Battery Explosion Proof Temperature Environmental Chamber For Aerospace Battery

1. Product Name and Purpose

2. Product Features

• Aerospace-Grade Robust and Explosion-proof Construction
  • The chamber is constructed with a heavy-duty framework, fabricated from high-strength aerospace alloys, to withstand the intense forces and temperature extremes associated with aerospace battery testing. The exterior is designed to be not only explosion-proof but also resistant to the corrosive effects of the chemicals and gases that may be released during testing. The interior lining is made of a specialized refractory material that can endure temperatures exceeding 1500°C and prevent the spread of flames or hot gases. The door of the chamber is engineered with a redundant locking mechanism and a high-temperature-resistant gasket, ensuring an airtight and secure seal. It also features a large, optically clear viewing window, made of a toughened and heat-resistant material with anti-reflective coatings, enabling detailed visual monitoring of the testing process without compromising safety.
• Precision Climatic and Temperature Control Systems for Aerospace Applications
  • Temperature Control: The temperature control system is highly accurate, capable of maintaining a vast temperature range, typically from -80°C to +150°C, with an accuracy of ±0.1°C. It utilizes advanced cryogenic and heating technologies, along with a sophisticated feedback loop and multiple high-precision temperature sensors. This ensures uniform temperature distribution throughout the chamber and minimal temperature fluctuations over time. The control panel allows for precise programming and adjustment of temperature settings, including the ability to create complex temperature profiles with rapid ramping and extended holding periods, simulating the extreme thermal cycles experienced during spaceflight, such as the rapid heating during re-entry and the extreme cold of deep space.
  • Humidity Control: The humidity control system is equally precise, capable of achieving humidity levels from 0% to 100% RH (Relative Humidity), with an accuracy of ±1% RH. It employs a combination of advanced humidifiers and dehumidifiers, along with a carefully designed air circulation system. The chamber is equipped with humidity sensors that continuously monitor the internal humidity, and the control system adjusts the humidification or dehumidification processes accordingly. This allows for the creation of stable and dynamic humidity environments, mimicking the diverse moisture conditions that aerospace batteries may face, such as the dryness of space and the potential humidity exposure during ground handling and storage.
  • Climatic Cycling: The chamber can perform highly precise climatic cycling, transitioning between different temperature and humidity conditions with rapidity and accuracy. It can simulate the abrupt changes in climate that occur when a spacecraft moves between different planetary atmospheres or altitudes. The control panel enables users to define the rate of change, the duration of each stage, and the number of cycles, providing a highly customizable testing environment that replicates the complex and unpredictable nature of aerospace missions.
• Advanced Instrumentation and Data Acquisition for Aerospace Insights
  • The chamber is outfitted with a comprehensive suite of sensors. Temperature sensors are strategically placed both within the chamber and in direct contact with the battery to provide real-time and accurate temperature data. Humidity sensors are distributed to ensure precise measurement of relative humidity. Pressure sensors are installed to detect any abnormal pressure build-up within the chamber, which could indicate a potential explosion. Voltage and current sensors are used to track the electrical behavior of the battery during the test, providing valuable information about its performance and potential short-circuit risks. These sensors are connected to a cutting-edge data acquisition system that records and stores all the climatic, electrical, and pressure data. The data can be accessed and analyzed in real-time or retrieved later for in-depth studies. The data acquisition system is highly flexible an