3) 13.1 7.29 0.11 2.32 Model 8XX4 Winding Data (Other windings available upon request) Line No. 31 32 33 34 35 36 37 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V ozin/A (Nm/A) V/krpm (V/rad/s) mH A A 12.0 1.54 (10.9 X 10 3) 1.14 (10.9 X 10 3) 1.17 0.58 0.36 10.3 19.1 2.47 (17.5 X 10 3) 1.83 (17.5 X 10 3) 2.79 1.50 0.23 6.85 8X24 24.0 3.09 (21.9 X 10 3) 2.29 (21.9 X 10 3) 4.33 2.34 0.18 5.54 30.3 3.86 (27.3 X 10 3) 2.86 (27.3 X 10 3) 6.75 3.65 0.15 4.49 R LCM-3 SERIES 8000 Model 8X22 Motor Speed & Current vs. Torque (24V Winding) 8000 7000 2.00 Model 8X23 Motor Speed & Current vs. Torque (24V Winding) 9000 3.0 1.75 2.5 1.50 2.0 Current (A) 7500 1.5 6000 6000 1.00 5000 0.75 Speed (rpm) Speed (rpm) Continuous Torque 4000 0.50 4500 Continuous Torque 1.0 0.5 3000 0.25 3000 2000 6.0 ) (42.4 7.0 ) (49.5 0.00 8.0 ) (56.5 1500 6.0 ) (42.4 8.0 ) (56.5 10.0 ) (70.6 0.0 12.0 ) (84.8 1000 0 0.0 (0.0) 1.0 (7.1) 3.0 ) (21.2 4.0 ) (28.3 5.0 ) (35.4 2.0 ) (14.2 ozin ) m e Torqu (mN 0 0.0 (0.0) 2.0 ) (14.2 4.0 ) (28.3 ozin ) m e Torqu (mN Model 8X24 Motor Speed & Current vs. Torque (24V Winding) 0 1040 9100 5.6 4.9 4.2 3.5 7800 2.8 Speed (rpm) 6500 2.1 Continuous Torque 5200 1.4 3900 0.7 2600 15.0 .9) (105 0.0 18.0 .2) (127 1300 6.0 ) (42.4 0 0.0 (0.0) 3.0 ) (21.2 oz in ) m e Torqu (mN 9.0 ) (63.6 12.0 ) (84.8 Current (A) Current (A) R 1.25 LCM-4 SERIES 8000 81XX Motor L1 MAX* #6-32 UNC-2B, .195(4.95) DP MAX SCREW PENETRATION (4) HOLES EQ. SP. ON A 1.000(25.40) DIA B.C. .1564(3.97) .1561(3.96) SHAFT DIA THRU LEADS 18.00 (457.2) LONG .062.002 (1.57.05) .430.020 (10.92.51) (OPTIONAL) #2-56 UNC-2B (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. 30 1.210 (30.73) DIA 16 45 .562 .030 (14.27.76) .500 +.000/-.002 (12.70 +.00/-.05) DIA 1.175 (29.85) DIA .050.030 (1.27.76) 82XX Motor .002 (.05) .062 (1.57) #2-56 UNC-2B .400 (10.16) MAX SCREW PENETRATION (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. .1564 (3.97) .1561 (3.96) DIA. THRU. L1 MAX.* .020 (.51) .430 (10.92) 1/2 (12.70) 16 1.175 (29.85) DIA. LEADS 18" (457.20) TYP. (OPTIONAL) #2-56 UNC-2B (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. 30 30 +.000 (.00) -.002 (.05) .500 (12.70) DIA. 1.175 (29.85) DIA. .030 (.76) .030 (.76) .562 (14.27) .050 (1.27) 1.175 (29.85) DIA. Notes: Unless otherwise specified, all tolerances are to be .005 (.01) All measurements are in inches (mm) *See line number 15 and 16 in the motor data chart R LCM-5 SERIES 8000 83XX Motor #2-56 UNC-2B .400 (10.16) MAX SCREW PENETRATION (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. .1564 (3.97) .1561 (3.96) DIA. THRU. 1.175 (29.85) DIA. L1 MAX.