Thermal desorption part 1: introduction and instrumentation

The past 30 years have seen increasing availability of methods and equipment using thermal desorption for the measurement of airborne pollutants. These methods: offer greater sensitivity than methods using solvent desorption; are more amenable to automation; and, are better suited to mass spectromet...

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Veröffentlicht in:Analytical methods 2020-07, Vol.12 (26), p.3425-3428
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description The past 30 years have seen increasing availability of methods and equipment using thermal desorption for the measurement of airborne pollutants. These methods: offer greater sensitivity than methods using solvent desorption; are more amenable to automation; and, are better suited to mass spectrometry (MS)-based detection. The greater sensitivity offered by thermal desorption means it is well suited to the analysis of samples collected through diffusive sampling with the additional benefits that this offers. This Technical Brief informs both analysts and less technically aware users of the capabilities and limitations of thermal desorption equipment and measurement methods. This Technical Brief informs both analysts and less technically aware users of the capabilities and limitations of thermal desorption equipment and measurement methods.
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source Royal Society Of Chemistry Journals 2008-
subjects Air pollution
Airborne equipment
Airborne sensing
Automation
Desorption
Instrumentation
Mass spectrometry
Mass spectroscopy
Measurement methods
Pollutants
Sensitivity
title Thermal desorption part 1: introduction and instrumentation
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