Battery Puncture Testing Machine

The battery nail penetration tester simulates internal short circuits by piercing batteries with steel needles to observe thermal runaway reactions. It is used to evaluate battery safety performance and prevent fires or explosions caused by physical damage. This equipment is applied in battery research and development, production, and quality inspection processes to ensure products comply with safety standards.
Selection
When selecting, consider the adjustable range of puncture speed, needle diameter, and pressure to match the testing standards. The equipment must be equipped with an explosion-proof chamber and exhaust gas treatment functions to ensure operational safety. The data acquisition system should record voltage and temperature changes, supporting result analysis. Prioritize models that comply with industry standards and are easy to maintain.

Standards

Instruments

The diaMeter of stainless steel needle is used to puncture at a speed of 10-40mm/s, the maximum penetration force is 200KG, and the inner box is made of 304 stainless steel, which meets the standard test Environmental requirements.

$ 2210.00

The instrument employs the principle of heavy hammer impact, with a drop height adjustable within the range of 1000 ± 5 mm and a hammer mass of 500 ± 1 grams, designed for the precise determination of a material's puncture resistance.

$ 425.00

It is suitable for a variety of mechanical property tests such as tension, compression, bending, shear, tearing, peeling, and puncture. It supports multiple control modes including constant speed, fixed displacement, and constant force, enabling complex multi-step nested loop control, and features powerful data and curve analysis capabilities.

$ 1553.00

Maximum test force 50N, Accuracy grade 0.5, support tensile, compression, bending, shear and other test modes, with powerful Linear dispersion analysis and custom report functions.

$ 1553.00

5-Inch color Touchscreen is easy to operate, Measurement range 0-48J covers a variety of gears, equipped with thermal printer and RS232 interface, steel structure design reduces test vibration energy loss.

$ 2520.00

Using Bunsen burner combustion device, nozzle inner diaMeter 9.5mm, automatic ignition control, flame application time accuracy of +/- 0.1 seconds, can simulate open flame environment to evaluate battery flame resistance and leakage risk.

$ 1776.00

Using high-performance ARM core processor and independent high-speed sampling chip, Measurement range 1~ 48J, with 99 data automatic saving and intelligent judgment function, simple and convenient operation.

$ 2284.00

High Accuracy measurement technology, test resolution of 0.01J, Measurement range 1-48J, automatic operation without manual intervention, real-time display of measurement results.

$ 1698.00

The triangular pyramid Impact head with optimized friction resistance of only 0.1J is equipped with a self-tightening anti-loosening fixture and an LCD display interface. Measurement range covers 1-48J and supports automatic statistics and printing of test results.

$ 1816.00

Using energy conversion principle design, triangular prism angular cone piercing head, measurement range 0-48J, resolution 0.01J, with automatic measurement and data storage functions, reliable safety protection.

$ 1606.00

Full computer control technology implementation automatic measurement, Measurement range 1-48J, configuration Touchscreen Operating system and high-speed micro printer, compact structure and easy maintenance, in line with ISO3036 and GB 2679.7 standards.

$ 1660.00

Using 15.8mm diaMeter steel bar and 9.1kg/10kg weight, the Impact height is adjustable at 610mm or 1000mm, and the battery deformation and safety risk are evaluated by simulating the impact of heavy objects.

$ 2499.00

Using 3mm thick A3 steel plate and SUS201 stainless steel inner box, the size of each test box is 500 * 500 * 500mm, with pressure relief device and temperature and pressure control, effectively preventing battery explosion and ensuring safe operation.

$ 1535.00

Measurement range from -50.0 to 300 ° C with Response Time of only 20 seconds. Equipped with a replaceable T-type stainless steel penetrating Probe, it meets IP65 waterproof standards and has built-in calibrate inspection and battery error prevention for measurement Stability and durability.

