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Battery Modules Accelerate Impact Testing Machine with Precise Shock Simulation

The DERUI DR-H317 battery module impact testing machine is presented for controlled mechanical-impact evaluation. Select the impact mechanism, fixture, specimen limit and measurement channels against the exact test plan; current public speed, load and energy figures still require a model-specific datasheet.

Model DR-H317
Test Focus Method-defined battery-module mechanical impact
Specimen Scope Module size, mass and restraint require approved drawing
Impact Range Velocity, energy and stroke/height not yet verified for DR-H317
Data & Safety Specify sensors, sampling, guarding and emergency response per project
Before Quotation Send module drawing, exact method, loading direction and FAT criteria
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BATTERY MODULE MECHANICAL IMPACT EVALUATION

DR-H317 Battery Module Impact Testing Machine

Plan a controlled impact test around the module, fixture and required mechanical event—not a generic promise to reproduce every vehicle crash. DERUI's published product identifies the DR-H317 model; the final impact mechanism, operating envelope and data channels must be confirmed on its approved drawing and FAT plan.

Scope first: impact, transportation shock, free-fall drop, compression and penetration are different methods. Do not assume one DR-H317 configuration performs all of them.
Published modelDR-H317
Primary buyer taskDefined mechanical impact on an approved battery module
Test setupSpecimen, restraint and striker to be specified
AcceptanceMethod-specific, witnessed performance

Specify the Impact Event Before Selecting the Machine

A useful impact result depends on the actual loading path. State whether an impactor strikes a mounted module, a specimen is dropped onto a target, or a shock pulse is applied through a fixture. The waveform, direction, contact geometry and restraint determine what damage the test can reveal. Without them, a headline impact speed or energy number is not enough to select equipment.

Specimen envelope

Module dimensions, mass, chemistry, energy, state of charge and center of gravity.

Mechanical input

Impact type, direction, striker, target, speed or energy, pulse and repeat count.

Result evidence

Force, acceleration, displacement, voltage, temperature, video and post-test criteria—as required by the method.

What Is Confirmed, and What Needs a Technical Agreement

Item Current public evidence Required confirmation
Model and positioning Product page identifies DR-H317 as a battery-module impact testing machine Manufacturer drawing and actual device photos
Impact architecture Current copy describes several different modes without a verified mechanism Drive principle, impactor, specimen restraint and test sequence
Speed, height and energy Page contains inconsistent claims: 0.2–2 m versus 0.1–2 m drop height, and separate 10 m/s / 500 J figures Signed range, relationship between speed/height/energy and test load
Specimen capacity Page mentions 100 kg and “up to 1 m³” without a validated fixture envelope Mass limit, dimensions, mounting points and center-of-gravity limits
Control and data Touchscreen, force/acceleration recording and video are described in general copy Installed sensors, sampling rate, export file and calibration chain
Safety system Guarding, emergency stop and interlocks are claimed but not documented in a model-specific list Safety drawing, access logic, containment design and site response plan
Publishing rule: do not transfer the unverified 10 m/s, 500 J, 100 kg, 1 m³ or ±1% figures into a definitive product specification until DERUI supplies a signed model-specific datasheet and acceptance record.

Choose the Correct Mechanical Test

Requested exposure What must be defined Equipment decision
Localized impact Impactor shape/mass, contact area, energy or velocity, direction and specimen fixture Review DR-H317 after its impact mechanism is confirmed
Transportation shock Acceleration pulse, duration, axes, mounting and pulse tolerance Confirm whether a dedicated shock machine is required
Free-fall drop Drop height, release orientation, impact surface and specimen mass Use a documented drop mechanism, not a presumed DR-H317 mode
Compression or crush Platen, force, travel, rate and stop condition Compare a dedicated battery crush tester
Cell impact or forced short Cell geometry, method-specific tooling and observation Review separate cell impact or forced-short equipment

Standards: Match the Sample and Procedure

The old page names UN 38.3, UL 1642 and IEC 62133 as if DR-H317 automatically certifies an EV or ESS module. That is not established. These documents address different specimen types and procedures; for example, UN 38.3 separates transport shock from its impact/crush method, while IEC 62133-2 is scoped to portable sealed lithium cells and batteries. Ask the laboratory to identify the exact edition, clause, specimen and acceptance criteria before evaluating equipment fit.

Identify the clause

Record standard edition and method name—not only a standard logo.

Translate to hardware

Check loading mechanism, specimen support, sensor channels and safety envelope.

Witness the result

Agree calibration, run sheet, raw data, video and pass/fail record in FAT.

Make the Quotation Engineering-Ready

Send one representative test plan and a module drawing. The supplier should return a dimensioned fixture layout, proposed impact architecture, available ranges with measurement conditions, sensor and software list, facility requirements and a clear included-versus-optional scope. This gives the buyer a way to compare the DR-H317 with alternative impact or shock equipment before purchase.

Module information

Mass, dimensions, energy, SOC, mounting points, lifting method and expected failure modes.

Test information

Method/edition, direction, impactor, waveform/energy, repetition and acceptance criteria.

Facility information

Power, ventilation, exclusion zone, fire response, exhaust and remote observation needs.

