Igus Drylin XY Belt Driven Gantry System with Stepper Motors and Linear Rails (85mm x 2000mm)

The Igus Drylin XY Belt Driven Gantry System 85mm x 2000mm is a precision-engineered linear motion platform suited for advanced automation, bioprocessing instrumentation, and molecular diagnostics applications requiring reliable XY positioning. This system integrates:

• Belt-driven linear rails with a working area of 85mm (Y-axis) and 200mm (X-axis), constructed for smooth and accurate motion control.
• Polyurethane belts optimized for durability and minimal stretch in dynamic environments.
• Drylin E stepper motors, including models with integrated encoders, brakes (NEMA 34), and motor gearbox flange assemblies, facilitating precise speed and position control essential for synthetic biology workflows.
• Chainflex servo motor and control cables (5m length) engineered for flexibility and resistance to continuous motion stress.
• Proximity limit and reference switches for reliable end-stop and homing functions critical in automation and live-cell imaging instrumentation.
• Claw couplings and Igubal pillow block bearings provide robust mechanical connectivity and load support.
• Includes multiple rail mounting brackets and hardware necessary for straightforward assembly and integration.

Compatible with Igus control software and several third-party software solutions, this gantry system is widely adopted in biotechnology research domains such as gene editing and biomanufacturing due to its modularity and precision. The system’s modular design supports application in molecular cloning workflows and is adaptable to biomedical engineering tasks requiring high-throughput, repeatable positioning.

Manufactured in 08/2022, the new open-box system is globally available and includes comprehensive connection cables and accessories to ensure immediate deployment in laboratory automation setups.

This Igus Drylin XY Gantry System is a critical asset for laboratories focusing on fluorescence analysis, cell imaging, and neuroimaging applications that demand reliable and high-precision XY motion platforms in bioprocessing and synthetic biology research.