Sumitech’s precision machining process for semiconductor components mainly includes technical principles, process flow, and key processing technologies. Firstly, from a technical perspective, the core of precision machining of semiconductor components lies in achieving size control and surface quality optimization at the micrometer or even nanometer level. This requires strict control of parameters such as temperature, pressure, and cutting force during the machining process to ensure that the machining accuracy and surface roughness meet the design requirements. At the same time, semiconductor materials such as silicon and gallium arsenide have unique physical and chemical properties, which also

Due to the low thermal conductivity of titanium alloy, the heat generated during processing is difficult to conduct out in a timely manner, resulting in local high temperatures on the cutting edge, which can easily cause diffusion wear of the cutting tool. Therefore, it is necessary to adopt appropriate cooling methods and cutting parameters to reduce the generation and accumulation of heat. Secondly, the work hardening phenomenon of titanium alloys is severe, with high affinity for cutting tools, which can easily exacerbate tool wear. In order to extend the tool life, it is necessary to choose

Precision machining of aviation parts is an indispensable part of modern aviation industry, characterized by high precision, high efficiency, and strict process requirements. Sumitech’s detailed introduction to precision machining of aviation parts: 一、 Processing characteristics: 1. High precision: The dimensional tolerances of aviation components are often measured in micrometers, and the surface roughness also needs to reach extremely high standards to meet the stringent performance and safety requirements of aircraft. 2. High efficiency: With the development of the aviation industry, the demand for machining efficiency of parts is constantly increasing. Precision machining technology achieves efficient production

Precision medical processing and manufacturing are key links in the medical industry, involving the production of high-precision, high-quality components and assemblies, which are crucial for the performance, safety, and reliability of medical equipment. The characteristics of Sumitech precision medical processing are mainly reflected in the following aspects: 1. High precision: The precision of medical equipment requires extremely high machining accuracy of parts, often reaching the micrometer or even nanometer level. This high-precision machining ensures the stability and accuracy of medical equipment during operation. 2. Special materials: Medical parts often use high-performance materials such as titanium alloys,

Five axis machining technology refers to the techniques and methods of using five axis machine tools to process complex parts. On the basis of the X, Y, and Z linear axes, a five axis machine tool adds any two of the three rotational axes A, B, and C to achieve machining with five degrees of freedom. Sumitech’s use of this processing method has the following characteristics and advantages: 1. High efficiency and precision: Five axis linkage machining can complete complex machining with one-time clamping, avoiding repeated positioning errors caused by multiple clamping, saving time, and improving