Zaber's X-VSR Series Vertical Lift Stages are revolutionizing motion control with their advanced design and functionality. These computer-controlled, stepper actuator-driven platforms are engineered to handle loads of up to 10 kg, making them ideal for a variety of precision applications. The X-VSR Series stands out with its compact design, offering travel ranges of 20 mm or 40 mm, and remarkable speed capabilities of up to 48 mm/s. Despite their small stature, these stages deliver impressive thrust, accommodating up to 200 N, which ensures reliable performance in demanding environments.

One of the standout features of the X-VSR Series is its user-friendly operation. Each unit comes with a built-in controller, allowing for seamless integration and operation. These stages are designed to be plug-and-play, requiring only a standard 48 V power supply to function. For added convenience, an optional indexed knob is available, providing manual control for situations where computer operation is not feasible. The X-VSR Series is also equipped with locking, 4-pin, M8 connectors, ensuring secure and stable connections between units.

Designed with flexibility in mind, the X-VSR Series can be easily daisy-chained with other Zaber products, sharing power and simplifying the setup process. This feature makes it possible for multiple X-Series products to operate using a single power supply, enhancing efficiency and reducing clutter. The compact design of the X-VSR stages, with closed heights of just 55 mm or 85 mm, allows them to be mounted directly onto Zaber's LST and LSQ series linear stages, further expanding their versatility.

In summary, Zaber's X-VSR Series Vertical Lift Stages offer a perfect blend of precision, power, and convenience. Their compact design, combined with robust performance capabilities, makes them an ideal choice for those seeking reliable and efficient motion control solutions. Whether used as a standalone unit or integrated with other devices, the X-VSR Series delivers exceptional results, simplifying the complexities of motion control.