* .110 (2.79) TYP. .020 (.51) .365 (9.27) (OPTIONAL) #2-56 UNC-2B (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. 30 .016 (.41) TYP. .240 (6.10) #1 TERMINAL .870 (22.10) MAX. 30 .030 (.76) .030 (.76) +.000 (.00) -.002 (.05) .500 (12.70) DIA. 1.175 (29.85) DIA. .562 (14.27) .062 (1.57) TYP. .050 (1.27) 1.175 (29.85) DIA. 84XX Motor #6-32 UNC-2B .195 (4.95) DP MAX. (4) HOLES EQ. SP. ON A 1.000 (25.40) DIA. B.C. 45 .1564 (3.97) .1561 (3.96) DIA. THRU. 1.175 (29.85) DIA. L1 MAX.* .110 (2.79) TYP. .020 (.51) .365 (9.27) (OPTIONAL) #2-56 UNC-2B (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. 30 .016 (.41) TYP. .240 (6.10) #1 TERMINAL .870 (22.10) MAX. +.000 (.00) -.002 (.05) .030 (.76) .030 (.76) .500 (12.70) DIA. 1.210 (30.73) DIA. .562 (14.27) .062 (1.57) TYP. .050 (1.27) 1.175 (29.85) DIA. Encoder Connection Chart Pin No. 1 2 3 4 5 Color Black Green Yellow Red Blue Connection Ground Index/NC Channel A Vcc Channel B Notes: Unless otherwise specified, all tolerances are to be .005 (.01) All measurements are in inches (mm) *See line number 15 and 16 in the motor data chart R LCM-6 SERIES 8000 1.300 (42.39) 5 4 3 21 82XX Motor with 91X0 Encoder L1 MAX.* 16 .002 (.05) .020 (.51) .665 (16.89) MAX. .190 (4.83) WITH TERMINATIONS AVAILABLE STANDARD LENGTH 20" (508) .520 (13.21) .350 (8.89) MAX. #2-56 UNC-2B .400 (10.16) MAX SCREW PENETRATION (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. .1564 (3.97) .1561 (3.96) DIA. .062 (1.57) .368 (9.35) 1/2 (12.70) LEADS 18" (457.20) TYP. 1.025 (26.04) 1.675 (42.55) 30 +.000 (.00) -.002 (.05) .500 (12.70) DIA. 1.175 (29.85) DIA. .030 (.76) 1.175 (29.85) DIA. .562 (14.27) 1.300 (42.39) 5 4 3 21 83XX Motor with 91X0 Encoder .016 (.41) TYP . .240 (6.10) #2-56 UNC-2B .400 (10.16) MAX SCREW PENETRATION (3) HOLES EQ. SP. ON A .875 (22.23) DIA. B.C. .1564 (3.97) .1561 (3.96) DIA. L1 MAX.*+ .610 MAX. (15.49) .665 (16.89) MAX. .190 (4.83) WITH TERMINATIONS AVAILABLE STANDARD LENGTH 20" (508) .520 (13.21) .350 (8.89) MAX. #1 TERMINAL 1.175 (29.85) DIA. .110 (2.79) TYP. .870 (22.10) MAX. 1.025 (26.04) 1.675 (42.55) 30 +.000 (.00) -.002 (.05) .500 (12.70) DIA. 1.175 (29.85) DIA .030 (.76) .562 (14.27) 1.300 (42.39) 84XX Motor with 91X0 Encoder .240 (6.10) .016 (.41) . #1 TERMINAL TYP #6-32 UNC-2B .195 (4.95) DP MAX. (4) HOLES EQ. SP. ON A 1.000 (25.40) DIA. B.C. .1564 (3.97) .1561 (3.96) DIA. L1 MAX.