SKD11 Industrial Cutting Blade Long Thin Slitting For Cutting Metal Plate

SKD11 Industrial Cutting Blade Long Thin Slitting For Cutting Metal Plate

Description:

Industrial cutting blades have a wide range of primary applications across various industries and sectors, including:

1,Electronics and Electrical Industry:

• Used to cut PCB circuit boards, flexible circuits, thin-film electronic components, etc.
• Applicable for manufacturing and repair of electronic products such as smartphones, computers, and home appliances.

2,Optical and Photonics Industry:

• Used to cut optical glass, optical films, and thin-film coatings.
• Widely used in the production of display panels, optical lenses, optical fibers, and other optical products.

3,Packaging Industry:

• Used to cut various flexible packaging materials, such as plastic films, aluminum foils, and paper.
• Applied in the production of packaging for food, medical, and consumer goods.

4,Textile and Apparel Industry:

• Used to cut textile fabrics, leather, and other fibrous materials.
• Meets the cutting requirements for garments, home textiles, and automotive upholstery.

5,Automotive Manufacturing:

• Used to cut automotive interior and exterior trim materials, seat fabrics, carpets, etc.
• Satisfies the cutting needs in the automotive manufacturing and assembly processes.

6,General Industrial Manufacturing:

• Used to cut a variety of industrial raw materials, such as metal sheets, rubber, and plastics.
• Widely applied in various stages of industrial processing and fabrication.

Industrial Blade Specifications:

The manufacturing process of industrial cutting blades exhibits the following key characteristics:

1,Material Selection:

• Tungsten carbide (cemented carbide) is the primary material choice, offering excellent hardness, wear resistance, and toughness.
• Specialty applications may also utilize high-speed steel, ceramic, and other hard material compositions.

2,Shaping Techniques:

• Powder metallurgy is a common manufacturing method, where carbide and metal powders are pressed and sintered to shape.
• Additional mechanical processing, such as hot forging and cold rolling, may be employed to further enhance the blade properties.

3,Surface Treatment:

• The blades are often coated with wear-resistant thin films through chemical or physical vapor deposition techniques, such as TiN or AlTiN.
• The coatings significantly improve the wear resistance and service life of the cutting blades.

4,Geometric Design:

• The blade shape is optimized for specific applications, with parameters like taper angle and edge geometry carefully designed.
• Precise geometric features contribute to improved cutting efficiency and precision.

5,Finishing Processes:

• Final steps include precise grinding and polishing to ensure a smooth and sharp cutting edge.
• Stress-relief heat treatment may also be performed to enhance the impact resistance of the blades.

Picture:

Size:

Applications:

Packing: