Material Science & Analysis

Materials science & analysis microscopes are used for analysis of materials like metal alloys, semiconductors, glass, ceramics, and plastics. Leica Microsystems offers advanced microscopy solutions that support quality control, failure analysis, and R&D which empower you to achieve deeper insights.

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Please contact us if you would like to have personal expert advice on our microscopy solutions for Material Science & Analysis.

How to analyze impurities and internal structures?

Using microscopy with polarization and differential interference contrast (DIC) helps users visualize internal material structures, like micro-cracks and inclusions, that are invisible with standard brightfield lighting. Polarization highlights anisotropic materials, while DIC enhances contrast in transparent samples without staining. The DM4 P and DM6 M microscopes offer polarization and DIC.

How to precisely prepare microscopy imaging samples?

Precise cutting, grinding, and polishing of hard materials enables you to target specific sample regions with micron-level precision. It is possible when using the EM TXP target preparation system.

For damage-free cross-sections of heterogeneous or brittle materials and ultra-flat surfaces, the EM TIC 3X employs triple ion beam milling.

Where are material analysis microscopes used?

Material analysis microscopes are used for a variety of applications, e.g. quality control (QC), research and development (R&D), technical cleanliness, and failure analysis (FA). They are important for a variety of industries and fields like automotive, aerospace, alloys, semiconductors, electronics, medical devices, earth science, forensics, chemical engineering, and pharmaceutical science.

Why choose a 2-methods-in-1 solution?

A 2-methods-in-1 solution is an optical microscope which is also capable of doing laser induced breakdown spectroscopy (LIBS). It can both image a material sample and analyze its chemical composition, including microstructural features like phases and inclusions. This solution helps users achieve a more streamlined, efficient materials analysis.

Why use Leica microscopes for material science & analysis?

Never miss a detail

Geoscientists, petrologists, art restorers and historians, archaeologists, and experts from related fields can rely on Leica optics, imaging systems, software and ergonomic accessories. They enable accurate specimen work, detailed structural analysis and documentation.

Get faster results

With the range of expert modules available for the Leica Application Suite X for Industry software, users can gain insights faster when performing material science analysis. Modules include LAS X Grain Expert, Phase Expert, Metallography Toolbox, and 2D Measurement.

Precision with comfort

The ergonomic, high-quality microscopy solutions with modular systems help users inspect a broad range of materials with precise measurement and detailed analysis without compromising user comfort.

Accurately measure thickness of coatings or sediments

Measure coating, film, or layer thicknesses on materials, multilayer composites, and minerals or sediment materials with the Layer Thickness feature of the Enersight software. Users can detect layer boundaries based on contrast or color, automatically draw intercept lines and determine the min, max, and average layer thickness.

Our Solutions for Material Science

 

DM 750 P

Visoria M & P

DM4 M & P

DM6 M LIBS

DMi8 A

NosepieceManualCodedCodedMotorizedCoded
Contrast MethodsManualCodedMotorizedMotorizedMotorized
Illumination ManagementNot AvailableAvailableAvailableAvailableAvailable
Supported Contrast MethodsIL: BF, DF, Pol, (Fluorescence)
TL: BF, DF, Phase, Pol
IL: BF, DF, Pol, DIC, Oblique (Fluorescence)
TL: BF, DF, Phase, DIC, Pol
IL: BF, DF, Pol, DIC, (Fluorescence)
TL: BF, DF, Phase, DIC, Pol
IL: BF, DF, Pol, DIC, (Fluorescence)
TL: BF, DF, Phase, DIC, Pol
IL: BF, DF, Pol, DIC, (Fluorescence)
TL: BF, DF, Phase, DIC, Pol
Z-driveManualManualManual/MotorizedMotorizedMotorized
Rotating StageManualManualManualManualMotorized
Supported SoftwareLAS X IndustryEnersight / LAS X Industry*LAS X IndustryLAS X IndustryLAS X Industry

* LAS X Industry has limited device support for Visoria M & P

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Frequently Asked Questions Material Science & Analysis

Show answer What is material science?

Material science is the study of the structure, properties, performance, and processing of materials, including metals, ceramics, polymers, and composites. It focuses on understanding how the composition and structure of materials affect their behavior in different environments.

Show answer What is a 2-methods-in-1 material analysis solution?

A 2-methods-in-1 material analysis solution or LIBS microscope combines optics and laser induced breakdown spectroscopy (LIBS) for simultaneous visual and chemical analysis of materials. 

Show answer What is LIBS or laser induced breakdown spectroscopy?

LIBS is a elemental/chemical analysis technique. Material composition analysis can be done with it in the following way. First, a high energy laser pulse strikes an area of the analyzed material. The laser energy is absorbed leading to ablation and the formation of a crater. A plasma of free atoms and electrons results. Plasma breakdown occurs immediately with the emission of elemental line spectra. The elements present in the area struck by the laser can then be identified.

Show answer What is material analysis?

Material analysis is done to determine the physical and chemical properties of materials. Examples include metal alloys like steel and aluminum, ceramics like glass and silicon, plastics and polymers, minerals and geological samples, etc. It is often used for material and earth science as well as industrial quality control, production, failure analysis, and research and development.

Technical Cleanliness Analysis

Cleanliness analysis is key for assuring product quality and performance in the automotive and electronics industries. A  material analysis microscope solution is critical for cleanliness analysis and the characterization of particulate contamination. Obtaining also the composition information makes the identification of particles and then finding the source of contamination even more efficient.

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Metallography and Metallurgy

From the examination of non-metallic inclusions in steel to grain and phase analysis needs, high-performance microscopes for materials analysis help manufacturers develop rapidly and reliability alloys with the desired properties. Flexible and affordable materials analysis microscope solutions lower costs via efficient acquisition of statistically meaningful data for continuous optimization of workflows and production processes.

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Art Conservation

Combined with digital camera technology and image analysis software, Leica Microsystems’ art conservation microscope solutions are designed for the different fields of activity of restorers, art historians, archaeologists and experts in conservation workshops and museums.

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Rating Steel Quality

Foreign substances in steel, known as non-metallic inclusions, disrupt the homogeneity of the microstructure. They can have considerable influence on the steel’s mechanical properties, affecting performance and lifetime. Therefore, rating the inclusions is important for evaluating steel quality.

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