*+ .610 MAX. (15.49) .665 (16.89) MAX. .190 (4.83) .110 (2.79) TYP. 5 4 3 21 WITH TERMINATIONS AVAILABLE STANDARD LENGTH 20" (508) .520 (13.21) .350 (8.89) MAX. 1.175 (29.85) DIA. .870 (22.10) MAX. 1.025 (26.04) 1.675 (42.55) 45 +.000 (.00) -.002 (.05) 1.210 (30.73) DIA. .500 (12.70) DIA. .030 (.76) .562 (14.27) R LCM-7 SERIES 9000 Motor Data Line No. 1 2 3 4 5 6 7 8 Parameter Continuous Torque (Max.)1 Peak Torque (Stall) 2 Motor Constant No-Load Speed Friction Torque Rotor Inertia Electrical Time Constant Mechanical Time Constant Viscous Damping Infinite Source Impedance Viscous Damping Zero Source Impedance Maximum Winding Temp. Thermal Impedance Thermal Time Constant Motor Weight (Mass) Motor Length, 92XX, 94XX Symbol TC TPK KM SNL TF JM E M D Units oz.in (N.m) oz.in (N.m) oz.in/W (N.m/W) rpm (rad/s) oz.in (N.m) oz.in-s2 (kg-m2) ms ms oz.in/krpm (N.m/rad/s) oz.in/krpm (N.m/rad/s) F (C) F/watt C/watt min oz (g) in max (mm max) 9X32 2.3 (16.2 X 10 3) 13.8 (97.5 X 10 3) 1.62 (11.4 X 10 3) 7015 (734.6) 0.5 (3.5 X 10 3) 2.7 X 10 4 (1.91 X 10 6) 0.63 14.4 0.0272 (1.83 X 10 6) 1.94 (1.31 X 10 4) 311 (155) 72.9 (22.7) 7.21 6.98 (197.9) 1.828 (46.4) 9X33 4.7 (33.2 X 10 3) 31.6 (223.2 X 10 3) 2.66 (18.8 X 10 3) 5993 (627.6) 0.6 (4.2 X 10 3) 4.6 X 10 4 (3.25 X 10 6) 0.84 9.29 0.0335 (2.25 X 10 6) 5.23 (3.53 X 10 4) 311 (155) 66.4 (19.1) 11.1 8.90 (252.3) 2.203 (56.0) 9X34 6.1 (43.1 X 10 3) 41.3 (291.7 X 10 3) 3.01 (21.3 X 10 3) 6151 (644.2) 0.6 (4.2 X 10 3) 5.9 X 10 4 (4.17 X 10 6) 0.85 9.25 0.0387 (2.61 X 10 6) 6.68 (4.50 X 10 4) 311 (155) 62.8 (17.1) 12.0 10.1 (286.3) 2.403 (61.0) 9X35 6.9 (48.7 X 10 3) 49.4 (348.9 X 10 3) 3.21 (22.7 X 10 3) 6348 (664.7) 0.65 (4.6 X 10 3) 7.9 X 10 4 (5.58 X 10 6) 0.88 10.9 0.0450 (3.03 X 10 6) 7.6 (5.12 X 10 4) 311 (155) 58.5 (14.7) 12.9 0.0 (TBD) 2.703 (69.0) 9X36 9.5 (67.1 X 10 3) 61.8 (436.4 X 10 3) 4.11 (29.0 X 10 3) 4916 (514.8) 0.8 (5.6 X 10 3) 1.0 X 10 3 (7.06 X 10 6) 1.06 8.5 0.0525 (3.54 X 10 6) 12.5 (8.42 X 10 4) 311 (155) 56.3 (13.5) 13.5 13.8 (391.2) 3.053 (78.0) 9X37 11.5 (81.2 X 10 3) 77.0 (543.8 X 10 3) 4.41 (31.1 X 10 3) 5331 (558.3) 0.80 (5.6 X 10 3) 1.2 X 10 3 (8.47 X 10 6) 1.06 8.88 0.0550 (3.71 X 10 6) 14.4 (9.71 X 10 4) 311 (155) 52.16 (11.2) 13.8 15.5 (439.4) 3.353 (85.17) 9 10 KD MAX RTH TH WM L1 11 12 13 14 15 Model 9X32 Winding Data (Other windings available upon request) Line No. 16 17 18 19 20 21 22 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V oz.in/A (N.m/A) V/krpm (V/rad/s) mH A A 12.0 2.20 (15.6 X 10 3) 1.63 (15.6 X 10 3) 1.93 1.16 0.32 6.22 and without additional heat sink. 9X32 19.1 3.50 (24.7 X 10 3) 2.59 (24.7 X 10 3) 4.70 2.94 0.20 4.06 24.0 4.40 (31.1 X 10 3) 3.25 (31.1 X 10 3) 7.38 4.64 0.16 3.25 30.3 5.53 (39.1 X 10 3) 4.09 (39.1 X 10 3) 11.6 7.34 0.13 2.60 1 Continuous torque specified at 25C ambient temperature 2Theoretical values supplied for reference only. R LCM-8 SERIES 9000 Model 9X33 Winding Data (Other windings available upon request) Line No. 23 24 25 26 27 28 29 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V oz.in/A (N.m/A) V/krpm (V/rad/s) mH A A 12.0 2.67 (18.9 X 10 3) 1.98 (18.9 X 10 3) 1.08 0.84 0.30 11.1 19.1 4.20 (29.7 X 10 3) 3.10 (29.7 X 10 3) 2.53 2.08 0.19 7.55 9X33 24.0 5.28 (37.3 X 10 3) 3.90 (37.3 X 10 3) 3.94 3.29 0.15 6.09 30.3 6.68 (47.2 X 10 3) 4.94 (47.2 X 10 3) 6.21 5.27 0.12 4.88 Model 9X34 Winding Data (Other windings available upon request) Line No. 30 31 32 33 34 35 36 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V oz.in/A (N.m/A) V/krpm (V/rad/s) mH A A 12.0 2.58 (18.2 X 10 3) 1.91 (18.2 X 10 3) 0.83 0.63 0.33 14.5 19.1 4.07 (28.7 X 10 3) 3.01 (28.7 X 10 3) 1.89 1.56 0.21 10.1 9X34 24.0 5.17 (36.5 X 10 3) 3.82 (36.5 X 10 3) 2.96 2.51 0.16 8.11 30.3 6.50 (45.9 X 10 3) 4.81 (45.9 X 10 3) 4.62 3.97 0.13 6.55 Model 9X35 Winding Data (Other windings available upon request) Line No. 37 38 39 40 41 42 43 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V oz.in/A (N.m/A) V/krpm (V/rad/s) mH A A 12.0 2.47 (17.4 X 10 3) 1.83 (17.4 X 10 3) .68 0.51 0.38 17.6 19.1 3.99 (28.2 X 10 3) 2.95 (28.2 X 10 3) 1.56 1.34 0.24 12.2 9X35 24.0 4.94 (34.9 X 10 3) 3.65 (34.9 X 10 3) 2.37 2.04 0.19 10.1 30.3 6.27 (44.3 X 10 3) 4.64 (44.3 X 10 3) 3.72 3.30 0.16 8.14 Model 9X36/9X37 Winding Data (Other windings available upon request) Line No. 37 38 39 40 41 42 43 Parameter Reference Voltage Torque Back-EMF Constant Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V oz.in/A (N.m/A) V/krpm (V/rad/s) mH A A 12.0 19.1 9X36 24.0 30.3 12.0 19.1 9X37 24.0 30.3 3.25 5.24 6.49 8.24 (23.0 X 10 3) (37.0 X 10 3) (45.8 X 10 3) (58.2 X 10 3) 2.4 3.88 4.8 6.09 (23.0 X 10 3) (37.0 X 10 3) (45.8 X 10 3) (58.2 X 10 3) 0.71 0.66 0.33 16.9 1.64 1.72 0.20 11.7 2.49 2.63 0.16 9.64 0.55 4.24 0.13 7.74 3.00 4.72 6.00 7.43 (21.2 X 10 3) (33.3 X 10 3) (42.4 X 10 3) (52.5 X 10 3) 2.22 3.49 4.44 5.50 (21.2 X 10 3) (33.3 X 10 3) 42.4 X 10 3) (52.5 X 10 3) 1.20 0.49 0.37 21.7 1.85 1.21 0.23 15.9 2.82 1.97 0.18 12.96 3.91 3.01 0.15 10.73 R LCM-9 SERIES 9000 Model 9X32 Motor Speed & Current vs. Torque (24V Winding) 3.6 Model 9X33 Motor Speed & Current vs. Torque (24V Winding) 6.25 3.0 5.0 7200 6000 2.4 Current (A) 3.75 4800 2.50 6000 1.8 4800 Speed (rpm) Speed (rpm) 1.2 Continuous Torque 3600 Continuous Torque 3600 1.25 0.6 2400 2400 0.0 12.0 ) (84.8 14.0 ) (98.9 1200 21.0 .3) (148 0.0 28.0 .8) (197 36.0 .3) (254 1200 6.0 ) (42.4 8.0 ) (56.5 10.0 ) (70.6 0 0.0 (0.0) 2.0 ) (14.2 4.0 ) (28.3 ozin ) m e Torqu (mN 0 0.0 (0.0) 7.0 ) (49.5 14.0 ) (98.9 ozin ) m e Torqu (mN Model 9X34 Motor Speed & Current vs. Torque (24V Winding) 7000 8.75 7.50 6.25 6000 5.00 5000 3.75 Speed (rpm) Continuous Torque 4000 2.50 3000 1.25 2000 0.0 40.0 .5) (282 50.0 .2) (353 1000 20.0 .3) (141 30.0 .9) (211 0 0.0 (0.0) 10.0 ) (70.6 ozin ) m e Torqu (mN Current (A) Current (A) R LCM-10 SERIES 9000 Model 9X35 Motor Speed & Current vs. Torque (24V Winding) 6600 6000 5400 4800 4200 11.0 10.0 9.0 8.0 Model 9X36 Motor Speed & Current vs. Torque (24V Winding) 5000 10.0 9.0 8.0 7.0 6.0 5.0 4.0 Current (A) 6.0 5.0 4.0 4000 3500 Speed (rpm) Speed (rpm) Continuous Torque 3000 2500 2000 1500 1000 500 0 0.0 (0.0) 20.0 .3) (141 40.0 .5) (282 50.0 .2) (353 60 .0 .8) (423 3.0 2.0 1.0 0.0 50.0 3.2) (35 3000 2400 1800 1200 600 0 0.0 (0.0) Continuous Torque 3600 3.0 2.0 1.0 0.0 10.0 ) (70.6 20.0 .3) (141 30.0 .9) (211 40.0 .5) (282 ozin ) m e Torqu (mN 10.0 ) (70.6 ozin ) m e Torqu (mN 30.0 .9) (211 Model 9X37 Motor Speed & Current vs. Torque (24V Winding) 6000 15.0 12.5 10.0 5000 7.5 4000 Speed (rpm) 3000 Continuous Torque 5.0 2.5 2000 0.0 1000 48.0 ) .0 (339 64.0 ) .9 (451 80.0 ) .9 (564 0 0.0 (0.0) 16.0 ) .0 (113 32.0 ) .0 (226 ozin ) m e Torqu (mN R Current (A) LCM-11 Current (A) 7.0 4500 SERIES 9000 94XX Motor #1 TERMINAL .218 (5.54) TYP. REF. 1.065 (27.05) MAX. .288 (7.32) .020 (.51) TYP. .835 R. (21.21) .062 (1.58) TYP. .002 (.05) L1 MAX.* .562 (14.27) .030 (.76) .110 (2.79) TYP. .075 (1.91) TYP. .365 (9.27) .010 (.25) .047 (1.19) DIA. THRU .1564** (3.97) .1561 (3.96) DIA. TYP. OPTIONAL MOUNTING PATTERN #6-32 UNC-2B, .350 (8.89) DP. MAX. 4 HOLES EQ. SP. ON A 1.000 (25.40) DIA. B.C. 45 #6-32 UNC-2B, .350 (8.89) DP. MAX 4 HOLES EQ. SP. ON A 1.000 (25.40) DIA. B.C. .500 (12.7) DIA. TYP. +.000 (.00) -.002 (.05) .050 (1.27) .1966 ** 9XX7 shaft = 5mm .1964 .030 (.76) 1.580 (40.13) DIA. ( ) 92XX Motor STANDARD LEAD WIRES 22 AWG, (7X30), UL STYLE 1007/1569 18 1/2, RED & BLACK .37 (9.40) .010 (.25) OPTIONAL MOUNTING PATTERN #6-32 UNC-2B, .180 (4.572) DP. MAX. 4 HOLES EQ. SP. ON A 1.000 (25.40) DIA. B.C. 1.580 (40.13) DIA. Notes: Unless otherwise specified, all tolerances are to be .005 (.01) All measurements are in inches (mm) *See line number 15 in motor data chart R LCM-12 SERIES 9000 1.575 (40) 94XX Motor with 91X0 Encoder L1 MAX.