DIRECT ELECTRON-LIQUID ENERGY LOSS SPECTRA MEASUREMENTS USING A LIQUID MICRO-JET

Electron transport through liquids plays a critical role in a number of emerging applications in medicine, particle detectors and nanomaterials. Currently, conducting direct electron-liquid scattering experiments in vacuum conditions poses significant challenges due to the high vapour pressure of liquids and multiple scattering effects. In this work, we present a new electron-liquid scattering experiment that utilises a liquid micro-jet to provide a stable scattering surface for an electron beam under vacuum conditions. Initial measurements are made and compared to existing theory using a Monte Carlo simulation and their limitations are discussed.

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Publication Details

Published
2024-09-30
DOI
https://doi.org/10.69646/aob103p053
Primary Topic
Electrohydrodynamics and Fluid Dynamics
Type
article
Field-Weighted Citation Impact
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article

DIRECT ELECTRON-LIQUID ENERGY LOSS SPECTRA MEASUREMENTS USING A LIQUID MICRO-JET

Robert D. White, D. L. Muccignat, Nathan Garland, Jason R. Gascooke et al.
Electrohydrodynamics and Fluid Dynamics
article

DIRECT ELECTRON-LIQUID ENERGY LOSS SPECTRA MEASUREMENTS USING A LIQUID MICRO-JET

Robert D. White, D. L. Muccignat, Nathan Garland, Jason R. Gascooke, D. B. Jones, G. J. Boyle
article en

Abstract

Electron transport through liquids plays a critical role in a number of emerging applications in medicine, particle detectors and nanomaterials. Currently, conducting direct electron-liquid scattering experiments in vacuum conditions poses significant challenges due to the high vapour pressure of liquids and multiple scattering effects. In this work, we present a new electron-liquid scattering experiment that utilises a liquid micro-jet to provide a stable scattering surface for an electron beam under vacuum conditions. Initial measurements are made and compared to existing theory using a Monte Carlo simulation and their limitations are discussed.

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Electrohydrodynamics and Fluid Dynamics
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