Precision Machining for Custom Carbide and HSS Components
Goray Carbide is a precision manufacturing partner for custom tungsten carbide and high-speed steel components. We manufacture finished parts according to customer drawings, samples and application requirements, with a focus on accurate geometry, functional surfaces and repeatable quality.
Our work begins where standard catalog products end. From small carbide punch pins and precision-ground bushings to complex die inserts and custom HSS tooling, each component is developed around the customer’s actual drawing, equipment and working conditions.
Carbide Punch Pins
Carbide Die Inserts
Carbide Bushings
Carbide Sleeves
Carbide Gauges
Custom HSS Punches
Goray Carbide focuses on the precision machining of tungsten carbide and high-speed steel components used in tooling, dies, molds, inspection systems and industrial equipment. We do not limit customers to standard shapes or catalog dimensions. Parts are produced according to the geometry, tolerance, material and surface requirements defined by each project.
Our role is to turn suitable carbide blanks and tool steels into finished components ready for assembly, testing and production use. This means our work is centered on machining accuracy, dimensional control, functional surfaces and communication with the customer’s engineering team.
Finished carbide and HSS components for tooling, wear, forming, molding and precision inspection applications.
Precision carbide punches, punch pins, dies and die inserts manufactured for stamping, piercing, forming, extrusion, cold heading and other metal-forming operations.
Wear-resistant components for abrasive contact, repeated movement, high-load guiding and long-running industrial equipment.
Precision-ground carbide pins, rods, shafts, nozzles, orifices and custom-shaped parts produced to drawing.
High-wear mold and tooling components designed for dimensional stability and extended service life.
Wear-resistant measuring components for repetitive dimensional inspection and long-term measurement stability.
Non-standard inserts, wear elements and industrial cutting components for forming, slitting, trimming and high-wear applications.
High-speed steel parts requiring a practical balance of hardness, toughness and resistance to chipping.
Customers may provide a drawing, sample or application requirement. The manufacturing method is reviewed according to geometry, tolerance, material, quantity and functional surfaces.
Hard-material processes selected according to part geometry, tolerance, surface finish and production requirements.
Grinding is the primary process used to achieve critical dimensions, accurate profiles and functional surfaces on finished carbide components.
Cylindrical and stepped outer diameter grinding.
Internal hole grinding for sleeves, bushings and rings.
Flat surface and end-face machining for die inserts.
Batch OD machining for slender pins, rods and punches.
High-precision hole positioning and complex mold parts.
Custom forming profiles, shaped punches and special curves.
Wire EDM is used for complex profiles, narrow slots, sharp internal features and geometries that are difficult to produce by conventional grinding alone.
The EDM strategy is reviewed according to carbide grade, part thickness, edge condition, dimensional requirements and subsequent finishing needs.
CNC machining supports the preparation and finishing of carbide blanks, high-speed steel parts and related tooling components before and after grinding or EDM.
Many custom carbide parts combine several difficult features in one component. Their manufacturability depends on geometry, wall thickness, internal radii, slot width, aspect ratio and material condition.
Grinding, polishing and lapping are applied according to the function of the surface rather than appearance alone.
For sliding, guiding and sealing contact.
For gauges and inspection parts.
For forming, drawing and reducing material adhesion.
Tolerances and surface requirements are evaluated according to part geometry, dimensions, carbide grade, production quantity and application conditions.
Clear requirements, suitable materials, controlled machining and inspection at critical stages.
Before production, we review the part geometry, dimensions, tolerances, material requirements, functional surfaces and working conditions. This review helps identify manufacturing risks and confirms which features require special attention during machining and inspection.
For carbide parts, apparently small details such as wall thickness, internal corner radius, slot width, length-to-diameter ratio and surface finish can affect the manufacturing method, tooling plan and cost.
The appropriate material is selected according to wear, impact, rigidity, geometry, EDM requirements, corrosion conditions and production volume. Material selection should support the function of the part rather than rely only on a general hardness value.
Typically selected for high wear resistance, dimensional stability, compressive strength and long production life. Common applications include punches, dies, bushings, gauges, sleeves and wear components.
Often selected where higher toughness, resistance to impact or reduced risk of brittle chipping is required. Common applications include complex punches, mold components, pins, dies and industrial blades.
Carbide grade and HSS grade recommendations should be reviewed according to the customer’s application and verified material availability.
Quality control begins before machining and continues through each critical stage of production. Inspection is focused on the dimensions and surfaces that affect part fit, movement, forming performance, sealing, measurement or wear life.
Dimensions, tolerances, datums, material and critical surfaces are confirmed before production.
Critical dimensions and manufacturing features are checked before repeat production continues.
Measurements are taken at appropriate machining stages to control dimensional change and reduce rework risk.
Finished components are checked against the agreed requirements before packaging and shipment.
Inspection methods are selected according to part size, geometry, tolerance and functional requirements.
Custom carbide and HSS components for industrial processes where wear, dimensional stability and repeatability matter.
Carbide punches, punch pins, die inserts, piercing components and forming tooling for repetitive precision stamping.
Precision carbide and HSS components for progressive dies, custom tooling, replacement parts and high-wear die sections.
Heading punches, extrusion punches, die inserts, knockout components and forming tools for fastener production.
Compacting dies, upper and lower punches, die cores and wear-resistant tooling for powder metallurgy and related pressing processes.
Carbide core pins, ejector pins, mold inserts and guide components for high-wear and high-repeatability molding applications.
Bushings, sleeves, wear rings, nozzles, guide components and carbide gauges for machinery, replacement wear parts and dimensional inspection.
Provide the drawing, sample, quantity, material requirement and application information.
We review geometry, tolerances, critical surfaces, material and manufacturing feasibility.
Pricing and lead time are confirmed according to material, machining complexity, quantity and inspection requirements.
Parts are ground, EDM-machined, finished and inspected according to the approved requirements.
After initial approval, repeat orders can be manufactured under controlled specifications.
Quotation and lead time are confirmed after drawing review.
Custom carbide components often involve requirements that cannot be understood from a product name alone. Effective manufacturing depends on clear communication between the customer, drawing review, machining and inspection.
Our objective is to identify critical requirements before production and maintain consistent technical information from the first part through repeat orders.
Send us your drawing, sample or technical requirements. Our team will review the component and provide feedback on manufacturing feasibility, material options, pricing and lead time.