Recommended FAT Evidence

Check Witnessed evidence
Mechanical setup Approved drawing, fixture fit, impactor geometry, travel and specimen restraint
Performance Range and repeatability at stated specimen/load conditions with calibrated reference sensors
Data Raw waveform, timestamp, channel identity, export sample and report template
Safety Guard/interlock and emergency-stop demonstration; post-event access and fire-response procedure
Documents Manual, electrical and mechanical drawings, calibration certificates and FAT report

Frequently Asked Questions

Is DR-H317 a drop, crush and puncture tester in one machine?

The public page mixes these methods but does not provide a model-specific mechanism proving all are included. Confirm each requested mode separately in the quotation.

Can it test a 100 kg module?

The old copy makes that claim without a verified fixture drawing or load condition. Obtain a signed mass and center-of-gravity limit first.

Does it certify compliance with UN 38.3 or UL 1642?

No device name alone can establish specimen compliance. The exact method, sample type, calibrated setup and qualified evaluation must be documented.

What data should the equipment record?

That depends on the method. Specify needed force, acceleration, displacement, electrical and temperature signals, sampling and synchronized video in the approved scope.

Request a DR-H317 Method Review

Send the module drawing and target impact procedure. Ask DERUI to show the actual device, confirm the mechanism and provide a measurable quotation and FAT checklist.

Discuss your impact test

Include with your inquiry

  • Module mass, dimensions and SOC
  • Exact standard clause or test plan
  • Impact input and observation needs
  • Site safety and utility conditions
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  1. Q: What is a Battery Modules Accelerate Impact Testing Machine used for?
    A: It is a specialized safety testing device used to simulate high-velocity mechanical shocks and impacts on lithium-ion battery modules and packs. Its primary purpose is to evaluate structural integrity, safety, and reliability under conditions mimicking real-world accidents, drops, or collisions, ensuring compliance with international safety standards.

  2. Q: Which safety standards can be met with this impact tester?
    A: A high-quality machine, like the Derui model, is designed to help users comply with critical global standards including UN 38.3 (transportation safety), UL 1642 (lithium battery safety), IEC 62133 (rechargeable battery safety), and specific automotive/ESS mechanical abuse test protocols.

  3. Q: What types of batteries can be tested on this machine?
    A: It is versatile and can test various lithium-ion battery formats (cylindrical, prismatic, pouch) used in Electric Vehicles (EVs), Energy Storage Systems (ESS), and consumer electronics. The machine typically accommodates battery modules up to a specified size and weight (e.g., 100 kg).

  4. Q: How does an accelerate impact test differ from a simple drop test?
    A: An accelerated impact test provides precise, repeatable control over impact velocity (e.g., up to 10 m/s), energy, and angle using a mechanized system. This offers more consistent and standardized data compared to a simple gravity-driven drop test, which is less controllable and repeatable for critical safety validation.

  5. Q: What key features should I look for in a battery module impact tester?
    A: Key features include: adjustable impact velocity/energy, high repeatability (low error margin), robust safety guarding, an intuitive PLC control system with data logging, compliance with relevant safety standards, and the ability to perform different test modes (drop, crush, puncture).

  6. Q: Why is precise impact velocity control important in battery testing?
    A: Precise velocity control (e.g., up to 10 m/s) is crucial for replicating specific, standardized test conditions required by regulations. It ensures test results are repeatable and comparable, allowing for accurate safety certification and reliable R&D data when evaluating battery pack designs.

  7. Q: Can this machine test for both ‘crush’ and ‘puncture’ type impacts?
    A: Yes, advanced models like the Derui Accelerate Impact Testing Machine are designed for multiple test modes, including controlled crush and puncture impacts. This allows for comprehensive evaluation of battery module responses to different mechanical abuse scenarios.

  8. Q: How does the machine ensure operator safety during high-impact tests?
    A: Safety is ensured through multiple layers: transparent, impact-resistant safety shields, emergency stop buttons on all sides, safety interlock systems that prevent operation if guards are open, and secure clamping to prevent sample ejection.

  9. Q: Is the test data from the machine acceptable for certification audits?
    A: Yes, when using a compliant machine. It provides automatic, real-time data logging of all test parameters (velocity, force, acceleration). This generates detailed, traceable reports that are essential for passing third-party certification audits and internal quality control.

  10. Q: What industries primarily use this type of impact testing equipment?
    A: The primary users are Electric Vehicle (EV) battery manufacturers, Energy Storage System (ESS) integrators, battery R&D laboratories, and quality assurance centers in the consumer electronics sector—anywhere rigorous mechanical safety validation of battery packs is required.

The current page has no separate, signed DR-H317 parameter table. This sheet separates its published statements from values that must be confirmed by DERUI before publication as guaranteed specifications.

Item Status / confirmation needed
Model DR-H317, as named on the product page
Impact principle Not established by model-specific drawing; confirm drive, striker, target and restraint
Velocity / energy Public narrative mentions up to 10 m/s and 500 J; not validated as DR-H317 guaranteed performance
Drop/stroke range Public narrative conflicts between 0.1–2 m and 0.2–2 m; clarify whether a drop mechanism exists
Specimen mass / envelope 100 kg and 1 m³ appear in promotional text only; require signed fixture/load limits
Repeatability ±1% appears in promotional text without test condition or method; require witnessed definition
Test modes Impact, drop, crush and puncture must be specified as distinct configurations; none assumed standard
Control / measurement Touchscreen, force/acceleration logging and video not validated on a model-specific list
Safety Guarding, interlock, emergency stop and exhaust/containment to be shown on approved safety drawing
Standards fit Exact edition, clause, specimen and acceptance criteria to be agreed; no blanket certification claim
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