$ 286.00

Measurement range of 0-48J, accuracy of +/- 0.5%, automatic data saving and thermal printing function, steel structure design effectively reduces test vibration energy loss.

$ 2510.00

Articles

Application of Perovskite Coater in the Preparation of Intermediate Layers in Tandem Solar Cells
This article introduces the application of perovskite coating machines in the preparation of the intermediate layer of tandem solar cells.
Roll-to-Roll Preparation of Perovskite Coaters for Flexible Perovskite Solar Cells
This article introduces the roll-to-roll fabrication method of flexible perovskite solar cells.
Application of Karl Fischer Micro Moisture Meter in Moisture Control of Lithium Battery Electrolyte
The Karl Fischer micro-moisture analyzer is based on the Karl Fischer titration principle, which measures trace moisture in lithium battery electrolytes through the quantitative reaction between iodine and water.
Application of Automatic Coating Machines in the Preparation of Ceramic Coatings for Lithium-Ion Battery Separators
This article discusses the application of automatic film coating machines in the preparation of ceramic coatings for lithium battery separators. Traditional manual coating methods often result in uneven coatings, which can adversely affect battery performance.
The wire bar coater with heating and vacuum adsorption is used for the preparation of perovskite solar cell layers.
This article introduces a new technique for preparing the light-absorbing layer of perovskite solar cells: a wire-bar coater with heating and vacuum adsorption capabilities.
Vacuum adsorption coating machine is used for the coating of proton exchange membrane fuel cell electrodes.
This article introduces the application of vacuum adsorption coating machines in the coating of proton exchange membrane fuel cell electrodes.
Application of Automatic Coating Machines in the Preparation of Ceramic Coatings for Lithium Battery Separators
This article introduces the application of automatic coating machines in the preparation of ceramic coatings for lithium battery separators. Traditional
Controllable Coating of Composite Separator Coatings for Lithium Metal Batteries
This article primarily explores the controllable coating technology for composite separator coatings in lithium metal batteries.
Heating and blade coating of gel electrolyte films for zinc-ion batteries.
This article introduces the heating doctor-blade coating method for preparing gel electrolyte films in zinc-ion batteries. The method involves spreading a slurry onto a substrate using a doctor blade, followed by heating to evaporate the solvent and form a film.
Blade-coating preparation of hole transport layers for perovskite solar cells.
This article introduces the method of preparing the hole transport layer for perovskite solar cells using the doctor-blade coating technique. The doctor-blade coating method involves spreading the solution evenly on the substrate with a blade to form a thin film, making it suitable for large-scale production.
Uniform coating of lithium-ion battery cathode slurry on aluminum foil.
This article primarily discusses how to uniformly coat the positive electrode slurry onto aluminum foil in lithium-ion battery manufacturing. The slurry itself exhibits shear-thinning properties, making it suitable for coating applications.
The film coater achieves controllable coating of lithium-ion battery anode slurry on copper foil.
This article explores how coating machines control the application process of the negative electrode slurry onto copper foil in the manufacturing of lithium-ion batteries.
The film coater is used for experimental-grade uniform coating of lithium-ion battery cathode slurry on aluminum foil.
This article explores the technique of uniformly coating lithium-ion battery cathode slurry on aluminum foil using a laboratory-grade coating machine.
Heating coating machine is used for the doctor-blade coating of gel electrolyte films in zinc-ion batteries.
This article introduces the blade coating process for preparing gel electrolyte films for zinc-ion batteries using a heated coating mechanism. By controlling parameters such as temperature, coating speed, and gap height, this method enables the fabrication of films with uniform thickness and smooth surfaces.
The necessity of explosion-proof high and low temperature test chambers in lithium battery testing
Lithium batteries pose a risk of thermal runaway or even explosion when tested under extreme temperatures. Explosion-proof high-low temperature test chambers, designed with pressure relief structures, explosion-proof electrical components, and intelligent monitoring systems, can safely release energy and ensure the safety of the testing process.