Quantitative Absorbance Spectrophotometry
Ocean Optics, Inc.
Articles in this issue
Sample Preparation of Solid Materials for X-Ray Fluorescence Analysis
Analysis of Environmental Samples by ICP-OES Following US EPA Guidelines
Using Mid-Infrared Fiber Optics for In-Situ Studies of Human Skin
Analysis of Mycotoxins in Various Cattle Forages and Food Matrices with the TSQ Quantum Discovery MAX
Polymorph Discrimination Using Low Wavenumber Direct Lattice Information
RoHS & WEEE Compliance: Analysis of PolyVinyl Chloride (PVC) and Acrylonitrile-Butadiene Styrene (ABS) Polymers
Trace Elements in Fish and Fish Oil Supplements
Forensics Applications of X-Ray Fluorescence Spectroscopy in Combination with Advanced Light Source Sample Discovery
Confocal Raman Imaging for Stress Measurements in Semiconductors
Biological Applications of FT-IR Imaging - Large Samples at High Spatial Resolution
Dynamic Range Improvements on the Hitachi NanoFrontier Linear Ion Trap-TOF LC-MS Platform
RoHS/WEEE Application of a Miniature X-Ray Spectrometer
Compact Ultrafast Spectrometers Inside LED Sorting Machines
Analysis of Monomolecular Layers on Silicon Using an Optimized Grazing Angle ATR Accessory and FTIR Spectroscopy
Quantitative Absorbance Spectrophotometry
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Enhancing Trace Element Analysis with Inductively Coupled Plasma Mass Spectrometry
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Elemental analysis is crucial in a wide variety of applications from detecting toxic elements within the environment, to ensuring drinking water is safe for human consumption, to food product safety. ICP-MS—able to measure an atom’s mass—offers low detection limits in the range of parts per trillion (ppt), making it a widely used method that can detect toxic elements well below regulatory limits. This paper expands upon how new ICP-MS technology can meet the challenges associated with heightened demands for element analysis and the hurdles laboratories face when analyzing high-matrix samples.
