In the aerospace industry, the reliability and performance of aerospace vehicles are of utmost importance. These vehicles operate in some of the most extreme and challenging environments, from the harsh vacuum of space to the turbulent conditions during atmospheric re - entry. Our Custom Walk - in Environmental Test Chamber for Aerospace Vehicles is a cutting - edge solution designed to meet the rigorous testing requirements of these complex and high - value assets. This specialized chamber provides a controlled environment to simulate a wide range of aerospace - specific conditions, enabling manufacturers, researchers, and quality assurance teams to evaluate the vehicle's performance, durability, and safety under various scenarios.
The walk - in environmental test chamber features a spacious and highly configurable interior. With customizable dimensions, it can accommodate a variety of aerospace vehicles, from small unmanned aerial vehicles (UAVs) to large - scale satellites and spacecraft components. The standard chamber sizes range from 6 cubic meters to 100 cubic meters, allowing for the testing of different vehicle models and configurations. The interior can be equipped with advanced fixtures, mounts, and support structures to securely hold the aerospace vehicles during testing. These fixtures can be adjusted to simulate different orientations and load conditions, ensuring accurate and realistic testing.
This chamber offers precise control over a comprehensive set of environmental parameters relevant to aerospace applications. Temperature can be adjusted from extremely low (- 196°C, simulating cryogenic conditions in space) to very high (1500°C, mimicking the heat of re - entry) with an accuracy of ± 0.5°C. Humidity can be precisely regulated from near - zero levels (mimicking the vacuum of space) to specific levels required for testing components that may encounter moisture during ground operations or in certain atmospheric conditions. The chamber can also simulate altitude changes, air pressure variations, solar radiation, cosmic radiation, and microgravity environments.
We understand that different aerospace vehicles have unique design requirements, mission profiles, and operating conditions. Therefore, our chamber allows for fully customizable test profiles. Manufacturers and testers can program complex temperature and humidity cycles, radiation exposure levels, and transition rates to replicate the specific environmental conditions that the aerospace vehicles will face during their missions. For example, a satellite designed for low - Earth orbit may require a test profile that includes exposure to high - intensity solar radiation, rapid temperature fluctuations, and microgravity. A re - entry vehicle, on the other hand, may need a profile that focuses on extreme heat, high - speed airflows, and shockwaves during atmospheric re - entry. This flexibility ensures that each aerospace vehicle is tested under the most relevant and accurate conditions, leading to reliable and actionable test results.
The walk - in environmental test chamber is equipped with a state - of - the - art monitoring and data acquisition system. Multiple sensors are strategically placed throughout the chamber and on the aerospace vehicles themselves to continuously monitor environmental parameters and vehicle performance. These sensors can measure temperature, humidity, pressure, radiation levels, vibration, and various vehicle - specific data such as structural stress, electrical performance, and thermal conductivity. The real - time data is accessible and analyzable through an intuitive touch - screen control panel. The system also has the ability to record and store historical data, enabling users to compare results from different tests and analyze trends over time.
Built with high - quality materials and advanced engineering techniques, the walk - in environmental test chamber is designed to withstand the rigors of continuous use and the extreme conditions it simulates. The exterior is constructed from a strong, radiation - resistant alloy that can endure exposure to high - energy radiation and extreme temperatures. The internal components, including heating, cooling, and radiation simulation systems, are built to last and are regularly maintained to ensure consistent performance. Safety features such as emergency stop buttons, over - temperature protection, radiation leakage detection, and fire suppression systems are in place to protect operators and the valuable aerospace vehicles being tested.
The chamber is equipped with a user - friendly interface that simplifies the testing process. The intuitive touch - screen control panel allows operators to easily set up test profiles, start and stop tests, and monitor real - time data. The interface also provides access to historical test data, enabling users to compare results from different tests and make informed decisions about vehicle design and improvement. Additionally, the system can be integrated with other testing equipment and software, allowing for seamless data transfer and comprehensive analysis of the test results.
