Non-Destructive Battery Inspection System

Non-Destructive Battery Inspection System

Revolutionizing Battery Safety and Quality Control with IGS Technology

IGS offers the world’s first non-destructive battery inspection system capable of visualizing internal electric current density distribution. Built on advanced inverse analysis theory developed by Prof. Kenjiro Kimura (Kobe University), this proprietary technology enables highly accurate, scalable battery inspections for quality control, failure analysis, and ignition risk prediction.

Key Features

  • Direct Internal Current Imaging: Instantly visualizes electric current non-uniformity in rechargeable batteries.
  • Non-Destructive Testing: Uses alternating current and ultra-sensitive magnetic field sensors—no damage to tested cells.
  • Early Fault Detection: Identifies latent defects, short circuits, and degradation points that conventional methods miss.
  • Supports 100% In-Line Inspection: Inspects up to 100,000 cells per day before shipment.

 

Benefits at a Glance

FeatureAdvantage
🔍 High PrecisionDetects minute irregularities in electric current, even in passing batteries
🧯 Ignition Risk PreventionIdentifies cells with potential for thermal runaway
🔄 Scalable SystemAdaptable for both R&D evaluation and full production line integration
🔬 Failure Analysis SupportIdeal for root cause investigation of returned or defective cells

 

Comparison with Common Inspection Technologies

 

Inspection Process

  1. Apply Current: Alternating current is introduced to the battery.
  2. Measure Magnetic Field: An ultra-sensitive detector records the resulting field.
  3. Reconstruct Internal Current: The system calculates current density via proprietary inverse analysis.
  4. Visual Diagnosis: Software generates color-coded visualizations to identify defects.
IGS Technology

 

IGS Results

Evaluation Example

In tests on lithium-ion polymer cells:

  • Regions of high current density correspond to degradation areas.
  • Cells with higher “red area” coverage exhibit shorter cycle life, even when aging test results appear normal.
  • Enables grading and risk indexing for predictive maintenance.
Evaluation

Product Applications

  • EV battery manufacturing
  • Solid-state battery development
  • Consumer electronics QC
  • Post-aging inspection
  • Lab-based battery R&D

Deployment & Customization

  • Step 1: Sample Test (~100 cells)
    Evaluate internal current variance across samples
    Timeline: ~2 months
  • Step 2: Pilot Installation (Extraction Inspection)
    Test <1% of daily output for detailed fault analysis
    Timeline: ~12 months
  • Step 3: Full Production Installation
    All-cells inspection system integration
    Timeline: 6 months

Specifications & Contact

Available in single-head and multi-head configurations for tailored throughput and sensitivity.
 

Manufacturer

Image
Atlanta

Atlanta

Atlanta Branch Office & Demo Center

1580 Boggs Rd.
Duluth, GA 30096
United States

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