Precision electroforming provides high-precision, high-performance radio frequency (RF) components and antenna solutions for the 5G industry. This technology is used to manufacture key components for 5G base stations, such as high-frequency filters, waveguide cavities, and microstrip antenna arrays, ensuring low loss, high signal integrity, and excellent thermal stability. Electroforming processes can process highly conductive materials such as copper and silver, achieving micron-level complex structures to enhance the high-frequency response and power handling capabilities of components. Additionally, electroforming is suitable for mass-producing highly consistent components, such as millimetre-wave antennas and flexible circuits, meeting the miniaturisation and integration requirements of 5G devices. Its high precision and low surface roughness characteristics optimise signal transmission efficiency, supporting the high-speed, low-latency performance of 5G networks.

In the medical field, precision electroforming is used to manufacture minimally invasive surgical instruments (such as endoscope components), high-precision catheters, micro-sensors, and biocompatible implants (such as neural electrodes), ensuring dimensional accuracy and biocompatibility of complex microstructures. In the precision engineering field, this technology is applied to the production of optical moulds, micro-gears, precision nozzles, and MEMS (Micro-Electro-Mechanical Systems) components, meeting requirements for nanometre-level surface finish and complex geometric shapes. Electroforming processes can process materials such as nickel, gold, and platinum, and when combined with lithography technology, they enable high-resolution pattern replication, making them suitable for small-batch, highly customised production. Their advantages include high precision, low stress, and excellent mechanical properties, driving the development of minimally invasive medical procedures and the miniaturisation of precision devices.

Precision electroforming technology is widely used in the electronics and 3C industries for the manufacture of high-precision micro-components, such as metal brackets for mobile phone cameras, MEMS sensor structures, micro-connectors, and micro-plating of high-density PCBs. This process can process materials such as copper, nickel, and gold, achieving complex structures at the micron level, ensuring excellent conductivity, electromagnetic shielding, and mechanical strength. In the consumer electronics sector, electroforming technology is used to produce ultra-thin metal meshes (such as speaker diaphragms), flexible circuits, and precision shielding covers, meeting the demands for lightweight, high-performance devices. Its advantages in high precision, low surface roughness, and batch consistency support the miniaturisation and functional upgrades of smartphones, wearable devices, and 5G terminals, enhancing product reliability and production efficiency.