Laboratory professionals reviewing materials characterization data.

NETZSCH supports battery and energy-materials teams across Massachusetts

Battery & Energy Materials Characterization for Massachusetts Teams

For battery R&D, materials development, cell engineering, quality and process teams, method selection determines the relevance of every measurement. Characterize cathode and anode precursors, active materials, electrode slurries and coatings, electrolytes, binders, separators, cells and modules with methods matched to the question.

NETZSCH Analyzing & Testing helps Massachusetts teams evaluate thermal and physical characterization approaches for phase behavior, stability, processing and safety-relevant thermal behavior.

Laboratory professionals discussing materials characterization.

Talk to a Battery Materials Expert

Discuss your material system, development objective and characterization requirements with our team.

Request a Consultation

Battery Materials Characterization Methods

NETZSCH methods help connect material composition, thermal response and processing behavior across battery raw materials, components, cells and modules.

Differential Scanning Calorimetry (DSC)

Measure phase transitions, crystallinity and heat effects.

DSC supports investigation of melting, crystallization, glass transition, specific heat and oxidation-related events in active materials, binders, separators and electrolyte-related materials.

Relevant for: Cathode and anode materials, binders, separators, electrolyte formulations and electrode coatings.

TGA/STA with Evolved Gas Analysis

Track mass change, decomposition and evolved gases.

TGA or STA measures moisture and solvent loss, oxidation behavior, thermal stability and decomposition. Coupling to MS, FT-IR or GC-MS supports evolved-gas identification.

Relevant for: Precursors, active materials, electrolyte components, binders, separators and recycled battery materials.

Rheology and Laser Flash Analysis (LFA)

Relate processability and heat transport to formulation.

Rheology characterizes slurry viscosity, yield behavior and viscoelastic response. LFA determines thermal diffusivity and supports thermal conductivity evaluation.

Relevant for: Electrode slurries, coatings, conductive composites, cell components and thermal-management materials.

Dilatometry (DIL) and Thermomechanical Analysis (TMA)

Quantify dimensional change as temperature changes.

DIL and TMA support measurement of thermal expansion, shrinkage, softening and dimensional stability under defined temperature programs and loads.

Relevant for: Electrode coatings, separators, cell hardware, modules and thermally loaded components.

Laboratory professionals discussing materials characterization.

Not sure which method fits your battery material?

Talk to a Battery Materials Expert about your measurement objective.

Request a Consultation

Built Around Battery Development and Manufacturing Requirements

Battery materials programs must link raw-material variability, formulation, processing conditions and component behavior to defensible measurement data. The appropriate setup considers sample form, temperature program, heating rate, atmosphere and the thermal event to be resolved.

NETZSCH supports teams evaluating methods for:

From precursor screening to cell and module evaluation: define a measurement approach that produces relevant data for development, quality and process decisions.

A Characterization Partner for Battery and Energy Materials

Application-focused consultation
Discuss the material, sample state, thermal event, process condition and decision requirement before selecting a method configuration.
Complementary method coverage
Combine thermal analysis, evolved-gas analysis, calorimetry, rheology and thermophysical testing where the question requires more than one measurement.
Support from method selection onward
Evaluate approaches for DSC, TGA/STA-EGA, isothermal and Accelerating Rate Calorimetry (ARC)Die Methode, die isotherme und  adiabatische Testverfahren beschreibt, wird zur Detektion  thermisch induzierter  Zersetzungsreaktionen eingesetzt. Das Standardverfahren ist Heat-Wait-Search (HWS.accelerating rate calorimetry, rheology, LFA, dilatometry and TMA.

Discuss Your Battery Materials Application

Tell us about your battery material, component or cell-level question and the behavior you need to characterize. A NETZSCH representative will discuss suitable methods and instrument options with you.
 

Laboratory professionals discussing materials characterization.

Find the Right Characterization Approach for Your Battery Materials

Start with the material and the decision you need to make. NETZSCH will help you evaluate suitable methods for battery development, quality and process work.

Request a Consultation

Not Ready to Talk Yet?

Explore NETZSCH Material Characterization Resources

Explore how thermal analysis, rheology and thermophysical methods support material characterization. Method overviews help relate measurable properties such as phase transitions, mass loss, heat effects, viscosity, dimensional change and thermal transport to development and quality questions.

Use these resources to prepare a focused discussion of your battery material, component or process challenge.

NETZSCH material characterization guide cover.

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Explore NETZSCH products, battery application insights, technical resources, services and e-learning for thermal and physical materials characterization.

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