* + .653 MAX. (16.59) .313 (7.95) .695 (17.65) MAX. .315 (8.00) .190 (4.83) 5 4 3 21 WITH TERMINATIONS AVAILABLE STANDARD LENGTH 20" (508) .520 (13.21) .350 MAX. (8.89) 1.025 (26.04) 1.815 (46.10) .015 (.38) 92XX Motor with 91X0 Encoder .330 (8.38) Encoder Connection Chart Pin No. 1 2 3 4 5 Color Black Green Yellow Red Blue Connection Ground Index/NC Channel A Vcc Channel B Notes: Unless otherwise specified, all tolerances are to be .005 (.01) All measurements are in inches (mm) *See line number 15 in motor data chart R LCM-13 SERIES 14000 Motor Data Line No. Parameter 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Continuous Torque(Max.) 1 Peak Torque (Stall) 2 Motor Constant No-Load Speed Friction Torque Rotor Inertia Electrical Time Constant Mechanical Time Constant Viscous Damping Infinite Source Impedance Viscous Damping Zero Source Impedance Maximum Winding Temperature Thermal Impedance Thermal Time Constant Motor Weight (Mass) Motor Length, 1410X, 1420X Symbol TC TPK KM SNL TF JM E M D KD MAX RTH TH WM L1 Units ozin (Nm) ozin (Nm) ozin/W (Nm/W) rpm (rad/s) ozin (Nm) ozins2 (kgm2) ms ms 14XX1 10.0 (70.6 X10 3) 62.8 (.44) 14XX2 14XX3 14XX4 14XX5 14XX6 14XX7 14.0 21.0 26.0 31.0 36.5 50.0 (98.9 X 10 3) (148.3 X 10 3) (183.6 X 10 3) (218.9 X 10 3) (257.8 X 10 3) (353.1 X 10 3) 107 (.76) 159 (1.12) 204 (1.44) 225 (1.59) 284 (2.01) 410 (2.90) 4.45 5.93 7.88 (31.4 X 10 3) (41.9 X 10 3) (55.6 X 10 3) 4230 (443) 1.20 (8.5 X 10 3) 4087 (428) 1.20 (8.5 X 10 3) 3456 (362) 1.60 (11.3 X 10 3) 8.63 9.97 10.9 13.1 (60.9 X 10 3) (70.4 X 10 3) (77.0 X 10 3) (92.5 X 10 3) 3702 (388) 3056 (320) 3216 (337) 3211 (336) 1.60 2.00 2.00 2.20 (11.3 X 10 3) (14.1 X 10 3) (14.1 X 10 3) (15.5 X 10 3) 3.7 X 10 3 4.4 X 10 3 5.2 X 10 3 6.7 X 10 3 (2.61 X 10 5) (3.11 X 10 5) (3.67 X 10 5) (4.73 X 10 5) 1.58 7.04 1.63 6.27 1.62 6.19 1.50 5.50 1.6 X 10 3 2.3 X 10 3 3.0 X 10 3 (1.13 X 10 5) (1.62 X 10 5) (2.12 X 10 5) 0.91 11.4 1.47 9.26 1.64 6.84 ozin/krpm 0.17 0.17 0.18 (Nm/(rad/s)) (1.14 X 10 5) (1.14 X 10 5) (1.21 X 10 5) ozin/krpm 14.7 26.0 45.9 (Nm/(rad/s)) (9.91 X 10 4) (1.75 X 10 3) (3.09 X 10 3) F (C) F/watt C/watt min oz (g) in max (mm max) 311 (155) 49.8 (9.90) 22.0 20.8 (589.7) 2.953 (75.0) 311 (155) 48.2 (9.00) 24.0 26.0 (737.1) 3.203 (81.4) 311 (155) 46.6 (8.10) 26.0 31.2 (884.5) 3.703 (94.1) 0.18 0.19 0.19 0.25 (1.21 X 10 5) (1.28 X 10 5) (1.28 X 10 5) (1.69 X 10 5) 55.0 73.5 88.0 127.0 (3.71 X 10 3) (4.96 X 10 3) (5.93 X 10 3) (8.56 X 10 3) 311 (155) 41.3 (7.19) 26.82 35.2 (997.9) 4.078 (103.6) 311 (155) 45.1 (7.30) 29.4 39.5 (1119.8) 4.453 (113.1) 311 (155) 44.2 (6.80) 33.6 45.4 (1287.1) 4.953 (125.8) 311 (155) 41.0 (4.98) 32.3 54.5 (1545.1) 5.703 (144.9) Model 14XX1/14XX2 Winding Data (Other windings available upon request) Line No. 16 17 18 19 20 21 22 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V ozin/A (Nm/A) V/krpm (V/rad/s) mH A A 12.0 19.1 14XX1 24.0 30.3 12.0 19.1 14XX2 24.0 30.3 3.72 5.89 7.44 9.46 (26.3 X 10 3) (41.6 X 10 3) (52.5 X 10 3) (66.8 X 10 3) 2.75 4.36 5.50 6.99 (26.3 X 10 3) (41.6 X 10 3) (52.5 X 10 3) (66.8 X 10 3) 0.72 0.63 0.52 16.7 1.76 1.59 0.33 10.8 2.79 2.54 0.26 8.60 4.45 4.10 0.20 6.80 3.90 6.16 7.80 9.85 (27.5 X 10 3) (43.5 X 10 3) (55.1 X 10 3) (69.6 X 10 3) 2.88 4.55 5.77 7.29 (27.5 X 10 3) (43.5 X 10 3) (55.1 X 10 3) (69.6 X 10 3) 0.45 0.63 0.49 26.4 1.09 1.58 0.31 17.5 1.73 2.54 0.24 13.9 2.74 4.05 0.19 11.1 1 Continuous torque specified at 25C ambient temperature 2Theoretical values supplied for reference only. and without additional heat sink. R LCM-14 SERIES 14000 Model 14XX3/14XX4 Winding Data (Other windings available upon request) Line No. 23 24 25 26 27 28 29 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V ozin/A (Nm/A) V/krpm (V/rad/s) mH A A 12.0 19.1 14XX3 24.0 30.3 12.0 19.1 14XX4 24.0 30.3 4.63 7.41 9.26 11.7 (32.7 X 10 3) (52.3 X 10 3) (65.4 X 10 3) (82.6 X 10 3) 3.42 5.48 6.85 8.67 (32.7 X 10 3) (52.3 X 10 3) (65.4 X 10 3) (82.6 X 10 3) 0.37 0.56 0.48 32.7 0.89 1.45 0.30 21.5 1.38 2.26 0.24 17.4 2.19 3.63 0.19 13.9 4.33 6.86 8.67 10.8 (30.7 X 10 3) (48.5 X 10 3) (61.2 X 10 3) (76.5 X 10 3) 3.21 5.08 6.41 8.01 (30.7 X 10 3) (48.5 X 10 3) (61.2 X 10 3) (76.5 X 10 3) 0.27 0.40 0.52 43.7 0.65 1.00 0.33 29.6 1.01 1.60 0.26 23.8 1.57 2.50 0.21 19.2 Model 14XX5/14XX6 Winding Data (Other windings available upon request) Line No. 30 31 32 33 34 35 36 Parameter Reference Voltage Torque Constant Back-EMF Constant Resistance Inductance No-Load Current Peak Current (Stall) Symbol E KT KE RT L INL IP Units V ozin/A (Nm/A) V/krpm (V/rad/s) mH A A 12.0 19.1 14XX5 24.0 30.3 12.0 19.1 14XX6 24.0 30.3 5.25 8.31 10.5 13.1 (37.1 X 10 3) (58.7 X 10 3) (74.2 X 10 3) (92.7 X 10 3) 3.88 6.15 7.76 9.71 (37.1 X 10 3) (58.7 X 10 3) (74.2 X 10 3) (92.7 X 10 3) 0.30 0.45 0.49 40.1 0.71 1.13 0.31 27.0 1.11 1.81 0.25 21.6 1.73 2.83 0.20 17.5 4.74 7.89 10.0 12.6 (33.5 X 10 3) (55.8 X 10 3) (70.6 X 10 3) (89.2 X 10 3) 3.50 5.84 7.39 9.34 (33.5 X 10 3) (55.8 X 10 3) (70.6 X 10 3) (89.2 X 10 3) 0.22 0.31 0.56 54.2 0.54 0.85 0.33 35.6 0.84 1.36 0.26 28.6 1.32 2.17 0.21 23.0 Mo...

