A more flexible approach to composite winding
Robotic filament winding is designed for programs where product geometry, process requirements, or future production needs are not fully defined by a fixed machine layout. The objective is not a replacement for every CNC winding application, but a complementary manufacturing platform for composite products that require more geometric freedom, faster adaptation, or integrated automation.
Robotic winding overcomes the limits of traditional CNC winding
CNC winders are built around fixed axes — spindle rotation, carriage travel, a handful of secondary movements. Complex geometries like thrusters, curved casings, or non-cylindrical structures benefit from the additional degrees of freedom a robotic system provides: more complex paths, smoother processes, and higher winding speeds.
A single-product system limits future development flexibility
A&D programs evolve — geometries change, requirements shift, new applications emerge. A machine optimized for one product becomes a bottleneck when the next program looks different. A modular robotic system adapts, giving you a platform that grows with your development roadmap rather than constraining it.
CNC winding vs TANIQ robotic winding
| Capability | Traditional CNC Winder | TANIQ Robotic System |
|---|---|---|
| Degrees of freedom | 2–4 fixed axes: mandrel rotation, carriage travel, cross-feed, delivery eye | ✓6-axis robot + track (1) + mandrel rotator (1) + twist (1) + more if needed |
| Multi-process integration | ✗Single-process machine architecture | ✓Multiple tools and processes on one platform |
| Prototyping & low-volume A&D | ✗High retooling overhead for small runs | ✓Designed for agile development cycles |
| Fiber placement on complex geometry | Optimized for cylindrical mandrels only | ✓Possible to extend with AFP Head for placement |
Two capabilities that change what's manufacturable
TANIQ's robotic filament winding platform is built around two core principles — both aimed at removing the constraints of CNC winding.
A robot arm doesn't have a fixed architecture. It has a working envelope — and within it, full orientation control. That means fiber can be placed precisely on geometries using tool orientations that conventional CNC winders simply cannot reach.
Many composite development programs move through several iterations before reaching a stable production configuration. Robotic winding supports this process by offering a platform that can be reconfigured for new geometries, tooling concepts, and process requirements.
- Multi-tool process integration
- Robot-held-mandrel winding concepts
Watch TANIQ's robotic winding system at work
Built for parts that push boundaries
TANIQ systems serve the most demanding composite manufacturing programs in aerospace, defense, and advanced mobility.
Nozzles, motor casings, and thruster bodies with complex curvature and tight fiber angle tolerances.
Fuselage sections, structural frames, and non-cylindrical airframe components requiring full 3D fiber orientation.
Classified development programs requiring confidential production and geometry-agnostic capability.
Hydrogen tanks, composite cylinders, and next-generation high-pressure storage with advanced dome geometries.
Lightweight, high-stiffness structural components for commercial and defense unmanned systems.
Drive shafts, suspension arms, and structural components for electric and high-performance vehicle platforms.
See what your next part could look like
Talk to a TANIQ engineer about your current program — and the geometries you've been working around.
For A&D programs requiring NDA-first engagement, contact us directly at info@taniq.com