Industrial Mold
3D打印技术具有独特的造型优势，可以满足任何复杂的几何形状模具的制造需求。高精度的模型打印使得一体成型成为可能，无需进行切割、焊接等后续处理，直接进行产品加工。这不仅解决了生产工艺上的难题，也使得模具的造型更加自由，为制造出更多具有艺术美感的产品提供了可能。
Shorten the development cycle and reduce R&D costs
Complex structure integrated molding, efficient mass production
Digital production reduces product defect rate, high product precision and stable quality
Can be customized according to needs, more free design
Structural optimization design takes into account product performance while achieving part weight reduction
Higher material utilization, less waste and sustainable development
The aerospace industry has extremely high requirements for lightweighting to improve the performance and efficiency of aircraft. 3D printing technology can realize advanced design concepts such as topology optimization, and by adjusting the internal structure and material distribution, it can produce parts that are both strong and lightweight, which helps to achieve lightweighting of aircraft.
3D printing technology can realize the manufacturing of complex and difficult-to-process parts. Traditional manufacturing methods often have difficulty in handling complex geometric shapes and internal structures, while 3D printing technology can directly print parts with complex shapes by stacking them layer by layer, greatly improving manufacturing flexibility and efficiency.
3D printing technology can realize the manufacturing of complex and difficult-to-process parts. Traditional manufacturing methods often have difficulty in handling complex geometric shapes and internal structures, while 3D printing technology can directly print parts with complex shapes by stacking them layer by layer, greatly improving manufacturing flexibility and efficiency.
3D printing technology can realize the manufacturing of complex and difficult-to-process parts. Traditional manufacturing methods often have difficulty in handling complex geometric shapes and internal structures, while 3D printing technology can directly print parts with complex shapes by stacking them layer by layer, greatly improving manufacturing flexibility and efficiency.
将3D打印技术引入到胎体PDC钻头的制造中，形成的新模具成型工艺，解决了传统的钻头模具成型工艺加工时间长，加工精度低等问题。
1. Adjustable parameters: Parameters can be adjusted according to the actual needs of customers to achieve the best printing effect. 2. Joint research and development: Jointly develop the application of various new materials with customers, and customize the best product full set of solutions. 3. High printing accuracy and good stability: Precision parts are imported products,
The process gas is introduced into the spray gun at a pressure of up to 50 bar and heated to a maximum of 1100°C. Subsequently, the process gas is accelerated to supersonic speeds and the gas is simultaneously cooled to a temperature below 100°C. The spray powder is injected into the converging part of the nozzle using a powder feed unit and a carrier gas and is then introduced into the main gas flow.
1. Scanning and forming can be performed by manipulating the magnetic deflection coil, without mechanical inertia. 2. The vacuum environment of the electron beam can also prevent the metal powder from being oxidized during liquid phase sintering or melting. 3. Laser deflection requires a galvanometer and a cooling system, and the focal length is difficult to change quickly. The electron beam deflection and focusing control is faster and more precise.
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