Lithium Battery Safety Testing High & Low Temperature Explosion-Proof Chambers For New Energy Applications
Product Decription:
In the rapidly evolving landscape of new energy technologies, ensuring the safety and reliability of lithium-ion batteries is paramount. As the demand for electric vehicles, consumer electronics, and energy storage systems grows, so does the need for advanced testing solutions. This is where the High & Low-Temperature Explosion-Proof Test Chamber comes into play, offering a comprehensive solution for evaluating battery performance under extreme conditions.
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Explosion-Proof Design:
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Reinforced walls and doors with explosion-proof chains and pressure relief mechanisms to contain potential explosions.
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Explosion-proof windows with tempered glass and protective mesh to ensure safety during testing.
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Wide Temperature Range:
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Capable of simulating extreme temperatures from -70°C to +190°C, ensuring batteries can withstand various environmental conditions.
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Precise temperature control with fluctuations of ±0.5°C and uniformity within ±2°C.
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Advanced Safety Mechanisms:
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Integrated smoke detectors, fire suppression systems, and forced exhaust systems to manage hazardous events.
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Automatic fire extinguishing devices and explosion-proof lighting to enhance safety.
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Customizable and Versatile:
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Available in various sizes and configurations, including single and double-layer designs, to accommodate different battery sizes.
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Customizable internal dimensions and adjustable sample racks to meet specific testing needs.
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Compliance with International Standards:
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Designed to meet standards such as IEC 62133, UN 38.3, and UL 1642, ensuring compliance with global safety regulations.
Major Parameter:
Model | ND-B202 |
System | Balance Temperature Control (BTC) System |
Performance | Temperature Range | -40~+150℃ |
Temperature Fluctuations | ±0.3°C |
Temperature deviation | 1.5°C |
Temperature change rate | Heating rate:3.0°C/min Cooling rate:2.0°C/min |
Extreme temperature reach time | Heating time:from+20 to+100℃ 30 minutes Cooling time:+20 to -70°C 60 minutes |
Allowable heat load | test area: +20°C:200 W |
Structure | Appearance material | Using 1.5mm thick FC high grade electrolytic plate + pplastic spraying for corrosion protection |
Test area material | 1.2mm thick SUS304 stainless steel |
Heater | Finned Nichrome Explosion-Proof Heater |
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Condenser | Air-cooled condenser |
Air circulator | Centrifugal fan |
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Refrigeration unit | System | Mechanical compounding compression cooling |
Compressor | Scroll/Piston Compressor |
Refrigerant | R404A&R23 [R449A available on request] |
Power | 6 Kw |
Noise level | 68dB |

Company Information:
Dongguan Neide Technology Co. Ltd located in Dongguan, Guangdong province with convenient transportation access. We take immense pride in our journey of excellence as a premier provider of top-quality testing equipment. With our unwavering commitment to innovation, we specialize in crafting cutting-edge environmental test chambers and mechanical test machines.
Our extensive range includes temperature and humidity chambers, thermal shock test chambers, tensile testing machines, and vibration test machines. What sets us apart is our proficiency in creating customized testing equipment tailored to your specific needs.
At the heart of our operations lies a dedication to precision and compliance. Our products are engineered to meet and exceed international standards, such as ISO, ASTM, DIN, EN, GB, BS, JIS, AMSI, UL, TAPPI, AATCC, and IEC.
This ensures that our solutions not only adhere to industry benchmarks but set new standards of excellence. Our services and products find applications across diverse sectors, including R&D institutions, quality inspection establishments, universities, and electronics and communications industries
FAQ:
1.How effective is the explosion-proof design in containing potential explosions or fires during testing? What specific safety features are included to protect operators and equipment?
The explosion-proof design of the chamber is highly effective in containing explosions and fires. It features reinforced walls, explosion-proof doors, and pressure relief mechanisms to safely vent excessive pressure. The chamber also includes tempered glass windows with protective mesh to prevent glass shards from scattering. Additionally, it is equipped with smoke detectors, fire suppression systems (e.g., CO2 or foam), and automatic shutdown mechanisms to ensure operator safety and protect surrounding equipment.
2. Can the chamber be customized to meet specific testing requirements, such as different battery sizes or additional features like humidity control? Yes, the chamber is highly customizable. It is available in various sizes and configurations, including single and double-layer designs, to accommodate different battery sizes. The internal dimensions can be customized, and the chamber can be equipped with additional features such as humidity control, adjustable sample racks, and multiple drop surfaces (e.g., steel, cement, hardwood). This flexibility ensures that the chamber can be tailored to meet specific testing needs.
3. What kind of maintenance is required for the chamber, and what support services are available from the manufacturer? How quickly can spare parts be delivered if needed? Regular maintenance is essential to ensure the chamber operates reliably and safely. The manufacturer provides detailed maintenance guidelines, including routine checks of safety mechanisms, calibration of temperature sensors, and inspection of the explosion-proof features. Comprehensive after-sales support is available, including technical assistance, maintenance contracts, and spare parts supply. The manufacturer typically maintains a stock of spare parts and can deliver them within a short lead time, ensuring minimal downtime for your testing operations.
4. What are the current market trends in the lithium battery testing chamber industry, and how is the technology evolving to meet future demands?
The market for lithium battery testing chambers is growing rapidly, driven by the increasing demand for electric vehicles and renewable energy storage systems. Current trends include the integration of advanced safety features, such as real-time monitoring, data logging, and automated testing capabilities. Future developments are expected to focus on enhancing thermal management, improving the accuracy of hazard detection, and incorporating AI and machine learning for predictive analytics. Additionally, there is a growing emphasis on developing test chambers that can handle emerging battery technologies, such as solid-state batteries.