4-36 FRACT SPIRAL POINT TA - KnKut

The KnKut KK22-4-36 4-36 Fractional Spiral Point Tap is a professional-grade threading tool engineered for creating precise, robust internal threads in demanding industrial and automotive environments. Designed for efficiency and durability, this tap is ideal for professional technicians and mechanics requiring reliable performance in through-hole threading operations.

Key Features

• Precision 4-36 Fractional Threads: Engineered to accurately cut 4-36 fractional (UNS) threads, ensuring a consistent and secure fit for fasteners and components.
• Optimized Chip Evacuation: The advanced spiral point (also known as a gun tap) design efficiently drives chips forward and out of the hole, preventing flute clogging and enabling faster, smoother cutting in through-hole applications.
• Superior Material Construction: Manufactured from a blend of Hi-Tungsten and Hi-Molybdenum tool steel, this tap offers exceptional strength, wear resistance, and extended tool life under rigorous use.
• Reduced Friction and Heat: Features a specialized surface treatment for maximum lubricity and precision-ground, form-relieved threads with a double back taper, which collectively minimize drag and heat buildup during tapping.
• Enhanced Durability: The strategic shallow flute design contributes to increased core strength, making the tap less susceptible to breakage during intensive threading tasks.
• High-Speed Tapping: Engineered to facilitate higher tapping speeds and faster cutting with less torque, significantly improving overall productivity.

Applications

This KnKut spiral point tap is highly effective for threading new holes or repairing existing threads across a wide array of materials commonly encountered in professional settings. It is particularly recommended for challenging materials such as stainless steels and other hard metals, as well as ductile materials like aluminum, copper, and brass. Its specialized design makes it an excellent choice for production tapping of through-holes in automotive components, heavy machinery, and various industrial fabrication tasks where efficient chip management is paramount for clean, accurate threads.