Battery Combustion Tester LBCT-T2010

Introduction

Battery Combustion Tester features a test circular surface diameter of 5.0 KPa. The chamber is constructed with durable materials to withstand high-temperature exposure. It integrates a user-friendly interface for efficient operation and monitoring. Its structure ensures safe ventilation and smoke exhaust during testing. Our tester evaluates lithium battery flame resistance in electronics, ensuring safety compliance in R&D and manufacturing environments.

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

Our Battery Combustion Tester is used in R&D labs and manufacturing facilities to evaluate the flame resistance of lithium batteries in electronics, ensuring compliance with international safety standards.

Specifications

Flame Application Time	0 to 99, units: H/M/S (switchable)
Test Circular Surface Diameter	5.0 KPa
Test Mesh Screen Tolerance	±0.5 KPa (≤5KPa to 40KPa), ±2KPa (40KPa to 80KPa)
Flame-to-Screen Height	15KPa/min ±3.0KPa
Octagonal Cover Material	Aluminum mesh, woven from aluminum wire (0.25 mm diameter), 16 to 18 mesh per inch
Combustion Gas	Methane or liquefied petroleum gas (prepared by the customer)
Control method	touch screen control + wireless remote control action instructions
Inner Material	SUS201 stainless steel plate, thickness 1.2 mm
Outer Material	1.5 mm thick cold-rolled steel plate with paint treatment
Observation Window	250×250 mm two-layer tempered glass, transparent, with stainless steel mesh
Smoke Exhaust Port	100 mm in diameter, located at the back of the box
Pressure Relief Port Opening	200×200 mm, located at the back of the box
Bunsen Burner	Inner diameter 9.5 mm, length approx. 100 mm
Burning Time	0 to 99 (units switchable: H/M/S)
Test Mesh Specifications	Woven from stainless steel wire, diameter 0.43 mm
Test Hole Diameter	102 mm
Flame to Mesh Height	38 mm
Octagonal Mesh Width	24″ (610mm) between opposite faces; octagonal design with movable faces for easy replacement
Octagonal Mesh Height	12″ (305mm)
Power Supply	AC 220V 50Hz
Inner Chamber Dimensions	750 × 750 × 500 mm
Outer Chamber Dimensions	900 × 900 × 1300 mm
Net Weight	160 kg
Gross Weight	300 Kg

Features

Flame Resistance Testing

Octagonal Mesh Enclosure

Adjustable Test Conditions

Precise Flame Timing

Movable Mesh Panels

FAQs

1. What is the purpose of the Battery Combustion Tester ?

The Battery Combustion Tester is designed to evaluate the flame resistance characteristics of lithium batteries used in electronic devices. It helps simulate combustion conditions to ensure batteries do not ignite or explode during operation, storage, transportation, or disposal. This type of test is critical in ensuring compliance with global safety standards in research and production settings, especially for mobile phones, laptops, and other portable electronic products.

2. What safety features are included in the Battery Combustion Tester ?

The includes multiple safety-oriented design elements. It features a pressure relief port that activates if internal pressure exceeds a set limit and a smoke exhaust port for controlled ventilation during testing. The observation window is made from two layers of tempered glass and includes a protective stainless steel mesh for safe viewing. The chamber’s structure also ensures that operators are protected from heat and potential combustion effects during the entire testing process.

3. Which industries benefit most from using the Battery Combustion Tester?

The is widely used in R&D laboratories, quality control departments, and battery manufacturing units. Industries involved in the development and production of consumer electronics, electric vehicles, power tools, and energy storage systems utilize this equipment to verify the thermal and combustion safety of their lithium battery packs. Its precise testing capabilities help manufacturers adhere to international safety regulations, avoiding product recalls or safety incidents.

4. What type of gases can be used for combustion in the ?

The Battery Combustion Tester is compatible with methane or liquefied petroleum gas, which must be prepared or supplied by the user. These gases are commonly used in flammability testing environments due to their consistent burning characteristics. The combustion process is controlled using a Bunsen burner with a nozzle specifically designed for uniform flame distribution, ensuring accurate and repeatable test results across various battery sizes.

5. What are the key technical specifications of the that support precision testing?

The includes several advanced specifications to ensure accurate flame testing. It features a test circular surface diameter of 5.0 KPa, a touchscreen control system with wireless remote operation, and adjustable flame application times ranging from 0 to 99 in hours, minutes, or seconds. The chamber is built from high-grade SUS201 stainless steel and cold-rolled steel to withstand extreme conditions. With precise mesh height positioning and flame-to-screen calibration, the tester delivers consistent and safe results.

6. What is the primary purpose of It Battery Testing Equipment?

It Battery Testing Equipment is designed to evaluate the safety, performance, and durability of lithium-ion and other types of batteries under various mechanical and environmental conditions. These systems simulate real-world stress scenarios such as thermal exposure, puncture, impact, short-circuit, and combustion to help identify potential safety hazards before batteries are released into the market. By performing these tests, manufacturers and research facilities can ensure that batteries comply with international safety standards, reduce the risk of thermal runaway or fire, and enhance product reliability and consumer safety.

7. Which industries typically use It Battery Testing Equipment?

It Battery Testing Equipment is widely used across industries that rely on rechargeable batteries as a core component of their products. These industries include electric vehicles, consumer electronics, medical devices, aerospace, power tools, and renewable energy storage systems. Battery manufacturers, R&D laboratories, compliance testing agencies, and quality control departments utilize these testing systems to verify the structural integrity and safe performance of battery cells, packs, and modules.

8. What types of tests can be conducted using It Battery Testing Equipment?

It offers a wide range of battery testing systems capable of conducting essential tests such as flame resistance, puncture, extrusion, short-circuit, drop, and high/low temperature exposure. Some models are equipped with advanced features like real-time data acquisition, programmable control interfaces, and video monitoring to record test procedures for documentation and analysis. These tests simulate conditions batteries may face during shipping, storage, everyday use, or in the event of a malfunction.

9. What safety features are integrated into It Battery Testing Equipment?

It prioritizes operator and facility safety by integrating multiple protective features into its battery testing systems. Equipment typically includes a double-layer tempered glass observation window with stainless steel mesh for secure viewing, smoke exhaust ports for safe gas release, and pressure relief vents to manage internal buildup during combustion or explosion scenarios. Additionally, chambers are built with corrosion-resistant stainless steel and cold-rolled steel to endure repeated high-temperature and mechanical impact testing.

10. Can It Battery Testing Equipment be customized to suit specific needs?

Yes, It offers customizable configurations to meet the specific requirements of different testing environments and battery types. Users can request modifications in chamber dimensions, control interfaces, test speeds, environmental parameters, and sensor options depending on their testing protocols and international compliance standards. For instance, manufacturers working with larger battery modules or EV packs may require extended temperature ranges, reinforced safety enclosures, or automated data logging systems.