Model |
WIC-6 |
WIC-11 |
WIC-15 |
WIC-48 |
WIC-66 |
WIC-100 |
Inside dimension(W x D x H) mm |
200 x 220 x 150 |
250 x 220 x 200 |
350 x 220 x 200 |
500 x 240 x 400 |
500 x 240 x 400 |
100 x 100 x 100 |
Outside dimension(W x D x H) mm |
280 x 260 x 180 |
350 x 260 x 230 |
455 x 260 x 230 |
610 x 280 x 430 |
680 x 280 x 530 |
155 x 190 x 160 |
Internal material |
#304 Stainless Steel |
External material |
Powder coated #304 Stainless Steel |
Temperature range |
+ 150℃~ - 70 ℃ |
Humidity range |
20% ~ 98% R. H |
Temperature resolution ℃ |
0.01 |
Humidity resolution % R. H. |
0.1 |
Temperature stability ℃ |
±0.5 |
Humidity stability % R. H. |
±2 |
Heating time |
30min |
Cooling time |
-40℃/50min, -20℃/30min |
Air circulation system |
Mechanical convection system |
Cooling system |
Sirocco Fan |
Heating system |
Sus316 Stainless steel Efficient heater |
Humidification system |
Steam Generator |
Humidification water supply |
Reservoir, Sensor-controller solenoid valve, recovery-recycle system |
Controller |
Touch panel |
Electrical power requirements |
Please contact us for requirements of specific models |
Safety device |
Circuit system load protection, compressor load protection, control system load protection, humidifier load protection, overtemperature load protection, fault warning light |
Subjecting aerospace vehicles to comprehensive environmental testing in our walk - in chamber allows manufacturers to identify and address potential weaknesses in design, material selection, and manufacturing processes. By exposing the vehicles to extreme environmental conditions, manufacturers can detect issues such as structural failures, thermal management problems, and electrical system malfunctions. This enables them to make necessary design modifications and manufacturing improvements, resulting in higher - quality aerospace vehicles that are more reliable and perform better in their intended missions.
Early detection of vehicle issues through environmental testing can save the aerospace industry significant costs. By identifying and resolving problems before launch or deployment, companies can avoid expensive rework, mission failures, and potential loss of valuable payloads. The ability to test multiple vehicles or components simultaneously in the large - capacity chamber also reduces testing time and costs, improving the overall efficiency of the aerospace product development process.
The aerospace industry is subject to numerous international and national regulations regarding the safety and performance of aerospace vehicles. Our walk - in environmental test chamber helps manufacturers ensure that their vehicles comply with these regulations. By conducting thorough testing in accordance with relevant standards, manufacturers can demonstrate compliance and gain regulatory approval more easily.
In a highly competitive aerospace market, offering aerospace vehicles that can withstand extreme environmental conditions gives manufacturers a significant competitive edge. By using our custom walk - in environmental test chamber to conduct in - depth and comprehensive testing, companies can differentiate their products from competitors and showcase their commitment to quality and reliability. This can lead to increased customer confidence, more contracts, and a stronger position in the global aerospace industry.
- Thermal Performance: Test satellites to evaluate their thermal management systems under different temperature and radiation conditions. This includes testing the ability of the satellite's heat shields, radiators, and thermal control coatings to maintain the proper operating temperature of the internal components.
- Radiation Resistance: Evaluate satellites for their resistance to solar and cosmic radiation. This helps identify potential issues with electronic components, such as single - event upsets (SEUs) and radiation - induced degradation, and develop appropriate radiation - hardening techniques.
- Structural Integrity: Test the structural integrity of satellites under simulated microgravity and vibration conditions. This ensures that the satellite's structure can withstand the launch forces and the dynamic loads during its mission in space.
- Heat Shield Performance: Test the heat shields of re - entry vehicles to ensure their ability to withstand the extreme heat and high - speed airflows during atmospheric re - entry. This includes evaluating the ablation rate, heat transfer characteristics, and structural integrity of the heat shield materials.
- Aerodynamic Performance: Evaluate the aerodynamic performance of re - entry vehicles under different flight conditions. This helps optimize the vehicle's shape and control systems to ensure a safe and stable re - entry trajectory.
- Electrical and Electronic Systems: Test the electrical and electronic systems of re - entry vehicles to ensure their reliability under the harsh environmental conditions of re - entry, including extreme heat, vibration, and electromagnetic interference.
- Flight Performance in Extreme Conditions: Test UAVs to evaluate their flight performance in extreme temperature, humidity, and wind conditions. This includes testing the UAV's stability, maneuverability, and endurance in different weather scenarios.
- Electrical and Propulsion Systems: Evaluate the electrical and propulsion systems of UAVs under various environmental conditions. This helps ensure the reliability of the battery, motor, and control systems, and identify potential issues with power consumption and efficiency.
- Communication and Navigation Systems: Test the communication and navigation systems of UAVs to ensure their performance in different environmental settings. This includes testing the range, accuracy, and reliability of the UAV's communication links and navigation sensors.


Our Custom Walk - in Environmental Test Chamber for Aerospace Vehicles is a state - of - the - art solution that offers a comprehensive and reliable platform for testing the performance and durability of aerospace vehicles. With its advanced features, precise environmental control, and user - friendly interface, it enables the aerospace industry to enhance vehicle quality, reduce costs, meet regulatory requirements, and gain a competitive advantage. Whether you are a manufacturer looking to improve your aerospace vehicles or a researcher seeking to understand the impact of the environment on aerospace technology, our chamber is the ideal choice. Contact us today to learn more about how our chamber can meet your specific testing needs.