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Contaminant
Pigment
Microplastic
Carbon Material
Li-Ion Battery
Polymorphic Crystal
Multilayer Film
Automotive Paint Coating

Contaminant

Infrared　Raman

This is an example of analyzing a contaminant (simulated sample) attached to the surface of a pharmaceutical tablet. Obtaining both infrared and Raman measurements from the same spot increases the accuracy of qualitative analysis to help identify the cause of contaminants.

Microscope Image of Contaminant

Infrared Spectra of Normal and Contaminant Adhesion Areas with Normal Area Identified as Mannitol

Raman Spectra of Normal and Contaminant Adhesion Areas with Contaminant Identified as Iron Oxide

Contaminant Analysis of Pharmaceuticals (Tablets) UsingAIRsightInfrared/Raman Microscope

Pigment

Infrared　Raman

This is an example of analyzing pigment applied to wood.
Because AIRsight microscopes can measure trace quantities, they are especially useful for measuring precious samples with historical value.

Appearance of Pigment Applied to Wood

Microscope Image of Pigment Applied to a
Wood Surface

Infrared and Raman Spectra of Pigment with
BaSO₄ Identified from the IR Spectrum and Pb₃O₄ from the Raman Spectrum

Analysis of Pigment Degradation Using AIRsight Infrared/Raman Microscope

Microplastic

Infrared　Raman

This is an example of analyzing a microplastic particle. The ability to measure infrared and Raman spectra from a wide range of microplastic particle sizes, from a few micrometers to several tens of micrometers in diameter, makes the system ideal for monitoring survey and research applications.

Image of Contaminant Microscope Image of Microplastic

Infrared Spectrum of 115 μm Long (Major Axis) and 53 μm Wide (Minor Axis) Microplastic Identified as Polystyrene

Microscope Image of Microbead

Raman Spectrum of 1 μm Diameter
Microbead Identified as Polystyrene

Analysis of Microplastics Using AIRsight Infrared/Raman Microscope

Carbon Material

Raman

This is an example of analyzing a diamond-like carbon (DLC) film.
Raman measurements can determine bonds and structures in carbon materials with high sensitivity for use in the quality control of DLC films.

	I(D)/I(G) Disturbances in Crystal Structure	FWHM(G) Crystallinity, Young’s Modulus, and Density	log(N(G)/I(G)) Hydrogen Concentration
CH₄_center	0.32	182.17	-0.29
CH₄_periphery	0.32	181.40	-0.28
C₂H₂_center	0.34	190.85	-0.44
C₂H₂_periphery	0.34	190.25	-0.44

Results from Evaluating DLC Film (Formed with Either CH₄ or C₂H₂ Gas) on Two Types of Silicon
Wafers (Measured in Two Locations—Near the Sample Center and Periphery)

Nondestructive Analysis of Diamond-Like Carbon (DLC) Film Using AIRsight Infrared/Raman Microscope

Li-Ion Battery

Raman

This is an example of analyzing the negative electrode material from a lithium-ion battery.
Raman area mapping can be used to visualize the detailed distribution of components and structural characteristics in substances (crystallinity, defects, etc.). Therefore, it is useful for evaluating products and materials in R&D applications.
Note: In the chemical image shown, the red areas indicate high concentrations of the component and the blue areas indicate low concentrations.

Microscope Image of Negative Electrode Material

Raman Area Mapping Results Chemical Image of Graphite (G-Band)

Chemical Image Created from Peak Area Values between 1482 and 1703 cm^-1

Polymorphic Crystal

Raman

This is an example of analyzing monohydrate and anhydrous forms of caffeine.
Raman spectra can differentiate between compounds that have identical chemical structures but with different crystal polymorphisms. Evaluating the crystal form of substances with different solubility or efficacy characteristics is useful for controlling crystal formation during pharmaceutical manufacturing processes.

Multilayer Film

Infrared　Raman

This is an example of analyzing a multilayer film.
The distribution of each component can be visualized by using infrared and Raman area mapping to analyze a cut cross-section from the film.

Infrared Area Mapping Results Chemical Image of Phthalate Esters

Chemical Image Created from Peak Areas between 1551 and 1624 cm^-1

Raman Area Mapping Results Chemical Image of Titanium Oxide (Rutile)

Chemical Image Created from Peak Area Values between 345 and 508 cm^-1

Automotive Paint Coating

Raman

This is an example of analyzing an automotive paint coating. Samples with characteristics that make it difficult to cut a cross-section can be evaluated by analyzing the component distribution in the depth direction by Raman spectroscopy and evaluating the degradation status or other criteria from the surface.
A separate mapping program (P/N 206-35093-41) is required.

Raman Depth (Line) Mapping Results Chemical Image of Acrylic Resin

Chemical Image Created from Peak Area Values between 1383 and 1510 cm^-1