Laser Swiss
Laser Swiss Machining: Precision CNC Laser Cutting with Swiss Turning for Medical Hypotubes
Laser swiss machining integrates a high-precision laser with a Swiss-style CNC lathe to create intricate features on small, cylindrical, and micro-scale parts in one setup. By combining cutting and turning on a single platform, it shortens cycle times, improves accuracy, and delivers consistent results for demanding applications. At Brunk, our laser swiss machining capability is built to meet tight tolerance requirements and rigorous quality expectations.
What Is Laser Swiss Machining and How It Works
This hybrid process mounts a laser head alongside Swiss turning tools on the same machine. Bar stock is supported close to the cutting zone by a guide bushing for rigidity and control. The laser forms slots, holes, and fine edge details while the tools perform turning, grooving, and threading. Our team employs laserswiss machining strategies to synchronise laser and mechanical ops for maximum precision.
Typical workflow includes bar feeding, precision turning to diameter, laser cutting of micro-features, and on-machine deburring or polishing as needed. Operations can run sequentially or simultaneously to minimize repositioning error, a core advantage of laserswiss machining on complex micro-components.
· Tolerances: positional accuracy to ±0.0005 in
· Laser features: kerf widths under 0.002 in; micro-holes below 0.005 in
· Quality: repeatable edges, minimal heat-affected zone
· Throughput: 20–50% cycle time reduction versus separate processes
Advantages and Applications for High-Precision Components
Key benefits include tighter tolerances on complex geometries, fewer secondary operations, shorter lead times, and higher throughput. Single-setup machining reduces risks associated with multiple fixturings and handoffs.
Typical applications include medical devices (hypotubes, stent components, endoscopic tools), aerospace and defense parts, high-reliability connectors, and micro-mechanical components for instrumentation and wearables.
Materials supported: stainless steels (304, 316L), titanium, nitinol, nickel alloys, aluminum, copper alloys, and select polymers. The laser yields clean edges with limited recast and low burrs; post-processing such as electropolishing or ultrasonic cleaning can further enhance surface finish and biocompatibility.
Why Choose Brunk for Laser Swiss Machining Services
Brunk is a trusted leader in laser swiss machining, delivering reliable performance from prototype to production. Our engineering team builds robust process plans, optimizes toolpaths and laser parameters, and verifies critical dimensions with advanced metrology.
Quality controls include first-article inspection, in-process monitoring, and final inspection with calibrated equipment and full traceability. We support prototypes through high-volume production with flexible lot sizes and responsive lead times.
Request Laser Swiss Machining for your Project
With consolidated operations and reduced scrap, Brunk lowers total cost for complex parts while maintaining the precision expected from laserswiss machining and the consistency customers demand from laser swiss machining.
Frequently Asked Questions
What types of components are best suited to Laser Swiss Turning?
Laser Swiss Turning is ideal for small, high-precision components with complex geometries that would traditionally require multiple manufacturing operations. Typical applications include minimally invasive surgical device components, catheter and endoscope parts, implantable device components, precision connectors, sensor housings, aerospace electronics, photonics, semiconductor equipment, and other high-value components used in MedTech and high-technology industries.
What are the advantages of combining laser processing with Swiss turning?
Integrating laser machining directly into the turning process reduces the need for secondary operations, improving accuracy and repeatability while shortening production cycles. Manufacturing multiple features in a single setup minimises part handling, improves positional tolerances between machined features, and reduces overall production costs for complex precision components.
Which materials can be processed using Laser Swiss Turning?
Laser Swiss Turning is suitable for a wide range of engineering materials commonly used in regulated and high-performance applications. These include stainless steels, titanium, nitinol, cobalt chrome, aluminium, brass, copper alloys, engineering plastics, and other specialist materials. Material selection is always matched to the functional and regulatory requirements of the application.
Can you support both prototype development and high-volume production?
Yes. Our Laser Swiss Turning capability supports the complete product lifecycle, from early-stage prototypes and design verification through to validated production and high-volume manufacturing. By using the same manufacturing platform throughout development and production, we help minimise process changes, reduce development risk, and ensure a smooth transition to volume manufacture while maintaining consistent quality and traceability.
