796 Phone: 1-800-222-6440 • Fax: 1-949-253-1680 M o t o r i z e d P o s i t i o n i n g MOTORIZED ROTATION MOTORIZED LINEAR STAGES TECHNICAL REFERENCE STAGES SYSTEMS CONTROLLERS AND AMPLIFIERS MOTORIZED ACTUATORS MOTORIZED OPTICAL MOUNTS Specifications IMS100V (M-IMS100V) IMS300V (M-IMS300V) Typical Guaranteed Typical Guaranteed Travel Range (mm) 100 300 Minimum Incremental Motion (ìm) 0.3 ìm with XPS, 0.6 ìm with ESP300 or SMC100CC Uni-directional Repeatability (ìm) 0.2 0.5 0.2 0.5 Reversal Value (Hysteresis) (ìm) 0.05 0.5 0.05 0.5 On-Axis Accuracy (ìm) 1.5 5 2.5 10 Maximum Speed 20 mm/s with up to 100 N load, 5 mm/s with higher loads Pitch (ìrad) 72 100 113 250 Yaw (ìrad) 32 100 75 200 MTBF 20,000 h with 300 N load and with a 10% duty cycle Weight (kg) 13.6 17 See the Motion Control Metrology Primer section (page 775) for more information on typical and guaranteed specifications IMS-V Series High-Load Vertical Linear Stages • High stiffness, FEM optimized extruded aluminum body avoids thermal bending effects • Four-way equal load rating ball bearings offer best support for high cantilevered loads • Self-locking lead screw ensures best position stability with no change of position at power off • Proprietary nut design minimizes wear and slip-stick effect • Direct position feedback provides superior accuracy and minimum hysteresis Newport’s IMS-V linear stages offer long travel vertical motion of heavy loads up to 500 N. Using the same industry-proven technology as the IMS stages, the IMS-V stages provide very high performance in a cost-effective package, making them ideal solutions for precision industrial and laboratory applications. All IMS-V series stages are optimized for maximum stability and performance using FEM analysis, resulting in a light and stable stage. While high in stiffness, the bending effect caused by different thermal expansion coefficients of the aluminum body and the steel rails is also minimized. Four-way equal load rating ball bearings provide superior support for high cantilevered loads, and the caged recirculating balls ensure maintenancefree operation without cage migration. The drive system utilizes a 16 mm diameter lead screw with a proprietary wear resistant polyethylene terephthalate nut Design Details Base Material Extruded Aluminum Bearings Four way equal loaded caged recirculating ball bearings Drive Mechanism Precision ground 16 mm diameter lead screw, High-wear resistance polyethylene terephthalate nut, no preload Drive Screw Pitch (mm) 3 Feedback Linear steel scale, 20 ìm signal period, 0.1 ìm resolution Limit Switches Optical Origin Optical, approx. 8 mm from motor side limit Motor DC servo motor UET511 Cable 5 m long motor cable included optimized for carrying high axial loads. The drive nut closely assimilates static and dynamic friction, minimizing the slip-stick effect found in classical lead screw systems. When used with our XPS motion controller, this guarantees better than 300 nm motion sensitivity, even at full load and over the life of the stage. The lead screw self locks to ensure superior in-position stability with no change of position at removal of power – something typically experienced with braked ball screw drives. Precision position feedback is supplied by a linear scale with 0.1 ìm resolution. This direct optical reading system provides superior accuracy and minimum hysteresis when compared to indirect feedback systems. The direct read system is impervious to position drift caused by motion-induced heating of the lead screw for improved accuracy and repeatability.
Open the catalog to page 1M o t o r i z e d P o s i t i o n i n g 797 Email: [email protected] • Web: newport.com TECHNICAL REFERENCE MOTORIZED LINEAR STAGES MOTORIZED ROTATION STAGES MOTORIZED OPTICAL MOUNTS MOTORIZED ACTUATORS CONTROLLERS AND AMPLIFIERS SYSTEMS Load Characteristics and Stiffness Min. -Cx; +Cx 40 N Max. -Cx; +Cx 500 N with XPS 100 N with ESP300 or SMC100CC káy, Compliance in pitch 0.2 ìrad/N.m káz, Compliance in yaw 1 ìrad/N.m Q, Off-center load QH1500N/(1 + D/90) D, Cantilever distance in mm between the center of mass of the load and the bearings center. Distance between top surface and the bearings...
Open the catalog to page 227 Pages
6 Pages
1 Page
1 Page
1 Page
1 Page
1 Page
16 Pages
6 Pages
5 Pages
55 Pages
1640 Pages
24 Pages
2 Pages
40 Pages
9 Pages
34 Pages
35 Pages
33 Pages
2 Pages
1 Page
1 Page
1 Page
1 Page
2 Pages
3 Pages
1 Page
2 Pages
1 Page
3 Pages
2 Pages
1 Page
1 Page
1 Page
1 Page
2 Pages
1 Page
1 Page
2 Pages
1 Page
1 Page
2 Pages
6 Pages
2 Pages
1 Page
1 Page
1 Page
2 Pages
1 Page
2 Pages
1 Page
2 Pages
4 Pages
2 Pages
1 Page
2 Pages
1 Page
4 Pages
1 Page
1 Page
2 Pages
2 Pages
2 Pages
2 Pages
2 Pages
2 Pages
2 Pages
1 Page
1 Page
1 Page
5 Pages
1 Page
2 Pages
2 Pages
3 Pages
3 Pages
3 Pages
2 Pages
2 Pages
1 Page
1 Page
1 Page
1 Page
2 Pages
2 Pages
1 Page
1 Page
1 Page
1 Page
2 Pages
1 Page
2 Pages
1 Page
2 Pages
1 Page
1 Page
1 Page
1 Page
3 Pages
1 Page
2 Pages
1 Page
1 Page
2 Pages
1 Page
1 Page
2 Pages
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
2 Pages
1 Page
1 Page
5 Pages
1 Page
1 Page
4 Pages
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
1 Page
2 Pages
3 Pages
2 Pages
2 Pages
1 Page
1 Page
1 Page
1 Page
1 Page
2 Pages
2 Pages
2 Pages
1 Page
2 Pages
2 Pages
1 Page
1 Page
1 Page
2 Pages
7 Pages
2 Pages
2 Pages
2 Pages
2 Pages
2 Pages
2 Pages
1 Page
3 Pages
4 Pages
2 Pages
2 Pages
1 Page
2 Pages
2 Pages
4 Pages
1 Page
2 Pages
1 Page
2 Pages
1 Page
3 Pages
2 Pages
2 Pages
1 Page
2 Pages
1 Page
1 Page
1 Page
1 Page
2 Pages
2 Pages
1 Page
1 Page
2 Pages
6 Pages
4 Pages
3 Pages
2 Pages
2 Pages
4 Pages
1 Page
3 Pages
2 Pages
2 Pages
2 Pages
3 Pages
2 Pages
4 Pages
2 Pages
3 Pages
1 Page
2 Pages
2 Pages
3 Pages
3 Pages
2 Pages
3 Pages
2 Pages
1 Page
1 Page
2 Pages
2 Pages
2 Pages
2 Pages
1 Page
1 Page
4 Pages
1 Page
1 Page
1 Page
2 Pages
2 Pages
2 Pages
1 Page
2 Pages
4 Pages
2 Pages
1 Page
1 Page
1 Page
2 Pages
1 Page
1 Page
1 Page
2 Pages
2 Pages
1 Page
1 Page