Product Details

The field of electronic manufacturing is the main battlefield for soldering. Resistors, capacitors, and other components on PCB boards are often soldered using wave soldering or reflow soldering, with solder joint accuracy of ± 0.1mm, in compliance with IPC-A-610 electronic assembly standards, ensuring stable circuit conductivity and supporting the miniaturization development of devices such as mobile phones and computers. In the electronics of new energy vehicles, laser assisted soldering of on-board chip pins can avoid high temperature damage to the chip. The temperature resistance range of solder joints is -40-85 ℃, meeting the reliability requirements of AEC-Q100. In the medical field, micro circuit boards for blood glucose meters and electrocardiogram monitors rely on manual or semi-automatic soldering, with solder joint diameters of only 0.2mm, balancing conductivity and lightweight structure. In the scenario of home appliance maintenance, soldering is a key process that supports the precision and low-cost manufacturing of electronic devices due to its ease of operation, rapid repair of air conditioning motherboards and refrigerator temperature controller interfaces, and reduced equipment maintenance costs.

Metal welding achieves high-strength and airtight connections of metals such as steel, aluminum, and titanium alloys through high-temperature fusion or pressure. It is a cornerstone process in aerospace, automotive, energy, and other fields, suitable for manufacturing needs from micro components to giant equipment. In the aerospace field, the titanium alloy fuselage frame is welded using laser deep penetration welding, with the heat affected zone controlled within 0.1mm, and the weld strength reaching over 90% of the base material, in compliance with AMS 2680 standard, ensuring safety in extreme flight environments. In the manufacturing of new energy vehicles, laser brazing technology for battery trays can achieve 0.02mm precision welding, and the salt spray resistance test of the weld seam exceeds 1000 hours, greatly improving the anti-corrosion performance of the battery pack. In the petrochemical industry, long-distance oil and gas pipelines rely on submerged arc welding, with a single weld thickness of 20mm and a pressure resistance rating in accordance with API 1104 standards, meeting the requirements of high-pressure transportation. In the medical field, titanium alloy artificial joints use laser micro welding, with a welding point diameter of only 0.3mm and an accuracy of ± 2 μ m. It balances biocompatibility and structural stability, promoting the upgrading of metal manufacturing towards precision and high reliability.

In the automotive field, ultrasonic twist welding reduces the bumper wall thickness to below 2.5mm, while laser welding achieves an IP69K sealing level for millimeter wave radar housings, ensuring stable operation in environments ranging from -40 ℃ to 120 ℃. In the medical industry, 2 μ m laser welding achieves molecular bonding of transparent components, reducing the defect rate of insulin pumps by 40%. Ultrasonic welding meets FDA 21 CFR Part 11 standards, ensuring sterility and traceability. In the field of electronics, laser welding accuracy reaches ± 5 μ m, 976nm wavelength technology ensures high-strength connection of sensor housing, and the heat affected zone is controlled at the micrometer level. The packaging industry uses 35kHz ultrasonic technology to complete the sealing of cylindrical bags and punching of handheld holes in one step, with high weld strength and improved material utilization. From automotive lightweighting to medical sterile requirements, plastic welding drives manufacturing towards efficient and environmentally friendly upgrades.

In the field of metal processing, fiber laser cutting machines can efficiently cut carbon steel, stainless steel, and titanium alloys. In the aerospace industry, this enables the cutting of titanium alloy components with a narrow gap of 0.1mm. Coupled with inert gas protection, the heat affected zone is controlled within 50 μ m. In automobile manufacturing, 3D five axis laser cutting machines do not require molds, reducing bumper processing costs by 69% and increasing material utilization to over 90%. The CO ₂ laser cutting machine in the electronics industry focuses on cutting non-metallic thin films with an accuracy of 10 μ m, meeting the needs of precision parts such as flexible OLEDs. The medical field utilizes its sterile processing characteristics to achieve zero burr cutting of stainless steel instruments and titanium alloy implants, promoting manufacturing innovation towards efficiency and precision.

In the electronics industry, ultraviolet laser uses cold processing technology to engrave QR codes on PCB boards and chips, with a minimum line width of 0.01mm, to avoid thermal damage. In the medical field, the UDI mark created by picosecond laser has not fallen off after 72 hours of salt spray testing, meeting FDA traceability standards and ensuring the safety of surgical instruments. In the automotive manufacturing industry, it is suitable for marking the QR code on the shell of new energy batteries, and can also engrave brand logos on the leather interior, completing personalized pattern switching in 30 seconds. In the aerospace field, laser marking on high-temperature resistant materials such as titanium alloys and tungsten steel meets the AS478-3 standard and is still clear and readable even in extreme environments. From micro chips to giant components, laser marking machines are reshaping industrial marking accuracy and efficiency.