XINDUX offers precision Electrical Discharge Machining (EDM) for intricate geometries and hard materials, along with advanced surface treatment solutions like anodizing, plating, and coating to enhance durability, appearance, and performance of components.
We provide advanced wire and die-sinking EDM for high-precision, fine-feature cutting. Our comprehensive surface treatment options ensure post-process tolerance compliance and controlled surface finish for optimal performance.
Wire & die-sinking EDM for fine-feature cutting
Surface treatment options: grinding, polishing, coating
Tolerance & Finish Control
Corrosion-resistant finishing (passivation, anodizing)
We ensure end-to-end quality with optional finishing layer verification and detailed surface reports. Custom coatings and welding-ready parts provided to meet environmental and assembly requirements.
Finishing layer verification & surface reporting
Custom coating for environmental compliance
Welding-ready or fully finished parts
We ensure end-to-end quality with optional finishing layer verification and detailed surface reports. Custom coatings and welding-ready or fully finished parts are provided to meet specific environmental and assembly requirements.
Finishing layer verification and surface report
Custom coating for environmental compliance
Welding-ready or finished parts on request
It covers precision EDM features and functional surface finishing for demanding industrial parts, with a project setup focused on industrial quality, manufacturability and reliable delivery.
The service includes wire EDM, die-sinking EDM, grinding, polishing, coating, anodizing and passivation.
Key listed capability data: fine-feature cutting, hardened-metal processing, tight-contour machining and controlled surface finish requirements.
Relevant infrastructure includes wire EDM, die-sinking EDM and finishing systems integrated into the production flow.
Typical materials include conductive metals for EDM plus material-specific surface treatment routes such as passivation for stainless steel and anodizing for aluminium.
It is strongest for parts with hardened materials, fine contours, functional surfaces, corrosion requirements or difficult-to-machine features.
Cost is optimized by matching the process to geometry, quantity, tolerance, material behavior and required post-processing before release.
Risk is reduced through early design review, process selection, tolerance review, tooling/manufacturing planning and alignment of inspection requirements.
Yes. Design-for-manufacturability review can identify geometry risks, avoid unnecessary tolerance cost and improve first-pass production quality.
Yes. The service setup supports early prototypes, validation batches and scalable production, depending on process and tooling route.
Quality control can include tolerance and finish control, visual and technical surface checks, finishing layer verification and surface reports.
Yes. Available post-processing or delivery options include welding-ready parts, fully finished parts, coating, polishing and corrosion-resistant finishing.
Yes. Depending on the project, parts can be supplied post-processed, inspected, coated, machined, welding-ready or ready for final assembly.
It reduces supplier fragmentation by combining technical process knowledge, production capability and finishing/inspection options under one coordinated supply chain.
Engineering teams receive clearer process boundaries, manufacturability feedback, CAD/CAM or tooling input and a more realistic path from drawing to production.
Material grade, annual quantity, tolerance class, critical dimensions, surface finish, test requirements, delivery condition and target application should be clarified.
STEP or native 3D data, 2D PDF drawings, material specifications, quantities, finish requirements and inspection standards should be provided.
Lifecycle cost is reduced by selecting the right process early, avoiding over-tolerancing, planning finishing correctly and reducing rework between suppliers.
Yes. It can be combined with machining, surface treatment, tooling, casting, forging, sheet metal fabrication or assembly, depending on the component route.
OEMs gain a technically guided manufacturing route with fewer interfaces, better process compatibility, stronger quality control and faster movement from concept to delivery.