A method for computing the three-dimensional radial distribution function of cloud particles from holographic images

<p>Reliable measurements of the three-dimensional radial distribution function for cloud droplets are desired to help characterize microphysical processes that depend on local drop environment. Existing numerical techniques to estimate this three-dimensional radial distribution function are...

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Main Authors: M. L. Larsen, R. A. Shaw
Format: Article
Language:English
Published: Copernicus Publications 2018-07-01
Series:Atmospheric Measurement Techniques
Online Access:https://www.atmos-meas-tech.net/11/4261/2018/amt-11-4261-2018.pdf
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spelling doaj-7033d9369ab54608a2e9034044b2610b2020-11-25T00:07:18ZengCopernicus PublicationsAtmospheric Measurement Techniques1867-13811867-85482018-07-01114261427210.5194/amt-11-4261-2018A method for computing the three-dimensional radial distribution function of cloud particles from holographic imagesM. L. Larsen0M. L. Larsen1R. A. Shaw2Department of Physics and Astronomy, College of Charleston, Charleston, SC, USADepartment of Physics, Michigan Technological University, Houghton, MI, USADepartment of Physics, Michigan Technological University, Houghton, MI, USA<p>Reliable measurements of the three-dimensional radial distribution function for cloud droplets are desired to help characterize microphysical processes that depend on local drop environment. Existing numerical techniques to estimate this three-dimensional radial distribution function are not well suited to in situ or laboratory data gathered from a finite experimental domain. This paper introduces and tests a new method designed to reliably estimate the three-dimensional radial distribution function in contexts in which (i) physical considerations prohibit the use of periodic boundary conditions and (ii) particle positions are measured inside a convex volume that may have a large aspect ratio. The method is then utilized to measure the three-dimensional radial distribution function from laboratory data taken in a cloud chamber from the Holographic Detector for Clouds (HOLODEC).</p>https://www.atmos-meas-tech.net/11/4261/2018/amt-11-4261-2018.pdf
collection DOAJ
language English
format Article
sources DOAJ
author M. L. Larsen
M. L. Larsen
R. A. Shaw
spellingShingle M. L. Larsen
M. L. Larsen
R. A. Shaw
A method for computing the three-dimensional radial distribution function of cloud particles from holographic images
Atmospheric Measurement Techniques
author_facet M. L. Larsen
M. L. Larsen
R. A. Shaw
author_sort M. L. Larsen
title A method for computing the three-dimensional radial distribution function of cloud particles from holographic images
title_short A method for computing the three-dimensional radial distribution function of cloud particles from holographic images
title_full A method for computing the three-dimensional radial distribution function of cloud particles from holographic images
title_fullStr A method for computing the three-dimensional radial distribution function of cloud particles from holographic images
title_full_unstemmed A method for computing the three-dimensional radial distribution function of cloud particles from holographic images
title_sort method for computing the three-dimensional radial distribution function of cloud particles from holographic images
publisher Copernicus Publications
series Atmospheric Measurement Techniques
issn 1867-1381
1867-8548
publishDate 2018-07-01
description <p>Reliable measurements of the three-dimensional radial distribution function for cloud droplets are desired to help characterize microphysical processes that depend on local drop environment. Existing numerical techniques to estimate this three-dimensional radial distribution function are not well suited to in situ or laboratory data gathered from a finite experimental domain. This paper introduces and tests a new method designed to reliably estimate the three-dimensional radial distribution function in contexts in which (i) physical considerations prohibit the use of periodic boundary conditions and (ii) particle positions are measured inside a convex volume that may have a large aspect ratio. The method is then utilized to measure the three-dimensional radial distribution function from laboratory data taken in a cloud chamber from the Holographic Detector for Clouds (HOLODEC).</p>
url https://www.atmos-meas-tech.net/11/4261/2018/amt-11-4261-2018.pdf
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