Workpiece material
Grade, hardness, abrasiveness, thermal behavior, and chip formation influence edge geometry and coating choice.

Explore the geometry, material, chip-control, and application factors that shape high-performance mills, drills, reamers, and taps.
Tool performance depends on the interaction between geometry, substrate, coating, workpiece material, machine rigidity, coolant delivery, and production goals. Select a guide to review the design variables most relevant to your operation.
Each guide explains the fundamental geometry, material-specific considerations, and customization options for its tool family.
Review helix angle, flute count, core diameter, rake, relief, corner profiles, and chatter-suppression geometry.
Read guideUnderstand point angle, chisel edge, web thinning, margins, flute geometry, chip evacuation, and coolant delivery.
Read guideExplore flute configuration, unequal indexing, chamfer lead, margin width, back taper, and precision bore finishing.
Read guideCompare chamfer lengths, flute direction, land relief, cutting taps, forming taps, and chip-control strategies.
Read guideA design guide can narrow the options, but a final recommendation should account for the complete machining system.
Grade, hardness, abrasiveness, thermal behavior, and chip formation influence edge geometry and coating choice.
Spindle range, holder condition, runout, workholding, rigidity, reach, and coolant affect practical tool performance.
Share dimensions, tolerances, surface finish, depth, access constraints, and any combined-operation goals.
Volume, cycle time, tool life, process stability, inspection, and cost-per-part objectives guide optimization.
Submit your drawing, material, machine information, current process, and production targets for an application-focused review.
Bauron works with manufacturers to review tool geometry, substrate, coating, reach, machine conditions, and production requirements for standard and custom CNC tooling.
Submit your requirements