Shimadzu spectroscopy systems provide laboratories with powerful analytical tools that measure how molecules interact with electromagnetic radiation, from ultraviolet through infrared wavelengths. These instruments are essential for molecular characterization, concentration analysis and material property evaluation, supporting routine quality control as well as advanced research across multiple industries.
Shimadzu’s molecular spectroscopy portfolio includes UV–Vis, UV–Vis–NIR, FTIR, fluorescence spectrophotometers and a range of elemental analysis systems such as Atomic Absorption Spectrometer (AAS), Inductively Coupled Plasma (ICP) and X‑ray fluorescence (XRF).
Spectroscopy techniques are widely used for quantifying elements/molecules, identifying functional groups, assessing material composition, and monitoring chemical changes in pharmaceuticals, environmental samples, food and beverages, polymers, and research specimens. Shimadzu systems combine high‑resolution optics, sensitive detectors, intuitive software and automated features to deliver precise, reliable results while minimizing sample preparation and analysis time.
Shimadzu fluorescence spectrophotometers are used for high‑sensitivity analysis of fluorophores, with applications in biochemical assays, environmental fluorometric analysis, and advanced research workflows. These systems combine excellent signal‑to‑noise performance with intuitive software for rapid method setup and data interpretation.
Shimadzu FTIR spectrometers are designed for identification and quantification of molecular functional groups and are used extensively in materials characterization, polymer analysis, contaminant identification, and quality assurance. These systems employ advanced interferometer and detector technologies to deliver high sensitivity, excellent spectral resolution and stable baselines across a wide range of samples.
Shimadzu fluorescence spectrophotometers are used for high‑sensitivity analysis of fluorophores, with applications in biochemical assays, environmental fluorometric analysis, and advanced research workflows. These systems combine excellent signal‑to‑noise performance with intuitive software for rapid method setup and data interpretation.
