Turning rough metal parts into production-ready precision components.
Automated, selective, contact-free surface finishing for complex geometries.
Metal additive manufacturing makes geometries that conventional manufacturing cannot—but the printed surface is rarely the finished surface.
Complex metal components often require slow, expensive, and inconsistent post-processing before they can meet demanding requirements. Manual polishing and conventional abrasive tools become especially difficult around delicate features, contoured surfaces, and hard-to-reach geometry.
Elyton is building a better path from printed to production-ready.
Elyton is developing a robotic precision-finishing platform that combines controlled motion, pulsed electrochemical material removal, sensing, and process software.
| Repeatable multi-axis motion follows the geometry of each component and reduces dependence on manual finishing. | Electrochemical material removal improves surfaces without conventional abrasive contact or mechanical cutting forces. | Sensing and process data are designed to support repeatable recipes, validation, and before-and-after quality tracking. |
flowchart LR
A["As-built metal component"] --> B["Digital process plan"]
B --> C["Robotic motion + electrolyte delivery"]
C --> D["Pulsed electrochemical finishing"]
D --> E["Sensing + process control"]
E --> F["Improved precision surface"]
E -. "process data" .-> G["Traceability + validation"]
The platform is designed to selectively remove material where it is needed, while preserving the geometric freedom that makes advanced manufacturing valuable in the first place.
Our first market is metal additive manufacturing, where surface finish remains a major barrier between an as-printed component and a qualified production part.
Elyton is being developed for components with:
- Complex freeform and contoured surfaces
- Hard-to-reach or geometry-constrained features
- Delicate details that are difficult to finish mechanically
- Difficult-to-machine metals and alloys
- Repeatability and traceability requirements
Potential applications span aerospace, defense, medical, and industrial manufacturing.
Our work sits at the intersection of advanced manufacturing and robotics:
| System | Focus areas |
|---|---|
| Motion | Multi-axis robotics, precision positioning, toolpath execution |
| Process | Pulsed electrochemical machining, current control, material removal |
| Hardware | Embedded systems, power electronics, fluid handling, safety interlocks |
| Sensing | Electrical feedback, process monitoring, surface-quality measurement |
| Software | Toolpath generation, simulation, machine control, data visualization |
| Conventional finishing challenge | Elyton's platform goal |
|---|---|
| Labor-intensive manual work | Automated and repeatable execution |
| Abrasive contact and tool-access limits | Selective, contact-free material removal |
| Difficult complex geometry | Flexible robotic toolpathing |
| Operator-dependent results | Controlled recipes and process feedback |
| Limited production data | Measurable, traceable finishing outcomes |
🏆 First Place — UConn Innovation Quest 2026
Elyton was recognized for its automated metal-finishing platform combining pulsed electrochemical machining with robotic multi-axis toolpathing.
Core platform development is currently underway, so public repositories may be limited while systems are being designed, built, and validated.
We are interested in connecting with manufacturers, additive-manufacturing teams, researchers, metrology specialists, and engineering partners working on difficult metal-finishing problems.
Visit elyton.co • Contact Elyton
ELYTON
Precision, finished.
