Desktop small thermal aging box

Core functions of the device

Desktop small thermal aging boxBy accelerating the aging process of materials at a constant temperature, the performance changes of rubber, plastic, leather, fabric and other materials such as yellowing resistance, shrinkage, elongation and residual rate can be accurately tested, especially suitable for efficient testing of small batch samples in the laboratory.

Compact design and high performance

Flexible volumeAdopting a desktop design, it saves space and is suitable for compact laboratory environments. Some models support customized sizes.

Precise Temperature ControlThe temperature range covers room temperature to 300 ℃ (some up to 500 ℃), with uniformity within ± 2 ℃. It is equipped with a PID temperature control system and platinum resistance sensor to ensure high precision of ± 0.1 ℃.

Versatile application scenarios

Desktop small thermal aging boxSuitable for electronic component life testing, plastic/rubber aging evaluation, coating weather resistance testing, etc., supporting high-temperature performance verification of electrical insulation materials, wires and cables, etc.

Intelligent and convenient features

touch control operationSupport parameter setting and real-time data monitoring, with multiple sets of data displayed on one screen.

safety designOver temperature protection, automatic ventilation, and tempered glass observation window ensure safe and visible testing.

Low maintenance and long lifespan

The stainless steel inner liner and air duct circulation system reduce dust accumulation, and regular cleaning can maintain performance, making it suitable for long-term high-frequency use.

summaryThe desktop thermal aging chamber combines high-precision temperature control, multi scenario adaptability, and intelligent operation with a compact size, becoming an efficient solution for laboratory material aging testing.

The wide application of thermal aging chamber:

Rubber industry: Evaluate the heat resistance of tires, seals, etc., and test performance changes such as tensile strength as required.

Plastic industry: Testing the high-temperature stability of engineering plastics, determining the upper limit of usage temperature, and optimizing formulations.

Electrical insulation materials: accelerate aging according to standards, predict insulation life, and ensure electrical safety.

Adhesives and sealants: Test the high-temperature bonding performance, such as the strength retention rate of building adhesives and automotive sealants.

Artificial leather and textiles: evaluate heat resistance, prevent fading and brittleness, optimize production processes.

Research and testing: used for new material development and life prediction, requiring precise temperature control and data recording.

Medical devices: Some polymer materials (such as catheters) undergo preliminary heat resistance screening, but usually require more rigorous testing.