Temperature And Humidity Test Chamber LTHC-T2022

Introduction

Temperature and Humidity Test Chamber 80 L capacity offers sufficient space for precise and efficient testing operations. It utilizes a zero ozone depletion potential refrigerant, making it an environmentally friendly choice while ensuring optimal cooling performance. The cascade hermetic compressor enhances system efficiency and reliability for stable temperature control. It features automatic data logging and the continuous recording of essential parameters for precise analysis. Our chamber has even airflow distribution, maintaining uniform conditions throughout the chamber and enhancing test reliability.

This test equipment is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Temperature and Humidity Test Chamber is a testing device that simulates specific environmental conditions to evaluate product performance and durability. It is widely used in industries like electronics, automotive, and pharmaceuticals for quality control and research.

Specifications

Capacity	80 L
Temperature Range	-70℃ to +150℃
Temperature Fluctuation	±0.5℃
Temperature Uniformity	≤2.0℃
Temperature Deviation	±2.0℃
Heat-up Rate Non-linear	-70℃ to +100℃ 60 min
Cool-down Rate Non-linear	+20℃ to -70℃ 80 min
Humidity Range	20% R.H to 98% R.H
Humidity Fluctuation	±2.0 %RH
Humidity Uniformity	±3.0 %RH
Humidity Deviation	±3.0 %RH (>75%RH)
Noise Level	≤68 dB
Power Consumption	7 kW
Power Supply	AC 3ψ4 W 380 V 50 Hz
Dimensions (W × D × H)	400 × 500 × 400 mm
External Dimensions (W × D × H)	650 × 1665 × 1260 mm

Features

Fast cooling system

Stable humidity levels

Wide temperature range

Energy-efficient operation

Accurate temperature control

FAQs

1. How does a Temperature and Humidity Chamber ensure uniform environmental conditions?

It chambers use advanced airflow distribution systems and multiple sensors to maintain consistent temperature and humidity levels throughout the test space, ensuring accurate and repeatable results.

2. What type of heating and cooling technology is used in these chambers?

It chambers utilize high-efficiency heating elements, precision-controlled cooling systems, and eco-friendly refrigerants to ensure rapid temperature adjustments and stable control. Advanced air circulation and thermal management technologies help maintain uniform conditions, making the chambers ideal for reliable and energy-efficient environmental testing across various industries.

3. How does the chamber prevent condensation on test samples?

To avoid unwanted condensation, It chambers use controlled dehumidification systems, optimized airflow, and gradual temperature transitions, ensuring reliable test results without water accumulation.

4. What are the common failure modes of Temperature and Humidity Chambers?

The most common failures include sensor calibration drift, compressor inefficiencies, heating element malfunctions, and water leakage. Regular maintenance helps prevent these issues and extends chamber lifespan.

5. Can the Temperature and Humidity Chamber be used for accelerated aging tests?

Yes, It chambers are designed to perform accelerated aging tests by exposing materials to cyclic high temperatures and humidity, helping industries predict product longevity and durability.

6. How does the air exchange rate affect test accuracy in the Temperature and Humidity Chamber?

Proper air exchange ensures homogeneous conditions inside the chamber. It chambers are engineered to optimize airflow circulation, preventing localized temperature or humidity fluctuations.

7. What kind of water supply is required for humidity generation?

It recommends using distilled or deionized water for humidity generation to prevent mineral buildup, scaling, and contamination in the chamber’s components. This helps maintain optimal performance, extends the lifespan of sensors and steam generators, and ensures consistent and accurate humidity control for precise testing conditions.

8. How does prolonged high-humidity exposure affect metal components?

Extended exposure to high humidity can cause corrosion, oxidation, and structural degradation in metal components. It chambers help manufacturers assess material resistance under such conditions.