Spectroscopy

Atomic Absorption Spectroscopy (AAS) delivers precise, reliable elemental quantitation—using flame or graphite furnace atomization—for sensitive detection of metals across diverse sample types. Ideal for routine QA/QC and research when accuracy, robustness, and cost-efficiency matter.

Inductively Coupled Plasma–Optical Emission Spectroscopy (ICP-OES) delivers rapid, sensitive, multi-element quantitation—capturing characteristic emissions from atoms and ions in a high-temperature plasma for precise results across diverse matrices. Ideal for high-throughput labs that need wide dynamic range, low detection limits, and robust performance from routine QA/QC to advanced research.

Inductively Coupled Plasma–Mass Spectrometry (ICP-MS) provides highly sensitive, multi-element quantification at trace and ultra-trace levels. It offers a broad dynamic range and outstanding precision, making it suitable for complex matrices. This technique is well-suited for applications such as compliance testing, contamination control, and advanced research requiring low detection limits.

Ultraviolet–Visible (UV-Vis) spectroscopy delivers rapid, accurate quantification of molecular absorbance and transmittance—ideal for concentration, purity, kinetics, and color measurements across research and QC. With broad wavelength coverage and robust workflows, it provides reliable results in minutes.

Fourier Transform Infrared (FTIR) spectroscopy provides rapid, non-destructive molecular fingerprinting—using vibrational spectra to identify, verify, and quantify compounds and functional groups. From raw-material ID and contamination screening to polymorph monitoring and QC release, FTIR delivers reliable results with ATR, transmission, and reflectance workflows.

Near-Infrared (NIR) spectroscopy delivers rapid, non-destructive analysis of solids, slurries, and liquids by measuring molecular overtone and combination bands—ideal for moisture, protein, fat/oil, fiber, alcohols, and blend uniformity, as well as selected inorganic materials. With robust chemometrics, wide dynamic range, and benchtop, at-line, or inline options, NIR turns real-time insights into smarter process control and QC.

Raman spectroscopy delivers fast, non-destructive molecular identification by capturing the unique vibrational “fingerprints” from inelastic light scattering—ideal for raw-material ID, polymorph verification, contaminants, and in situ analysis through glass or packaging. Portable to benchtop, Raman brings lab-grade specificity to the point of need.

Fluorescence spectroscopy delivers ultra-sensitive, non-destructive detection by measuring light emitted from excited molecules—ideal for trace analytes, biomarkers, contaminants, conformational changes, and reaction kinetics. With high signal-to-noise, wide dynamic range, and fast scans across cuvette, microplate, and fiber-optic formats, it brings speed and specificity to research and QC.

Nuclear Magnetic Resonance (NMR) spectroscopy delivers definitive, non-destructive structural insight—probing nuclear spin interactions to reveal connectivity, stereochemistry, purity, and quantitative composition (qNMR). From benchtop screening to high-field elucidation and metabolomics, NMR provides unmatched confidence for identification, impurity profiling, kinetics, and solid- or solution-state studies.

X-ray Fluorescence (XRF) delivers rapid, accurate, non-destructive multi-element quantitation—no digestion or consumable reagents—across solids, powders, liquids, and thin films. From incoming inspection to compliance testing, XRF provides wide dynamic range, low limits of detection, and minimal sample prep for dependable decisions in minutes.