Radiative Transfer Models of the Galactic Center

This thesis discusses research being done to understand the inner parts of the Milky Way Galaxy. We already know that there are dense star clouds, a supermassive black hole, and a large bar structure, but much of the inner galaxy is shrouded in mystery. Dust absorption, for one thing, prevents us fr...

Full description

Bibliographic Details
Main Author: Schlawin, Everett A.
Format: Text
Language:unknown
Published: Digital Commons at Oberlin 2009
Subjects:
Online Access:https://digitalcommons.oberlin.edu/honors/485
https://digitalcommons.oberlin.edu/context/honors/article/1484/viewcontent/Schlawin_Radiative_thesis_09.pdf
id ftoberlincollege:oai:digitalcommons.oberlin.edu:honors-1484
record_format openpolar
spelling ftoberlincollege:oai:digitalcommons.oberlin.edu:honors-1484 2023-07-30T03:56:34+02:00 Radiative Transfer Models of the Galactic Center Schlawin, Everett A. 2009-01-01T08:00:00Z application/pdf https://digitalcommons.oberlin.edu/honors/485 https://digitalcommons.oberlin.edu/context/honors/article/1484/viewcontent/Schlawin_Radiative_thesis_09.pdf unknown Digital Commons at Oberlin https://digitalcommons.oberlin.edu/honors/485 https://digitalcommons.oberlin.edu/context/honors/article/1484/viewcontent/Schlawin_Radiative_thesis_09.pdf Honors Papers Inner galaxy Astrophysics Radiative transfer Turbulence Milky Way galaxy Herschel Velocity centroids Physics text 2009 ftoberlincollege 2023-07-08T17:55:38Z This thesis discusses research being done to understand the inner parts of the Milky Way Galaxy. We already know that there are dense star clouds, a supermassive black hole, and a large bar structure, but much of the inner galaxy is shrouded in mystery. Dust absorption, for one thing, prevents us from seeing the galactic center directly with our eyes. To help understand the elusive inner Milky Way, we examine radio telescope data taken in Antarctica by Oberlin College Professor Chris Martin. His gigahertz radio observations were already analyzed to help understand how gas funnels into the Milky Way's supermassive black hole. We study this data further to characterize turbulence and predict how hot or cold the gas is. The analysis of this data will also help prepare for the next thing: Herschel Space Observatory. This European telescope is scheduled to be launched in late April and will begin taking data in the fall of 2009. Chris Martin was granted 125 hours of observation time on the telescope to study the Inner Milky Way. Text Antarc* Antarctica Digital Commons at Oberlin (Oberlin College) Milky Way ENVELOPE(-68.705,-68.705,-71.251,-71.251)
institution Open Polar
collection Digital Commons at Oberlin (Oberlin College)
op_collection_id ftoberlincollege
language unknown
topic Inner galaxy
Astrophysics
Radiative transfer
Turbulence
Milky Way galaxy
Herschel
Velocity centroids
Physics
spellingShingle Inner galaxy
Astrophysics
Radiative transfer
Turbulence
Milky Way galaxy
Herschel
Velocity centroids
Physics
Schlawin, Everett A.
Radiative Transfer Models of the Galactic Center
topic_facet Inner galaxy
Astrophysics
Radiative transfer
Turbulence
Milky Way galaxy
Herschel
Velocity centroids
Physics
description This thesis discusses research being done to understand the inner parts of the Milky Way Galaxy. We already know that there are dense star clouds, a supermassive black hole, and a large bar structure, but much of the inner galaxy is shrouded in mystery. Dust absorption, for one thing, prevents us from seeing the galactic center directly with our eyes. To help understand the elusive inner Milky Way, we examine radio telescope data taken in Antarctica by Oberlin College Professor Chris Martin. His gigahertz radio observations were already analyzed to help understand how gas funnels into the Milky Way's supermassive black hole. We study this data further to characterize turbulence and predict how hot or cold the gas is. The analysis of this data will also help prepare for the next thing: Herschel Space Observatory. This European telescope is scheduled to be launched in late April and will begin taking data in the fall of 2009. Chris Martin was granted 125 hours of observation time on the telescope to study the Inner Milky Way.
format Text
author Schlawin, Everett A.
author_facet Schlawin, Everett A.
author_sort Schlawin, Everett A.
title Radiative Transfer Models of the Galactic Center
title_short Radiative Transfer Models of the Galactic Center
title_full Radiative Transfer Models of the Galactic Center
title_fullStr Radiative Transfer Models of the Galactic Center
title_full_unstemmed Radiative Transfer Models of the Galactic Center
title_sort radiative transfer models of the galactic center
publisher Digital Commons at Oberlin
publishDate 2009
url https://digitalcommons.oberlin.edu/honors/485
https://digitalcommons.oberlin.edu/context/honors/article/1484/viewcontent/Schlawin_Radiative_thesis_09.pdf
long_lat ENVELOPE(-68.705,-68.705,-71.251,-71.251)
geographic Milky Way
geographic_facet Milky Way
genre Antarc*
Antarctica
genre_facet Antarc*
Antarctica
op_source Honors Papers
op_relation https://digitalcommons.oberlin.edu/honors/485
https://digitalcommons.oberlin.edu/context/honors/article/1484/viewcontent/Schlawin_Radiative_thesis_09.pdf
_version_ 1772813735399784448