In mass spectrometry, one generates ions from a
sample to be analyzed. These ions are then separated and quantitatively
detected. The units covered in this notes are as follows : Introduction, Charge
Location and Fragmentation, Ion Separation, Ionization and Desorption,
Biomolecules, Literature, Sources.
Author(s): Peter
M. van Galen and Martin C. Feiters, Department of Organic Chemistry, Molecular
Chemistry Cluster, Institute for Molecules and Materials, Faculty of Science,
Radboud University, Nijmegen
This note explains the following topics: XRF Processes and
Techniques, X Ray Spectroscopy Tools for the Characterization of Nanoparticles,
, High Resolution X Ray Spectroscopy with Compound Semiconductor Detectors and
Digital Pulse Processing Systems, Analysis of the K Satellite Lines in X-Ray
Emission Spectra, Characterization and Analytical Applications of X Rays,
Dispersive X Ray Spectroscopy, Quantification in X Ray Fluorescence
Spectrometry, Quantification in X Ray Fluorescence Spectrometry, Employing Soft
X Rays in Experimental Astrochemistry, Application of Stopped-Flow and
Time-Resolved X Ray Absorption Spectroscopy to the Study of Metalloproteins
Molecular Mechanisms, Nanoscale Chemical Analysis in Various Interfaces with
Energy Dispersive X Ray Spectroscopy and Transmission Electron Microscopy.
This page covers the following topics related to Mass
Spectrometry : Basics of Mass Spectrometry, What is Mass Spectrometry,
Basics, Ionization, Mass Analyzers, Detectors, The Vacuum.
This guide introduces young children to mass
spectrometry and give them the opportunity to experience a modern research
laboratory. The modules in this note are highly adaptable and can be applied to
young children from the age of 6 years to 14 years.
This course note
will develop Mass Spectrometry as an analytical tool in chemistry and
biochemistry, at an advanced level. Topics covered includes ionization, mass
analyzers, ion dissociation, ion mobility, qualitative and quantitative analysis
with various applications.