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Fiber Blade (Mark V) – Solid Tungsten Carbide (Plain) - B645
B645

Fiber Blade (Mark V) – Solid Tungsten Carbide (Plain)

Solid Tungsten Carbide, Plain Edge — 117.5×15.6×0.91mm

Premium SteelSheffield · İngiltere

Plain-edge solid tungsten carbide fiber blade for Mark V fiber cutting machines. 117.5×15.6×0.91mm. The smooth edge provides clean, burr-free cutting. Tungsten carbide delivers superior wear resistance.

  • Fully compatible with Mark V fiber cutting machines
  • 117.5×15.6×0.91mm precision dimensions
  • Solid tungsten carbide — maximum wear resistance
  • Plain edge — clean, burr-free cutting
📐 Available Sizes:
117.5×15.6×0.91mm
In Stock

Technical Specifications

MaterialSolid Tungsten Carbide
Dimensions117.5×15.6×0.91mm
Edge TypePlain (No Notches)
CompatibilityMark V Fiber Cutting Machine

Why This Product?

Maximum Wear Resistance

Solid tungsten carbide hardness (~1500 HV) delivers 3-4x service life versus steel blades in demanding applications.

Clean Burr-Free Cutting

Plain smooth edge delivers clean, burr-free cuts — ideal for applications requiring uniform fiber length.

Precision Mark V Fit

117.5×15.6×0.91mm tolerance-matched for Mark V machines — direct drop-in replacement.

Applications

Fiberglass cutting
Carbon fiber cutting
Precision fiber cutting applications
High-wear fiber production lines

Detailed Information

The B645 plain solid tungsten carbide fiber blade is an advanced performance blade for Mark V chopped fiber cutting machines, measuring 117.5×15.6×0.91mm. The plain smooth edge provides clean, burr-free cutting while solid tungsten carbide delivers maximum wear resistance.

Technical Specifications

  • Dimensions: 117.5×15.6×0.91mm
  • Material: Solid Tungsten Carbide
  • Edge Type: Plain (Smooth)
  • Hardness: ~1500 HV
  • Machine Compatibility: Mark V Fiber Cutting Machine

Applications

Fiberglass, carbon fiber, and precision fiber cutting where uniform cut quality is essential. The plain edge provides cleaner cuts than the notched variant, suitable for applications demanding tight fiber length tolerances.