Image Complete Batteries Without Sectioning
Perform non-destructive 3D imaging of full pouch and prismatic cells to study internal architecture, interfaces, and assembly precision across multiple length scales.
Advance battery inspection and in situ analysis with the Tescan UniTOM XL. Designed for large-scale micro-CT, it enables multiscale imaging of pouch and prismatic cells, 4D dynamic CT of degradation processes, and real-time visualization of structural changes during cycling.
Image Complete Batteries Without Sectioning
Perform non-destructive 3D imaging of full pouch and prismatic cells to study internal architecture, interfaces, and assembly precision across multiple length scales.
Reveal Defects with Multiscale Volume of Interest Scanning
Use VOIS to zoom seamlessly from entire cells down to micro-scale electrode regions to detect overhangs, delamination, and cracking in a single workflow.
Monitor Real-Time Degradation with Dynamic CT
Capture continuous 4D imaging during charge–discharge cycles to visualize gas formation, swelling, and thermal degradation as they occur.
Integrate In Situ Cycling and Environmental Testing
Connect battery test stages or heating modules through slip-ring and feedthrough ports, enabling uninterrupted imaging during electrochemical or thermal stress.
Characterize Materials with Spectral and Sub-Micron CT
Apply spectral CT with Z-effective and K-edge analysis to identify elemental composition and analyze porosity and density variations within electrodes and separators.
Accelerate Throughput with Automated Workflows
Leverage Acquila and Panthera software for batch processing and real-time reconstruction, streamlining battery QC and large-dataset management.
Track thermal effects, gas evolution, and electrolyte movement in lithium-ion battery heating using non-destructive 4D imaging with Tescan UniTOM XL.
High-resolution X-ray tomography uncovers subtle but critical anode overhang variations — helping battery developers align performance with safety standards.
X-ray microtomography provides a non-destructive view into internal cell architecture — supporting performance validation, design optimization, and safety-critical QA.
Detect delamination and material inconsistencies inside compact wearable battery systems using high‑resolution spectral micro‑CT for battery analysis – non‑destructively and in full 3D.
Panthera™ delivers GPU-optimized reconstruction and visualization of large 3D and 4D datasets.
Batch reconstruction and Volume of Interest Selection (VOIS) streamline multiscale workflows, while integrated filtering and temporal alignment ensure consistent data quality. From high-throughput QC to in situ analysis, Panthera provides the speed and accuracy needed for dependable imaging results.
TEM AutoPrep™ Pro automates the complete TEM lamella preparation process, delivering clean, Ga-free specimens optimized for nanoscale battery analysis. Integrated into the Essence™ GUI, AutoPrep™ Pro removes operator variability and ensures reproducibility across multiple samples and sites.
AI-guided routines handle trench milling, lift-out, grid placement, and 500 eV final polishing, producing lamellae with the right thickness and orientation for high-resolution STEM, EDS, and ToF-SIMS correlation. Multi-site batch operation enables unattended overnight preparation, saving valuable operator time.
With TEM AutoPrep™ Pro, battery researchers and manufacturers can depend on consistent, high-quality lamellae that reduce preparation time and accelerate the investigation of critical interfaces and degradation mechanisms.
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UniTOM XL
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X-ray source: High-flux microfocus X-ray tube with adjustable voltage and current for high-contrast battery imaging |
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Detector: High-sensitivity flat-panel detector for large field-of-view and fast dynamic CT acquisition |
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Imaging modes: 2D radiography, 3D tomography, 4D dynamic CT, and spectral CT (optional) |
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Spatial resolution: Down to sub-micron voxel size, dependent on sample size and configuration |
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Stage: Motorized 10-axis sample stage with continuous rotation and in situ feedthroughs for cycling or heating experiments |
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Volume of Interest Scanning (VOIS): True multiscale imaging workflow allowing high-resolution scans within full-cell volumes |
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Software:
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Dynamic CT: Continuous-rotation imaging for real-time observation of gas formation, swelling, and electrode degradation |
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Data output: Open .tiff and .xml formats for compatibility with third-party analysis tools |
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UniTOM XL
|
|---|
|
X-ray source: High-flux microfocus X-ray tube with adjustable voltage and current for high-contrast battery imaging |
|
Detector: High-sensitivity flat-panel detector for large field-of-view and fast dynamic CT acquisition |
|
Imaging modes: 2D radiography, 3D tomography, 4D dynamic CT, and spectral CT (optional) |
|
Spatial resolution: Down to sub-micron voxel size, dependent on sample size and configuration |
|
Stage: Motorized 10-axis sample stage with continuous rotation and in situ feedthroughs for cycling or heating experiments |
|
Volume of Interest Scanning (VOIS): True multiscale imaging workflow allowing high-resolution scans within full-cell volumes |
|
Software:
|
|
Dynamic CT: Continuous-rotation imaging for real-time observation of gas formation, swelling, and electrode degradation |
|
Data output: Open .tiff and .xml formats for compatibility with third-party analysis tools |
Tescan
Libušina třída 21
623 00 Brno
Czech Republic
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