Views: 0 Author: Site Editor Publish Time: 2026-02-24 Origin: Site
In recent years, the semiconductor industry has experienced significant development driven by government policies and market demand, and my country's semiconductor sector has gradually entered a new stage of independent domestic production. At the same time, the challenges it faces in technology, R&D, and manufacturing have increasingly highlighted the importance of stable and reliable connectivity technologies.
1. Semiconductor equipment requires continuous operation for several hours, and connectors must guarantee tens of thousands of mating cycles without failure.
2. High-speed data transmission scenarios require connectors with excellent electromagnetic shielding performance.
3. Processes such as etching and deposition involve high temperatures and corrosive environments, requiring connectors to meet high protection levels, corrosion resistance, and high-temperature resistance.
4. Some chambers require a high vacuum environment, so electrical connectors must employ a high-seal design to prevent gas contamination.


1. Featuring a push-pull self-locking structure and anti-vibration design, it allows for quick insertion and removal, with a mating cycle of up to 10,000 times, ensuring stable equipment operation and reducing downtime.
2. The insulating material uses glass sintering, with a leakage rate of no more than 10⁻⁹ mbar, ensuring long-term stable operation of semiconductor equipment (such as lithography machines) in a vacuum environment.
3. The sealed connector isolates external contamination, operates in a temperature range of -55℃ to +400℃, and has an IP68 protection rating, allowing for stable operation in extreme environments such as high temperatures and strong acids and bases.
4. Superior electrical performance and electromagnetic shielding reduce signal interference, ensuring stable high-speed data transmission, and are suitable for high-frequency data, high power, and strong electromagnetic environments.
5. Compact design and high integration of functions save internal space and improve equipment flexibility.

1. Front-end wafer processing: Thin film deposition equipment (CVD equipment, PVD equipment), photolithography machines, coating and developing machines, etching machines, ion implanters, heat treatment equipment, etc.
2. Mid-end wafer processing: Dielectric layer deposition equipment, electroplating equipment, CMP equipment, etc.
3. Back-end wafer processing: Testing machines, dicing machines, molding machines, automatic testing equipment, etc.