Polyurethane Products & Components for Robotics

Our polyurethane components are designed for robotic and automated equipment exposed to repeated motion, friction, impact, mechanical loads, and continuous operation.

1.Mobile Robots & AGVs-Polyurethane wheels, rollers, bumpers, and protective components support mobile robotic platforms and automated guided vehicles.

• Automated Guided Vehicles
• Autonomous Mobile Robots
• Mobile Robot Platforms
• Transport Robots
• Warehouse Robots

2.Robotic Arms & End Effectors-Custom polyurethane gripping, cushioning, sealing, and protective components support robotic arms and end-of-arm tooling.

• Robotic Arms
• End Effectors
• Robotic Grippers
• Pick-and-Place Systems
• Automated Assembly Equipment

3.Automated Handling Systems-Polyurethane rollers, wheels, guides, pads, and wear components support automated movement and material handling systems.

• Conveyor Systems
• Transfer Systems
• Sorting Equipment
• Automated Handling Equipment
• Material Transfer Systems

4.Industrial Automation Equipment-Custom polyurethane components can support automated machinery requiring repeated movement, positioning, protection, and mechanical contact.

• Automated Production Lines
• Assembly Equipment
• Positioning Systems
• Machine Handling Systems
• Industrial Automation Equipment

Why Use Polyurethane in Robotics Applications?

Polyurethane combines wear resistance, flexibility, resilience, impact resistance, and mechanical strength, making it suitable for selected robotic and automation components exposed to repeated movement and mechanical contact.

1. Wear Resistance-Polyurethane wheels, rollers, pads, and contact components can withstand repeated friction and movement, helping extend component service life.
2. Flexibility & Resilience-Polyurethane provides elastic recovery and controlled flexibility for gripping, cushioning, sealing, and moving components.
3. Grip & Traction-Properly selected polyurethane formulations can provide suitable friction and traction for robot wheels, rollers, gripping pads, and contact surfaces.
4. Impact Resistance-Polyurethane can absorb mechanical shock and help protect robotic equipment, workpieces, and moving components during repeated operation.
5. Custom Performance-Polyurethane hardness, formulation, dimensions, geometry, and surface characteristics can be tailored according to load, speed, friction, contact surface, and operating conditions.

Robotics Component Challenges We Help Solve

Robotic systems operate through repeated movement and mechanical contact, making wear, impact, grip, and component durability important considerations.

1. Repeated Friction & Wear-Polyurethane Solution: Polyurethane wheels, rollers, pads, and wear components help withstand repeated contact and movement.
2. Insufficient Grip & Traction-Polyurethane Solution: Properly selected polyurethane materials can provide suitable friction and traction for robotic wheels, rollers, and gripping components.
3. Workpiece Damage During Handling-Polyurethane Solution: Soft or application-specific polyurethane gripping pads and contact components can help reduce direct metal-to-product contact.
4. Mechanical Impact-Polyurethane Solution: Polyurethane bumpers, cushions, and impact components help absorb repeated mechanical shock and protect equipment.
5. Frequent Component Replacement-Polyurethane Solution: Durable, application-specific polyurethane components can help extend service intervals and reduce maintenance frequency.

Custom Polyurethane Manufacturing for Robotics

We manufacture custom polyurethane components according to engineering drawings, CAD files, samples, and technical specifications. Our manufacturing process combines material selection, molding, machining, bonding, and inspection to produce components suited to specific robotic and automated systems.

1. Drawing or Sample- Provide your engineering drawing, CAD file, existing sample, or component specifications. We review the dimensions, geometry, tolerances, and application requirements.
2. Material Selection- We recommend a suitable polyurethane material and hardness based on load, friction, wear, impact, speed, temperature, and operating conditions.
3. Mold Design & Molding- Molds are designed according to the required component geometry and production requirements. Polyurethane is then cast or molded to achieve the specified shape and performance.
4. Machining & Finishing- After molding, components can be machined, trimmed, drilled, bonded, or finished according to required dimensions, tolerances, surface requirements, and assembly specifications.
5. Inspection- Finished components are inspected for dimensions, hardness, appearance, and other specified requirements to support consistent quality and reliable robotic equipment performance.