The thermal shock test chamber is designed to evaluate the performance and reliability of materials and products under sudden and extreme temperature changes. It simulates rapid shifts between high and low temperatures, allowing manufacturers to assess how well a product adapts to abrupt environmental fluctuations.

• Designed with a seamless TIG-welded interior, ensuring durability and a polished appearance. The lever-driven locking mechanism makes door operation secure and effortless.
• Equipped with a color LCD touchscreen and a high-performance programmable logic controller (PLC), integrated with proprietary software for automated, intelligent, and user-friendly operation.
• Supports both constant operation mode and programmable operation mode, adapting to different testing needs.
• Uses compressors and key refrigeration components from well-known international brands for long-term reliability. The system operates with eco-friendly refrigerants that meet global environmental standards.
• Features a dual-chamber configuration (available in vertical or horizontal designs), where test samples are transferred up/down or left/right between separate high and low-temperature zones. This setup shortens temperature recovery times and ensures efficient thermal transitions in a compact space.
• The three-zone single-chamber design keeps the test sample stationary while using an airflow switching system to change temperatures, minimizing mechanical stress and making online testing easier. It also supports room temperature cycling tests.
• Includes an RJ45 communication port and a remote control system compatible with open data transfer protocols like Modbus/OPC, allowing remote monitoring and adjustments.
• Coated with electrostatic powder for enhanced durability. The standard design follows the Beier Gray color for the chamber body and Beier Blue for the door.

• Electronics: Ensuring the durability of chips, circuit boards, smartphones, tablets, and laptops, these tests help assess how electronic components perform under extreme temperature variations.
• Automotive: Used to evaluate engines, transmissions, interior materials, and electronic control units, verifying their resistance to thermal stress and long-term reliability.
• Aerospace: Essential for testing aircraft components, spacecraft materials, and precision instruments, ensuring they can withstand the challenging conditions of high-altitude and space environments.
• New Energy: Supports the development and manufacturing of lithium batteries, helping to assess their thermal stability and safety under fluctuating temperature conditions.
• Medical Devices: Applied in cardiac pacemakers, infusion pumps, and other medical equipment, these tests ensure long-term functionality and reliability, crucial for patient safety.