0.0312" (1/32") x .197" LOC Diamond Flute Carbide Router, Fish Tail Tip, 1/8" Shank | R105

This diamond flute carbide router features a 0.0312" (1/32") cutting diameter, .197" LOC, 1-1/2" overall length, and a 1/8" shank. Manufactured by Kyocera, this tool is designed for precision routing in abrasive and brittle materials.

The diamond flute geometry uses a fine, multi-edge cutting pattern that is gentler on brittle and fracture-prone materials, helping reduce chipping, delamination, and edge damage.

This router is optimized for FR-4, G10, fiberglass, phenolic laminates, carbon fiber, and other abrasive composites, where maintaining clean edges and consistent performance is important.

The up-cut design promotes efficient chip evacuation and can improve bottom-edge cut quality, making it well suited for through-cutting operations.

The fish tail tip is ideal for controlled entry into brittle or layered materials, helping reduce chipping and delamination at the surface.

For extended tool life in highly abrasive materials, consider upgrading to our diamond-coated routers →

👉 View Diamond Flute Router Feed & Speed Chart

Typical Applications

• PCB routing, including FR-4 and G10
• Fiberglass and phenolic laminate cutting
• Carbon fiber routing
• Abrasive composite machining
• Edge routing, profiling, and trimming
• Applications where reduced chipping and delamination are important

Benefits

• Diamond flute geometry helps reduce chipping and delamination
• Fine multi-edge cutting pattern is gentle on brittle and layered materials
• Up-cut design supports efficient chip evacuation and bottom-edge cut quality
• Fish tail tip supports controlled entry and helps reduce surface chipping and delamination in brittle or layered materials
• .197" LOC provides useful reach while maintaining rigidity for small-diameter routing
• Solid carbide construction provides rigidity and wear resistance
• Kyocera manufacturing provides consistent quality

Specifications

Tip style: Fish Tail — controlled entry into brittle or layered materials, helping reduce chipping and delamination at the surface.