The NEWPORT PMA11014 is a motorized precision actuator stage engineered for high-accuracy linear positioning in scientific and industrial applications. It delivers precise motion control and repeatability through motor-driven automation, enabling remote and computer-controlled positioning of optical mounts and manual stages. The stage accepts DC servo and precision or high-load stepper motors, making it ideal for system integration where meticulous alignment and automated control are critical. Smooth operational characteristics and solid construction ensure reliable performance in demanding laboratory and manufacturing environments.
Technical Specifications
• Product Type: Motorized Precision Actuator Stage
• Manufacturer: Newport Corporation
• Model: PMA11014
• Actuator Type: Motorized Linear Actuator
• Motor Compatibility: DC servo motors, precision stepper motors, high-load stepper motors
• Motion Control: Automated positioning; upgrades manual positioners for remote and computer control
• Positioning: High-accuracy linear motion with precise repeatability
– Key Features
• Direct motor integration eliminates manual drive mechanisms
• Enables retrofit of existing manual stages for automated control
• Compatible with Newport motion controllers and motor drivers for plug-and-play operation
• Operates with standard Newport connectors (D-Sub family); longer cable options with DB-25 or DA-15 connectors available
• Optional regulated 5V supply accessories (MMCABLE-REG) recommended for extended cable runs
– Typical Applications
• Microscopy systems and optical alignment
• Semiconductor manufacturing and read head production
• Optical inserter positioning
• Adaptive optics systems
• Laboratory automation requiring multi-axis control
– Compatibility & Integration
The PMA11014 integrates with Newport’s motion controller ecosystem and accepts third-party drivers when motor specifications are confirmed. System designers should verify motor torque and speed requirements, cable length limits, and power supply regulation to optimize performance across complex multi-stage configurations.
