TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30
TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30

TNMG 332 CHIP BREAKER MFC GRADE TN30 / TNMG 160408 MFC TN30

Turning Insert
$9.25 each
10 inserts per box
Grade
Chip Breaker
Part Number
Quantity
- +

Canela reference TNMG332-MFC — triangular (T) turning insert, grade TN30. Original Canela indexable insert and 1/32" (0.79 mm) corner radius. Sold individually, no minimum order.

Specifications

  • Reference: TNMG332-MFC
  • ISO designation: TNMG 160408
  • Insert shape: triangular (T)
  • Clearance angle: 0° — negative (N)
  • Chipbreaker: MFC
  • Thickness (T): 3/16" (4.76 mm)
  • Inscribed circle (d): 3/8" (9.52 mm)
  • Corner radius (r): 1/32" (0.79 mm)
  • Grade: TN30
  • Brand: Canela

Dimensions in inches, as published in the Canela turning inserts catalog. Dimension letters follow the catalog diagram.

About the MFC chipbreaker

Alternative breaker for medium cutting of carbon steel and alloy steel.Double sided chipbreaker. Suitable for medium to light cutting. Breaker geometry appropriate for copying and back turning. Good balance of sharpness and strength.

About grade TN30

General purpose wear resistant turning grade. The multi-layer coating includes aluminum oxide to add additional heat and wear resistance. It is used to machine steel at lower speeds than TN15. This turning grade is for demanding metal removal operations, including cutting through scale at low speeds through heavy interruption, and problem machining of stainless steel at low speed and poor rigidity.

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