1. Electronic and electrical industry

• Core applicationsTest the temperature resistance of precision components such as smartphones, computers, display screens, PCB substrates, electronic chips (ICs), semiconductor ceramics, etc.
• typical scenarioPossible short circuits and performance degradation of chips under alternating cold and hot shocks; The charging and discharging stability of mobile phone batteries under extreme temperatures; The welding reliability of electronic components during sudden temperature changes.
• data supportThe electronic consumer goods sector accounts for 20% of the total demand in the test box market, with an average annual growth rate of 15%.

2. Automotive industry

• Core applicationsEvaluate the durability of components such as engines, transmissions, sensors, battery packs, etc.
• typical scenarioPerformance degradation of new energy vehicle battery packs during low-temperature charging and high-temperature discharging; The signal transmission stability of automotive electronic control systems under extreme temperatures; The aging rate of seals during temperature cycling.
• data supportBetween 2021 and 2022, the demand for test chambers in the automotive industry will increase by 10%, with electric vehicle manufacturers contributing over 50% of the market share.

3. Aerospace field

• Core applicationsVerify the performance of spacecraft materials, wing structures, and electronic devices in extreme temperature environments in space.
• typical scenarioDeformation of satellite components during temperature alternation from -180 ℃ to+150 ℃; The sealing performance of rocket engine seals under thermal expansion and contraction; The anti-interference ability of aircraft electronic equipment under temperature shock.
• data supportThe aerospace industry consumes approximately 25% of the world's test chamber products, and is expected to rise to 28% by 2025.

4. New Energy and Materials Science

• Core applicationsTest the weather resistance of solar panels, lithium batteries, and polymer materials.
• typical scenarioThe capacity degradation of lithium batteries at low temperatures and the risk of thermal runaway at high temperatures; Changes in photoelectric conversion efficiency of photovoltaic materials during temperature cycling; The mechanical stability of composite materials at extreme temperatures.