Explore how XRZ custom PCD reamers, combination tools and solid carbide drills support precision holemaking in automotive, EV and compressor component production.
BORE / DATUM / TOOL PATHThree application routes reflect XRZ's current engineering focus. Select the component family, then validate the tooling direction from the drawing.
01 / AUTOMOTIVEPrecision holemaking for aluminum components, transmission housings, valve bodies, cylinder components and steering parts.
PCD reamers · Guide-pad reamers · Combination drill-reamers · Carbide drills
Explore Automotive Applications →02 / EV COMPONENTSCustom tooling for bearing bores, stepped holes and precision features in EV motor, reducer and lightweight aluminum housings.
PCD combination reamers · Step PCD reamers · Drill-reamers · Custom carbide drills
Explore EV Components →
03 / COMPRESSORHolemaking and finishing tools for compressor housings, scroll components, bearing bores and precision valve features.
PCD reamers · PCD form tools · Combination tools · Carbide drills
Explore Compressor Applications →Start with your workpiece and its critical features, then review the material, tolerance and machining conditions.
Bearing bores · Coaxial holes · Stepped features
EV Components ↗
Multi-diameter bores · Locating holes
Automotive ↗Long holes · Cross holes · Valve bores
Automotive ↗Guide bores · Seat bores · Precision holes
Automotive ↗Bearing bores · Mounting holes
Compressor ↗Form surface · Locating holes · Critical features
Compressor ↗These cards connect a production symptom to the engineering variables XRZ reviews before proposing a tool concept.
Review runout, guide structure, holder, pre-hole condition and edge wear.
Check built-up edge, cutting allowance, edge condition, coolant and chip flow.
Assess material, silicon content, cutting data, tool material and volume.
Explore step or combination tooling to reduce tool changes and operations.
Inspect datum strategy, guidance, clamping and accumulated changeover error.
Audit hole depth, flute space, internal coolant pressure and direction.
NEXT STEP — CORE TOOLS & RFQ
Specify the finished hole / face requirement, then choose the conversion path:
Final tooling recommendations depend on a review of the actual workpiece and machining process.
Five checkpoints turn a production issue into an appropriate, drawing-based tooling direction.
Drawing, datum, hole form and machining position.
Grade, hardness, silicon or abrasive constituents.
Allowance, machine, holder, coolant and current tool.
Material, geometry, step, guidance and coolant route.
Hole quality, stability, life, cycle and cost review.
Explore tool geometries and customization options for your component and machining process.
This example outlines a possible tooling direction. Hole quality, tool life and cycle time must be validated for the actual component, machine and process.
Discuss a Similar Application →Read practical guidance on tool selection, bore accuracy, surface finish and process troubleshooting.
Customer application review, drawing-based special tool development, preliminary concepts, inspection documentation and repeat-order identification.
Automotive, EV and compressor component production are the primary application routes.
Drawing, material grade, bore geometry, tolerance, machine, holder, coolant and current process.
Selection depends on the material and operation; solid carbide is generally the broader ferrous direction.
No. Final performance depends on the complete machining condition and must be validated.
Send your component drawing, material grade, bore requirements and current machining conditions. XRZ will review whether a custom PCD or carbide concept is technically appropriate.
