Freud Finger Pull Router Bit 1/2in Shank

Freud Door Pull Bit

Routing finger pull groove for contemporary cabinet doors.

The Door Pull bit is an efficient way to make the wooden finger pull found on contemporary European-style cabinet doors. Use on a router table with a sturdy fence, along with a shop-built 20 degree auxiliary fence to produce the pull molding. Cuts all composition materials, plywoods, hardwoods, and softwoods.

• Routs hardwood, softwood, plywood or composites
• Use with CNC or table-mounted routers
• Freud Perma-SHIELD® Coating

Ideal For: Milling finger pull for cabinet doors, use in hard or soft wood

Why Freud

Freud Tools manufacture an extensive range of precise and high-tech Routing and CNC Tools. The industry leader for over 50 years Freud router bits are the result of outstanding technical expertise and advanced manufacturing processes.

Freud set themselves apart through their in-house Tungsten Carbide production. One of the only manufacturers worldwide to produce unique carbide formulations for each application. The ownership and control of the entire manufacturing process ensures outstanding quality standards and maximized performance.

The superior Perma-SHEILD thermal insulation coating prevents the adhesion of resins, reducing the downtime for cleaning. The tools spin smoothly therefore reducing stress on the motor extending the lifetime of your machine.

All Freud router bits are tested to the highest of standards utilising the latest technological methods. Computer balanced to prevent chattering and vibration. The balancing takes place on special computer-controlled equipment to determine the precise location where material needs to be removed.

Freud’s kickback reducing shoulder design contributes to a safer working environment restricting the tooth bite to 1.1mm reducing the effects of dangerous kick-backs from overfeeding.

Competence and flexibility; Freud turn great ideas into industrial solutions. Leveraging engineering know-how, high-tech machinery and flexible production cycles to anticipate the industry demands.