Completed Cells, Biochemistry & Physiology Chemistry

Light Element Analysis Facility - LEAF

In plain English

AI plain-English summary

Electron microscopes routinely miss the lightest elements—lithium, carbon, oxygen, nitrogen—because the instruments are built to see heavy metals and semiconductors. This grant buys three new instruments that close that blind spot: an electron probe microanalyser, a soft X-ray emission spectrometer, and a confocal Raman microscope, all housed in an existing electron microscopy centre. Light elements are everywhere in modern technology. Lithium drives batteries. Carbon and oxygen make up polymers, pharmaceuticals, and biological tissues. Without tools that can map these elements at microscopic scales, researchers cannot see why a battery electrode degrades, how a drug crystal forms, or where contaminants hide in a soft material. The new facility will let scientists probe from lithium up to oxygen and beyond, giving detailed chemical and electronic maps of samples that current microscopes treat as invisible. This is a fundamental analytical capability, not a single application. If it succeeds, it will underpin research across energy storage, lightweight manufacturing, biomedical materials, and organic electronics. Better understanding of light-element chemistry at the nanoscale could improve battery lifetimes, enable stronger composites, or refine drug delivery systems—but the immediate value is simply seeing what has been invisible.

View original technical description
Electron Microscopy tends to focus upon analysis of the heavier elements; however the lighter elements often have a critical role to pay. Furthermore, in soft matter and organic materials, it is ofteny only light elements that are present. With the advent of new technologies, it has become possible to analyse for light elements with much greater precision. We are requesting support for a new light element analysis facility to be housed in our interdisciplinary Electron Microscopy Centre complementing the existing equipment (2 TEM's, a FIB and 2 SEM's). We propose to build upon our existing Electron Microscopy facilities by adding an electron probe microanalyser (EPMA), a separate Soft X-ray Emission Spectrometer (SXES) system and a confocal Raman microscope. This will allow us to probe from elemental Li up to O and beyond, giving detailed compositional, electronic and spatial analysis to support research in a range of critical topics.

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Researchers

David Miller (Co-Investigator)John Irvine (Principal Investigator)Richard Baker (Co-Investigator)Richard White (Co-Investigator)

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Original classification

Research Grant

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