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CSU Channel Islands - PRE - 1990
Luce, R. Duncan, A Game Theoretic Analysis of Congressional Power Distributions for a Two-Party System , Behavioral Science, 1:2 (1956:Apr.) p.83
University of Montana - PH - 211
Phys 221Exam 3Fall 2007Full Name (PRINT):Signature: 1.(5)In unit-vector notation ( and k), nd the magnitude and direction of the vector b if i, j, b = 3 4k 2 . i jb=0 2.(8)The gure below shows a stable mobile of toy penguins hanging from the ceiling
University of Montana - PHYS - 112
Practice Problems for Exam #2 1. A resistor has different voltages applied to it and the corresponding currents are measured. The data are plotted in this graph. What is the resistance?Current vs. Applied Voltage120 100 Current ( Amps ) 80 60 40 20 0 0
University of Montana - PH - 211
Phys 221 Full Name (PRINT):Practice Final Exam Signature:Fall 20071.(6) Joe stands on level ground. According to Newtons 3rd Law, what is the reaction force to the normal force the ground exerts on Joe? State on what object and in what direction the re
University of Montana - PHYS - 111
Physics 121, Section 1 Exam #4 Fri. 10/26/07Name _ ID # _Please show your work (where appropriate), and draw a box around your final answer. To get full credit, you must show clearly how you obtained your answers. 1. (6) Convert the following angle meas
University of Montana - PH - 211
iclicker Question ch16-8The tension of a guitar string in increased by a factor of 9. How does the speed of a wave on the string change, if at all? A. The speed of a wave is reduced to one-ninth the value it had before the increase in tension. B. The spe
Trinity U - CS - 1323
CSCI 1323March 22, 2006Administrivia All homework should be turned in ASAP. Solutions are available for all(hardcopy only). "Due date" for Homework 6 (for the purpose of assessing late penalties) will be noon tomorrow. Slide 1 You can still turn in ol
Stanford - IPAS - 1033
1 2 3 4 5 6 7 8 9 10 IICOOLEY GODWARD LL P WILLIAM S . FREEMAN ( 82002 ) ( freem anws@cooley .com) MARY BETH O'CONNOR (228591 ) ( mboconnor@ cooley .com) JEFFREY M . KABAN (235743) (jkaban @ cooley.com ) Five Palo Alto Square 3000 El Camino Rea l Palo Al
Carnegie Mellon - CS - 694
Proceedings of the First ACM Conference on Embedded Networked Sensor Systems (SenSys 2003). November 5-7, 2003, Redwood, CA.GEM: Graph EMbedding for Routing and Data-Centric Storage in Sensor Networks Without Geographic InformationJames NewsomeCarnegie
Cleveland State - ETE - 566
INTRODUCTIONCleborne D. Maddux D. LaMont JohnsonInformation Technology, Type II Classroom Integration, and the Limited Infrastructure in SchoolsSUMMARY. In this second special issue on Type II applications of information technology in education, the fo
Ohio State - SOC - 101
Soc 101 Lecture Day 5: Social InteractionTERMS: Status Position within society Role conflict Incompatibility of multiple roles by one person Role stress Anxiety produced by inability to meet multiple role requirements at one time Role strain Inability to
UVA - TIME - 1937
TIMELINE Dupont pattens nylon invented by Wallace H. Carothers Februay 16 May, economic recovery stops; economy enters a second depression July, Bankhead-Jones Farm Tenancy Act passed FDR attempts to "pack" Supreme Court Supreme Court declares NLRA (1935)
Washington - M - 112
MATH 112 EXAM II Hints and Answers Version Alpha Spring 2009 1. (4 points each) (a) ANSWER: f (t) = t5 3(2t + 1)2 2 + (2t + 1)3 5t4 e(3u dv = (b) ANSWER: du2 +u)2u-4 u2 -4u- ln(u2 - 4u) e(3u e(3u2 +u)22 +u) (6u + 1)(c) ANSWER: hm (m, p) = 9e(mp+m p
Washington - M - 112
MATH 112 EXAM I Hints and Answers Version Delta Winter 2009 5 1. ANSWER: f (x) = - x-7/2 + 8x-3 - 5x-2 2 2. (a) (2 points) ANSWER: approximately 7.3 minutes (b) (4 points) ANSWER: approximately 1.75 feet per minute; down (c) vi; iv; iii; i 3. i. (4 points
Cornell - CS - 619
Tree Bitmap : Hardware/Software IP Lookups with Incremental UpdatesW. Eatherton, Z. Dittia, G. VargheseAbstractIP address lookup is challenging for high performance routers because it requires a longest matching prefix at speeds of up to 10 Gbps (OC-19
Cornell - CS - 619
Network Working Group D. AwducheRequest for Comments: 3272 Movaz NetworksCategory: Informational A. Chiu Celion Networks A. Elwalid I. Widjaja Lucent Technologies X. Xiao Redback Networks May 2002 Overview and Principles of Internet Traffic Eng
Cornell - CS - 619
Network Working Group J. RosenbergRequest for Comments: 3489 J. WeinbergerCategory: Standards Track dynamicsoft C. Huitema Microsoft R. Mahy Cisco March 2003 STUN - Simple Traversal of User Datagram Protocol (UDP) Through Network Address Transla
Cornell - CS - 619
Equation-Based Congestion Control for Unicast ApplicationsSally Floyd, Mark HandleyAT&T Center for Internet Research at ICSI (ACIRI)Jitendra PadhyeUniversity of Massachusetts at AmherstABSTRACTThis paper proposes a mechanism for equation-based conge