Abstract
The advent of microbeam analytical methods has opened up new possibilities of studies of biological systems at the cellular level. In situ techniques enable analysis of living cells in vitro and even in vivo. Electron microprobes and proton microprobes can be used for such studies, but thermal damage to the sample precludes their extensive use. Synchrotron radiation-based microbeams provide virtually an ideal tool for this area of study, offering sensitivity for detection of elements at the parts-per-million level comparable to proton microprobes, but without the adverse effect of sample damage. Although the information is limited to only elemental composition and not the actual compounds, SR also offers the additional advantage of enabling chemical state analysis at trace levels. In this chapter a number of applications of SR microbeam analysis at the cellular level will be presented to illustrate the power of the method.
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(2007). SR Microbeam Analysis at Cellular Level. In: Applications of Synchrotron Radiation. Biological and Medical Physics, Biomedical Engineering. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-540-46427-3_4
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