561D-XYZ-LH In Stock

The 561D-XYZ-LH by Newport is an ULTRAlign Fiber Alignment Stage by Newport that boasts a foundation of crossed-roller bearings and reference surfaces made from stainless steel, ensuring unrivaled long-term stability and unmatched performance. This exceptional construction enables linear travel of better than 100 µrad about any axis, empowering users with unparalleled control and accuracy. This stage is tailored to excel across a diverse spectrum of research and industrial applications, including the intricate realm of precision fiber optical alignment The 561D-XYZ-LH offers six degrees of rotation and seamless compatibility with three-axis XYZ positioners. Designed with meticulous attention to detail, this stage is configured for left-handed operation, further enhancing its adaptability. Through a compatible adapter, it can seamlessly align with the height of the 562-XYZ, enabling simultaneous utilization of both stages within the same system.

The 561D-XYZ-LH achieves heightened thermal immunity, ensuring consistent performance even in varying temperature environments. The integration of larger diameter bearings elevates stage stiffness, a critical factor for precision operations. The inclusion of generous 1/4-20 threaded hole patterns adds a layer of flexibility, facilitating convenient and versatile mounting options. Complex platform configurations and oversized loads find a compatible home on the 561D-XYZ-LH, as all actuators are strategically positioned beneath the top surface. This layout opens doors to intricate setups while maintaining submicron positioning accuracy. The locking mechanism, designed to have minimal impact on positioning, provides secure fixation when needed. A strategically positioned top-mounted rail serves as a steadfast anchor point for an array of fiber and device holders, ensuring secure attachment with impeccable precision. When precision alignment extends to two-axis tip/tilt maneuvers, the stage seamlessly pairs with a tilt platform. Furthermore, achieving rotation around the fiber axis becomes attainable through the integration of a goniometer.