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Overview of Multi-Purpose Tap Machining Cases for Belemnites
Heavy-duty truck – gearbox spiral bevel gear – 20CrMnTi, HRC 22–25 – thread machining Heavy-duty truck – wheel hub unit – 55# forged steel, HB 180–220 – thread machining Automotive parts – wheel hub bearing unit – 55# forged steel, HRC 22–25 – thread machining Construction machinery – excavator mounting base – Q345B, HB 180–220 – thread machining Elevator – traction machine brake – Q345B, HRC 22–25 – thread machining Automotive parts – connecting shaft – 20Cr, HRC 22–25 – thread machining Automotive parts – piston rod – 20#, HB 150–180 – thread machining Heavy-duty truck – wheel hub unit – 55# forged steel, HB 180–220 – thread machining
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2023
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Truck driveshaft bore machining
Trial Cutting Report for Hole Machining of a 42CrMo Material Spline Shaft for Truck Transmissions (HRC 30–35).
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3D Printing Mold Material Processing
3D-printed materials are regarded as inherently defective due to macroscopic structural inhomogeneities and defects that are typically associated with the selected additive manufacturing process, often manifesting as non-nominal features in the designed build geometry. These include surface texture characteristics such as roughness and waviness, as well as residual powder—such as channels, pores, and cavities—and thread machining. In particular, surface waviness and finish quality are critical considerations. Consequently, more advanced post-processing steps, such as CNC machining, may be required when using processes like AFS-D friction stir additive manufacturing or AW-DED arc-wire directed-energy deposition 3D printing.
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3D Printing and Traditional Machining
3D printing, also known as additive manufacturing (AM), emerged in the 1990s. Unlike traditional subtractive manufacturing methods, 3D printing is a technology that uses computer software to create three-dimensional models through design and scanning, and then builds up objects layer by layer by depositing discrete materials such as powders or filaments.
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Valuable insights: A one-minute guide to heat-shrink tool handles
Thermo-shrinkable tool handles, as an innovative material, have garnered significant attention due to their lightweight nature, high strength, and corrosion resistance. With the accelerating pace of industrialization, the application scope of thermo-shrinkable tool handles continues to expand. So, what does the future hold for this technology?
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Introduction to Heat-Shrink Tool Handles
Heat-shrink tool holders are an important tool in modern machining. They offer a novel solution to the challenge of material connection. The unique principle behind their operation is to use a heat-shrink sleeve to reduce the length of the tool holder, followed by the application of a heat-activated adhesive patch to lock the shortened length in place, thereby achieving the desired connection.
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Case Study: Tungsten Carbide Powder Metallurgy Tap Machining
Case study of tap machining for heat-treated 40CrMo disc components.
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A One-Minute Guide to the Advantages of Heat-Shrink Tool Handles
Heat-shrink knife handles are widely used tools in the maintenance and debugging of electronic equipment. Compared with traditional knife handles, heat-shrink knife handles offer numerous advantages. The following is a detailed overview of these benefits:
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