The Advanced Battery Pack Testing Impact Table evaluates lithium battery safety under mechanical shocks, simulating real-world collision forces. With adjustable impact profiles, precision measurement sensors, and compliance with UL/IEC/UN38.3 standards, it ensures structural resilience for EVs, energy storage, and industrial applications through real-time data-driven QA validation.
Relevant Standard Testing Requirements
Comply with the standards: IEC62133 - 2012, UL1642, UN38.3, and 31241 - 2014.
After fully charging the samples according to the test method specified in 4.5.1, conduct an acceleration shock test. Carry out the acceleration shock test sequentially in three mutually perpendicular directions. Refer to 7.4 for the test method. After the test, continue to perform one discharge - charge cycle according to the charge - discharge method specified in 4.5. The samples should not catch fire, explode, or leak liquid.
Main Parameters
| Model | MBS-IS200 |
| Rated load | 10kg (Including fixtures and test products) |
| Table size | L200*W200mm |
| Impact waveform | Semi-sine wave |
| Peak acceleration (semi-sine wave) | 150~15000m/s² |
| Pulse duration (semi-sine wave) | 0.6-20m/s |
| External size | W1000*L500*H2700mm |
| Equipment weight | 1500kg |
| Impact form | Free fall |
| Maximum drop height | 1500mm |
| Power supply | 3-phase 380V 50/60Hz |
| Hydraulic source | Random configuration |
| Ambient temperature | 0~40ºC |
| Environmental humidity | < 85% |
| Reliability | The average fault-free cumulative working time is ≥1000h |
| Measurement and control system | Shock DAQ. Impact and collision measurement and control system |
| Applicable standards | GJB.150,GJB.360,GJB.548, China National Standard/T2423, GJB.1217 |
| Identification criteria | Acceleration amplitude, pulse width, uniformity and lateral motion ratio satisfy JJG.541-88 |
Note: The dimensions can be meticulously tailored to match your specific requirements.
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