Simulations of the collection of mesospheric dust particles with a rocket instrument

We investigate the collection of dust particles in the mesosphere with the MESS (MEteoric Smoke Sampler) instrument that is designed to fly on a sounding rocket. We assume that the ice particles that form in the polar mesosphere between 80 and 85 km altitude in summer contain meteoric smoke particle...

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Published in:Atmospheric Measurement Techniques
Main Authors: Pineau, Adrien, Trollvik, Henriette, Greaker, Herman, Olsen, Sveinung, Eilertsen, Yngve, Mann, Ingrid
Format: Text
Language:English
Published: 2024
Subjects:
Online Access:https://doi.org/10.5194/amt-17-3843-2024
https://amt.copernicus.org/articles/17/3843/2024/
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spelling ftcopernicus:oai:publications.copernicus.org:amt116120 2024-09-15T17:39:26+00:00 Simulations of the collection of mesospheric dust particles with a rocket instrument Pineau, Adrien Trollvik, Henriette Greaker, Herman Olsen, Sveinung Eilertsen, Yngve Mann, Ingrid 2024-06-28 application/pdf https://doi.org/10.5194/amt-17-3843-2024 https://amt.copernicus.org/articles/17/3843/2024/ eng eng doi:10.5194/amt-17-3843-2024 https://amt.copernicus.org/articles/17/3843/2024/ eISSN: 1867-8548 Text 2024 ftcopernicus https://doi.org/10.5194/amt-17-3843-2024 2024-08-28T05:24:22Z We investigate the collection of dust particles in the mesosphere with the MESS (MEteoric Smoke Sampler) instrument that is designed to fly on a sounding rocket. We assume that the ice particles that form in the polar mesosphere between 80 and 85 km altitude in summer contain meteoric smoke particles; and these should be collected with MESS. The instrument consists of a collection device with an opening and closure mechanism, as well as an attached conic funnel which increases the sampling area in comparison to the collection area. Dust particles are collected either directly after passing through the instrument or indirectly after colliding with and fragmenting on the funnel wall. We calculate the dust and fragment trajectories in the detector to determine the collection efficiency for different particle sizes, rocket velocities, and heights, and we find the final velocities and the temperatures of the particles. The considered design has a sampling area of 62.78 mm diameter and a collection area of 20 mm diameter. For the conditions at the rocket launch site in Andøya, Norway, we estimate the collection of meteoric smoke particles contained in the ice particles to be ∼ 10 12 –10 14 amu mm −2 . The estimated temperatures suggest that the composition of these smoke particles is not affected by the collection. Our calculations also show that keeping the instrument open above 85 km altitude increases the amount of small smoke particles that are directly collected. The directly collected smoke particles are heated as they decelerate, which can affect their composition. Text Andøya Copernicus Publications: E-Journals Atmospheric Measurement Techniques 17 12 3843 3861
institution Open Polar
collection Copernicus Publications: E-Journals
op_collection_id ftcopernicus
language English
description We investigate the collection of dust particles in the mesosphere with the MESS (MEteoric Smoke Sampler) instrument that is designed to fly on a sounding rocket. We assume that the ice particles that form in the polar mesosphere between 80 and 85 km altitude in summer contain meteoric smoke particles; and these should be collected with MESS. The instrument consists of a collection device with an opening and closure mechanism, as well as an attached conic funnel which increases the sampling area in comparison to the collection area. Dust particles are collected either directly after passing through the instrument or indirectly after colliding with and fragmenting on the funnel wall. We calculate the dust and fragment trajectories in the detector to determine the collection efficiency for different particle sizes, rocket velocities, and heights, and we find the final velocities and the temperatures of the particles. The considered design has a sampling area of 62.78 mm diameter and a collection area of 20 mm diameter. For the conditions at the rocket launch site in Andøya, Norway, we estimate the collection of meteoric smoke particles contained in the ice particles to be ∼ 10 12 –10 14 amu mm −2 . The estimated temperatures suggest that the composition of these smoke particles is not affected by the collection. Our calculations also show that keeping the instrument open above 85 km altitude increases the amount of small smoke particles that are directly collected. The directly collected smoke particles are heated as they decelerate, which can affect their composition.
format Text
author Pineau, Adrien
Trollvik, Henriette
Greaker, Herman
Olsen, Sveinung
Eilertsen, Yngve
Mann, Ingrid
spellingShingle Pineau, Adrien
Trollvik, Henriette
Greaker, Herman
Olsen, Sveinung
Eilertsen, Yngve
Mann, Ingrid
Simulations of the collection of mesospheric dust particles with a rocket instrument
author_facet Pineau, Adrien
Trollvik, Henriette
Greaker, Herman
Olsen, Sveinung
Eilertsen, Yngve
Mann, Ingrid
author_sort Pineau, Adrien
title Simulations of the collection of mesospheric dust particles with a rocket instrument
title_short Simulations of the collection of mesospheric dust particles with a rocket instrument
title_full Simulations of the collection of mesospheric dust particles with a rocket instrument
title_fullStr Simulations of the collection of mesospheric dust particles with a rocket instrument
title_full_unstemmed Simulations of the collection of mesospheric dust particles with a rocket instrument
title_sort simulations of the collection of mesospheric dust particles with a rocket instrument
publishDate 2024
url https://doi.org/10.5194/amt-17-3843-2024
https://amt.copernicus.org/articles/17/3843/2024/
genre Andøya
genre_facet Andøya
op_source eISSN: 1867-8548
op_relation doi:10.5194/amt-17-3843-2024
https://amt.copernicus.org/articles/17/3843/2024/
op_doi https://doi.org/10.5194/amt-17-3843-2024
container_title Atmospheric Measurement Techniques
container_volume 17
container_issue 12
container_start_page 3843
op_container_end_page 3861
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