GF Machining MLTC
Key Specifications
X / Y / Z Travel
Spindle Speed
Laser Source
Positional Repeatability
Motion System
Machine Structure
Overview
The GF Machining Solutions MLTC (Multi-Laser Tube Cutting) is a specialized femtosecond laser micromachining system purpose-built for manufacturing precision medical tubes, stents, and micro-components in a single setup. Unlike general-purpose laser texturing machines, the MLTC is engineered specifically for the medical device industry's demanding requirements for burr-free, heat-affected-zone-free cutting on thin-walled tubular components.
At the core of the MLTC is a 40 W femtosecond laser source that delivers clean material ablation through ultrashort pulse processing. The femtosecond pulse regime ensures zero heat-affected zones and burr-free cut edges — critical requirements for implantable medical devices where surface quality directly impacts biocompatibility and fatigue life. The system eliminates the need for secondary deburring operations that are common with conventional laser cutting systems.
The machine's granite-based mechanical structure provides exceptional thermal stability, while ironless linear motors and high-resolution glass scales deliver 1 µm positional repeatability across the 280 x 20 x 24 mm work envelope. The integrated 1,000 RPM spindle enables continuous rotation of tubular workpieces during cutting, allowing complex stent patterns and helical features to be produced in a single uninterrupted operation without consumables or dedicated tooling.
Compact at 1,600 x 2,000 x 2,000 mm and 2,300 kg, the MLTC fits into cleanroom and controlled production environments typical of medical device manufacturing facilities. Its single-setup capability — combining cutting, drilling, and surface modification on tubular components — reduces handling, fixturing, and potential contamination compared to multi-machine process chains.
Full Specifications
| Parameter | Value |
|---|---|
| X / Y / Z Travel | 280 x 20 x 24 mm (11.0 x 0.8 x 0.9 in) |
| Spindle Speed | 1,000 RPM |
| Laser Source | Femtosecond laser, 40 W |
| Positional Repeatability | 1 µm |
| Motion System | Ironless linear motors with high-resolution glass scales |
| Machine Structure | Granite-based for thermal stability |
| Machine Dimensions (W X D X H) | 1,600 x 2,000 x 2,000 mm (63 x 79 x 79 in) |
| Machine Weight | 2,300 kg (5,071 lbs) |
| Machine Dimensions | 1600 x 2000 x 2000 mm62.992 x 78.74 x 78.74 in |
| Machine Weight | 2300 kg5070.58 lbs |
| Travel Paths Of Axes X Y Z | 280 x 20 x 24 mm11.024 x 0.787 x 0.945 in in |
| Spindle Speed Max | 1000 rpm |
| Laser Sources | 40 w |
Specifications sourced from gfms.com — verified 2026-03-28
Strengths & Limitations
Strengths
- Femtosecond laser delivers zero heat-affected zone and burr-free cutting on medical tubes
- Single-setup capability eliminates multi-machine process chains for tube micromachining
- 1 µm positional repeatability ensures precision required for implantable medical devices
- Granite structure and ironless linear motors provide exceptional thermal and vibration stability
- No consumables or dedicated tooling required — reduces ongoing operational costs
- Compact footprint suitable for cleanroom and controlled medical device manufacturing environments
Limitations
- Very small work envelope (280 x 20 x 24 mm) limits application to micro-scale tubular components
- Highly specialized machine — limited versatility outside medical tube cutting applications
- High capital cost for a single-application system versus general-purpose laser machines
- 40 W laser power may limit throughput on thicker-walled tubes compared to higher-power systems
Best For
Frequently Asked Questions
01
Femtosecond lasers ablate material before heat conducts into the workpiece, producing zero heat-affected zone, no recast layer, and burr-free edges. For implantable medical devices, this eliminates secondary deburring and electropolishing steps while ensuring biocompatibility and fatigue resistance of the cut surfaces.
02
The MLTC's 20 mm Y-axis and 24 mm Z-axis travel, combined with the 1,000 RPM spindle, accommodate the range of tube diameters typically used in stent, catheter, and micro-component manufacturing — from sub-millimeter micro-tubes up to approximately 20 mm diameter.
03
No. The MLTC's fixturing system accommodates different tube diameters without dedicated tooling or consumables. The laser-based process is non-contact, eliminating tool wear and the associated quality variation that comes with mechanical cutting methods.
04
Fiber laser systems offer higher cutting speeds but produce heat-affected zones and burrs that require post-processing. The MLTC's femtosecond laser delivers clean cuts that typically need no secondary operations — a significant advantage for medical devices where every additional process step adds cost and contamination risk.
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