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Materials Characterization

Electron microscopy and spectroscopy solutions across materials science

Reveal failure mechanisms, optimize processing conditions, and engineer next-generation materials with confidence using integrated electron microscopy, spectroscopy, and sample preparation workflows.

Scanning Electron Microscopy | Materials Science

Transmission Electron Microscopy Techniques | Material Analysis

X-Ray Photoelectron Spectroscopy | XPS Analysis | Materials Science

Advancing materials characterization with microscopy and spectroscopy workflows

Accelerate your research and innovation with advanced materials characterization solutions. From metals and polymers to batteries and nanomaterials, our analytical technologies help you understand structure, composition, and performance at every scale, from bulk to atomic resolution.

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Materials innovation moves faster when knowledge is shared. Connect with experts, explore real-world case studies, and stay up to date on the latest advances in microscopy and spectroscopy solutions for materials characterization.

 

Through webinars, technical articles, and peer discussions, discover new approaches to complex materials challenges such as failure analysis, next-generation energy storage, advanced manufacturing, and more.

Advanced materials characterization techniques

Gain deeper insight into material structure, composition, and behavior using integrated analytical techniques designed for modern materials research and industrial development. From elemental composition to dynamic in-situ experimentation, Thermo Fisher Scientific solutions enable accurate, reproducible results across scales and applications.

Elemental analysis

Determine qualitative and quantitative elemental composition using advanced microscopy and spectroscopy techniques for accurate materials identification and failure analysis.

Surface analysis

Characterize surface and interface chemistry, contamination, oxidation states, and thin films to understand performance, adhesion, corrosion, and interface-driven behavior.

Particle analysis

Measure particle size, morphology, and composition to optimize material performance in metals, powders, catalysts, pharmaceuticals, and other advanced manufacturing.

Nanoparticle analysis

Analyze nanoscale particles with high-resolution imaging and compositional tools that help evaluate size distribution, structure, and functional properties.

Sample preparation

Prepare high-quality, artifact-free samples using precision milling, sectioning, polishing, and coating techniques, supporting reliable analytical results.

In-situ experimentation

Observe structural and chemical changes in real time under controlled temperature, stress, or environmental conditions to study material behavior.

Materials science applications

Advance innovation across industries with analytical solutions that are tailored to real-world materials challenges. From energy storage and transportation to advanced manufacturing and environmental research, our technologies support discovery, quality control, performance optimization, and more.

Battery research

Characterize electrode materials, interfaces, and degradation mechanisms to improve performance, safety, and lifetime, along with next-generation energy storage designs.

Metals and alloys

Investigate microstructure, phase distribution, and elemental composition to optimize strength, durability, corrosion resistance, and manufacturing processes.

Automotive materials

Support lightweighting, electrification, and reliability through detailed materials analysis of coatings, composites, and structural components.

Aerospace and defense

Analyze advanced alloys, composites, and protective coatings that help ensure structural integrity, performance reliability, and mission-critical durability.

Geological sciences

Examine mineral composition, microstructure, and elemental distribution to better understand earth processes, resource exploration, and environmental impact.

Polymer research

Study morphology, additives, degradation, and failure mechanisms to enhance mechanical performance, sustainability, and product lifespan.

Forensics

Support investigative and legal efforts with trace-level materials analysis that helps identify composition, origin, and failure causes.

Catalysis research

Characterize catalyst structure, surface chemistry, and active sites to improve efficiency, selectivity, and long-term stability.

Fibers and filters

Assess morphology, pore structure, and material composition to optimize filtration efficiency, durability, and performance.

2D materials

Investigate atomic-scale structures, defects, and interfaces in graphene and other layered materials for advanced electronic and energy applications.

Materials science learning center

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For Research Use Only. Not for use in diagnostic procedures.