• The unique machining technology and anodic oxidation finishing process deliver perfect consistency of accuracy, durability, and appearance for this series of products;
• Efficiently driven by precision ball screws, the products feature high driving efficiency, low starting torque, and highly precise positioning and repositioning;
• Self-aligning ball linear guides work with the lightweight preloaded assembly technology to eliminate clearance and enhance rigidity, which achieves large load capacity, and excellent straightness and parallelism of motion;
• The standard two-phase stepping motor featuring high torque and high stability is equipped;
• The standard motor is equipped with a hand wheel, which allows both manual and automatic operations;
• Two mechanical limit switches are equipped to realize overtravel deceleration and limit protection;
• One zero-position photoelectric switch is equipped to deliver precision positioning at the zero position and error correction, avoiding troubles caused by error accumulation.
• The universal standard DB9 port is compatible with our two-phase stepping motor controller;
• Mounting holes are arranged in a standard manner to facilitate the installation of instruments and equipment and the combination of multi-DOF modules;
• Grating rulers are optional for close-loop control, and the close-loop resolution within a short travel range can reach up to 1 μm;

     Driven by components such as precision ball screws, self-aligning ball linear guides, and high-quality couplers, the EPSA-G series of standard motorized linear motion stages are powered by a two-phase stepping motor, which has the features of high torque, low heat generation, and high stability. The products of this series are manufactured with lightweight and high-strength aluminum alloy for the main body, by combining long-tested special processing and assembly technologies.

     The products boast a range of advantages, including a well-established series, excellent stability, strong universality, and easy combination, which enable them to be widely applied in precision optical experiments, precision positioning, and precision machining by scientific research and industrial users. Their performance remains stable and consistent even in complicated industrial conditions, which makes them extremely cost-effective.