MORSE C/Tool 1/4"-20 USS 4-FLUTE TAPER TAPS MCT 32303
MORSE® 32303 2046 General Purpose Straight Flute Hand Tap, Right Hand Cutting, 1/4-20 Thread, H3 Thread Limit, Tapered Chamfer, 4 Flutes, Bright, HSS
-
BrandMORSE®
-
UPC686125323035
-
Manufacturer Part Number32303
-
CountryUSA
-
Finish/CoatingBright
-
Thread Length1 in
-
MaterialHSS
-
Thread LimitH3
-
Thread Size1/4-20
-
Thread StandardGround/UNC
-
Chamfer TypeTapered
-
Measurement SystemImperial
-
TypeGeneral Purpose
-
Series2046
-
Number of Flutes4
-
Cutting DirectionRight Hand
-
Overall Length2-1/2 in
- Straight flute hand taps are used for hand tapping and machine tapping in through holes or blind holes in a wide variety of materials
| Competitor Name | Competitor Part Number |
|---|---|
| Berkshire eSupply | MT3732303 |
-
UNSPSC23241615
-
Package Description1/PK
-
Standards/ApprovalsISO 9001:2008
Recently Viewed
MORSE® 32303 2046 General Purpose Straight Flute Hand Tap, Right Hand Cutting, 1/4-20 Thread, H3 Thread Limit, Tapered Chamfer, 4 Flutes, Bright, HSS
.938" X 1.375" X .250" RADIAL SHAFT, SINGLE LIP SOLID SEAL
Drillco 28A035AB 2800 Straight Flute Tap, Right Hand Cutting, M3.5x0.6 Thread, D4 Thread Limit, Bottoming Chamfer, 3 Flutes, Uncoated, HSS
Straight Flute “Hand Taps” are the most popular and versatile style of taps in general machine tapping operations. They are for general use in production tapping or hand operations in a wide range of application material groups.
Synchronous belt drives help reduce the problems of slippage, belt stretch, lubrication and metal to metal contact. They provide superior performance because power is transmitted by positive engagement of belt teeth rather than by friction, as in conventional belt drives.
MORSE® 90796 5943T Center Cutting Regular Length Single End End Mill, 3/8 in Dia Cutter, 7/8 in Length of Cut, 4 Flutes, 3/8 in Dia Shank, 2-1/2 in OAL, TiAlN Coated
Synchronous belt drives help reduce the problems of slippage, belt stretch, lubrication and metal to metal contact. They provide superior performance because power is transmitted by positive engagement of belt teeth rather than by friction, as in conventional belt drives.
