Rapid Temperature Change Low Temperature Test Chamber

The rapid temperature change low-temperature test chamber achieves rapid temperature fluctuations within a sealed space through compressor refrigeration and electric heating systems. It is used to simulate the tolerance of products under drastic temperature changes, detecting material shrinkage, brittleness, or changes in sealing performance. It is commonly employed in the environmental adaptability verification of electronic components, coatings, and plastic products during research and development and quality control stages.
Selection
When selecting, ensure the temperature range covers testing requirements and the temperature change rate meets product standards. The chamber volume should match the sample size, and the inner chamber material must be corrosion-resistant. Compressor performance affects cooling speed, while control system accuracy determines temperature stability. Consider the equipment's energy consumption and compatibility with the laboratory's power supply, as well as the convenience of after-sales maintenance.

Terms

Instruments

Adopt multi-channel adaptive refrigeration system to achieve 10 ° C/min rapid temperature change, equipped with PID adaptive algorithm to ensure Temperature Fluctuation +/- 0.5 ° C, through the top orifice plate uniform air supply to ensure temperature uniformity, support 120 groups of program editing and remote monitoring functions.

$ 13064.00

Multi-channel mechanical compression refrigeration system is used to achieve rapid temperature change of 15 ° C/min, equipped with PID adaptive algorithm to ensure Temperature Fluctuation +/- 0.5 ° C, through forced air duct system to ensure Temperature Uniformity ≤ 2 ° C, with remote monitoring function.

$ 28119.00

The multi-channel mechanical compression refrigeration system is used to achieve rapid temperature change of 10 ° C/min, and the PID adaptive algorithm is equipped to ensure the Temperature Fluctuation +/- 0.5 ° C. The temperature uniformity is guaranteed by the design of the top orifice air supply.

$ 25973.00

Adopt multi-channel mechanical compression refrigeration system and adaptive throttling technology to achieve rapid temperature change of 5 ° C/min; Equipped with PID adaptive algorithm to ensure Temperature Fluctuation +/- 0.5 ° C, through forced air duct system to ensure temperature uniformity.

$ 9836.00

Multi-channel mechanical compression refrigeration system is used to achieve rapid temperature change of 10 ° C/min, equipped with PID adaptive algorithm to ensure Temperature Uniformity ≤ 2 ° C, reduce energy consumption and noise through frequency conversion technology, and support 120 sets of program editing and remote monitoring functions.

$ 28119.00

With a linear temperature rise and fall rate of 10 ° C/min and a wide temperature range of -60 to 150 ° C, multi-channel refrigeration system and PID adaptive algorithm are used to achieve rapid temperature convergence, and environmentally friendly refrigerants and low noise design are equipped.

$ 18437.00

The multi-channel mechanical compression refrigeration system is used to achieve rapid temperature change of 15 ° C/min, and is equipped with a two-stage throttling system and a forced air duct to ensure temperature uniformity ≤ 2 ° C. Remote visual control and fault self-diagnosis functions are supported through RS485 communication.

$ 20599.00

Adopt multi-channel mechanical compression refrigeration system and frequency conversion technology to achieve rapid temperature change of 5 ° C/min; equipped with PID adaptive algorithm to ensure Temperature Uniformity ≤ 2 ° C, support 120 groups of program editing and remote monitoring functions.

$ 20599.00

Using multi-channel mechanical compression refrigeration system and frequency conversion technology, energy consumption is reduced by 20%; with a linear temperature rise and fall rate of 15 ° C/min, Temperature Uniformity ≤ 2 ° C; through forced air duct system and special PID algorithm to achieve rapid temperature convergence and stability control.

$ 15210.00

Multi-channel mechanical compression refrigeration system and adaptive throttling technology are used to achieve 5 ° C/min linear temperature rise and drop and +/- 0.5 ° C Temperature Fluctuation; equipped with PID adaptive algorithm and forced air duct system to ensure temperature uniformity and rapid convergence.

$ 15210.00

The multi-channel mechanical compression refrigeration system is used to achieve rapid temperature change of 15 ° C/min, and the PID adaptive algorithm is equipped to ensure that the Temperature Uniformity is ≤ 2 ° C, and the 512L studio meets the diverse testing requirements.

$ 31347.00

Using multi-channel mechanical compression refrigeration system, energy saving up to 80% of congeneric pRoducts; with 5 ℃/min rapid temperature change rate; through forced air duct system to ensure Temperature Uniformity ≤ 2 ℃; equipped with remote monitoring and fault self-diagnosis function.

$ 15210.00

Adopting multi-channel mechanical compression refrigeration system and frequency conversion technology to achieve 5 ° C/min linear temperature rise and drop; equipped with PID adaptive algorithm to ensure Temperature Fluctuation +/- 0.5 ° C, built-in forced circulation air duct to ensure uniformity ≤ 2 ° C.

$ 13064.00

Multi-channel mechanical compression refrigeration system and frequency conversion technology are used to achieve linear temperature rise and drop at 10 ° C/min, with Temperature Uniformity ≤ 2 ° C. Equipped with PID adaptive algorithm and remote visual control to improve test efficiency and Stability.

$ 23827.00

The multi-channel mechanical compression refrigeration system saves up to 20% energy, is equipped with a 512L studio and a rapid temperature change rate of 5 ° C/min, and guarantees temperature uniformity through a forced air duct system. It supports 120 sets of program capacity and remote visual control.

$ 13064.00

Articles

Rapid temperature change high and low temperature test chamber for thermal fatigue evaluation of PCB board solder joints.
This paper discusses the application of rapid temperature change high and low temperature test chambers in evaluating the thermal fatigue of PCB board solder joints. Solder joint fatigue is primarily caused by differences in material thermal expansion, and the test chamber simulates thermal stress through temperature cycling to accelerate the fatigue process.
Application of Three-Chamber High and Low Temperature Test Chambers in Rapid Temperature Cycling for Electronic Products
The three-chamber high-low temperature test chamber is used for reliability testing of electronic products, enabling rapid temperature transitions through independent high temperature, low temperature, and test zones. Compared to traditional single-chamber equipment, it reduces temperature change time and enhances testing efficiency.
Effect of Rapid Temperature Change Aging Chamber on Thermal Cycling of Composite Materials
This article primarily explores how rapid thermal cycling chambers affect the performance of composite materials during thermal cycling. It explains that thermal cycling can induce internal stresses in composite materials due to differences in the thermal expansion coefficients of their components, potentially leading to microcracks or performance degradation.
Thermal Shock Test Chamber Measures Film's Temperature Change Resistance
The thermal shock test chamber creates thermal stress inside the film by rapidly switching between high and low temperature environments, testing its resistance to temperature changes. During the test, key parameters such as temperature range and dwell time need to be set, and the film is observed for issues such as cracking or performance degradation.
How to Choose the Heating and Cooling Rate for a Rapid Temperature Change Test Chamber
When selecting the heating and cooling rates for a rapid temperature change test chamber, it is essential to comprehensively consider the test standards, product characteristics, and actual engineering requirements. Rates that are too high or too low may affect the test results, making it difficult to accurately evaluate the product's environmental tolerance.