The Robotic High-Pressure Waterjet Cutting system represents the pinnacle of precision engineering for automotive interior manufacturing. By integrating high-performance 6-axis robotics with an advanced high-pressure waterjet system, this equipment delivers unmatched accuracy in cutting intricate shapes and holes—including skylight, handle, and positioning holes—ensuring that every component meets rigorous vehicle design specifications.
Designed for maximum throughput and spatial efficiency, the system utilizes a unique upside-down multi-robot configuration. This innovative architecture minimizes the factory footprint while optimizing coordinated workflows, achieving an industry-leading production rhythm of up to 55 seconds per piece. From traditional combustion engine interiors to the evolving needs of Electric Vehicle (EV) components, this solution guarantees superior edge quality and consistent reproducibility.
| Robot Configuration | 6-Axis Precision Robotic Arm | Cutting Technology | High-Pressure Waterjet System |
|---|---|---|---|
| Maximum Efficiency | Up to 55 Seconds/Piece | Structure Type | Upside-Down Multi-Robot Layout |
| Application Focus | Automotive Interior Parts | Compatible Materials | Plastics, Foams, Fabrics, Composites |
| Key Cutting Features | Skylight, Handle & Positioning Holes | Alignment System | Product Positioning Moulds |
| Industry Standard | Automotive Grade / EV Ready | Operational Goal | High-Throughput Precision Cutting |
Combines 6-axis movement with waterjet technology to execute complex geometries with tight tolerances.
Coordinated multi-robot synchronization allows for high-speed output, reaching 55s per unit.
Cold-cutting process eliminates heat generation, preventing material warping and ensuring edge integrity.
The unique upside-down installation maximizes vertical space and reduces total floor area required.
Seamlessly processes a wide range of densities, from soft fabrics to rigid automotive composites.
Reduced kerf width and minimal material waste contribute to lower costs and eco-friendly manufacturing.
Precise 6-axis trajectory planning for seamless cutting of complex interior curvatures.
Dynamic control of waterjet pressure based on material thickness and density.
Instant feedback on cutting progress and system health to prevent downtime.
Integration with positioning moulds to ensure 100% reproducibility across batches.
Centralized management of multiple robots working in parallel for optimized throughput.
Quick-setup parameters for low-volume runs and new interior design testing.
| Performance Metric | Traditional Manual/Die Cutting | Robotic Waterjet System |
|---|---|---|
| Production Speed | Slow/Labor Intensive | Ultra-Fast (55s/piece) |
| Material Waste | High (Die margins) | Minimal (Precision kerf) |
| Design Flexibility | Requires new dies for every change | Software-driven rapid updates |
| Edge Quality | Potential for fraying/burrs | Clean, smooth, no-heat edges |
| Space Efficiency | Large floor area required | Compact upside-down design |
The system is highly versatile and specifically designed for plastics, foams, fabrics, and various composite materials used in headliners, dashboards, and door trims.
It optimizes the use of vertical space, allowing multiple robots to operate in a smaller footprint, which is critical for factories with limited floor area.
Yes, it is ideal for EV components where high precision is required for installing electrical systems, battery enclosures, and lightweight panels.
Depending on the complexity of the part, the system can achieve a fast production rhythm of up to 55 seconds per piece.
Unlike lasers, waterjet cutting is a cold process, meaning there is no heat-affected zone, eliminating the risk of melting or scorching sensitive foams and fabrics.
Absolutely. The software-based control allows for quick setup and flexible adjustments, making it perfect for testing new designs without expensive tooling.