423 In Stock

The 423 by Newport is a high-performance and low-profile Linear Stage specifically designed to cater to various applications. One standout feature of this stage is its symmetrical design, which allows effortless reconfiguration for either a right-handed or left-handed setup, offering unparalleled versatility and adaptability to users. At the core of the 423 is its spacious 3-inch square platform, meticulously engineered to deliver exceptional value, usability, and performance.

The 423 actuators, vital components for smooth motion, repeatability, and stability, are thoughtfully designed to exert pressure on hardened carbide inserts, ensuring optimal performance and durability. To eliminate potential backlash and ensure precision, this stage comes equipped with springs that apply preload against the actuator tip, a feature that enhances the overall reliability and accuracy of the stage. The 423 boasts impressive travel capabilities, capable of traversing a full 1 inch with a compatible SM-25 Micrometer Drive, or a 0.5-inch drive, such as the SM-13, when the actuator mounting blocks are relocated. For added stability and assurance, a non-influencing lock is incorporated, guarding against unintended adjustments and maintaining a steady position throughout operation.

The 423 incorporates precision ball bearing construction, enabling seamless and precise motion for a wide range of tasks. A major advantage of this stage lies in its ball bearings, which significantly reduce friction compared to conventional rolling motion typically used to guide linear translation. This reduction in friction ensures smooth and seamless travel across the entire range of motion, even when the guideways are externally loaded, effectively eliminating any unwanted runout in the bearings. Moreover, the 423's ingenious design enables effortless configuration into multi-axis stage stacks, allowing users to achieve complex motion setups with ease. Each axis of the stage can be conveniently locked into place, providing added convenience and stability during multi-axis operations.