Understanding Solar Flare Dynamics With High-Altitude Balloons

dc.description Solar flares are large energy releases observed at the surface of the sun, capable of outputting the energy equivalent of 160 billion megatons of TNT. Caused by a build-up in magnetic energy, these enormous eruptions result in an emission of radiation spanning the entire electromagnet...

Full description

Bibliographic Details
Main Author: Corey Boul?
Format: Conference Object
Language:English
Published: Keene State College 2015
Subjects:
Online Access:http://hdl.handle.net/20.500.12088/7586
id ftkeenecollege:oai:commons.keene.edu:20.500.12088/7586
record_format openpolar
spelling ftkeenecollege:oai:commons.keene.edu:20.500.12088/7586 2023-05-15T13:32:07+02:00 Understanding Solar Flare Dynamics With High-Altitude Balloons Corey Boul? 2015 http://hdl.handle.net/20.500.12088/7586 en_US eng Keene State College http://hdl.handle.net/20.500.12088/7586 Physics Presentation 2015 ftkeenecollege 2019-12-06T16:06:22Z dc.description Solar flares are large energy releases observed at the surface of the sun, capable of outputting the energy equivalent of 160 billion megatons of TNT. Caused by a build-up in magnetic energy, these enormous eruptions result in an emission of radiation spanning the entire electromagnetic spectrum, including large fluxes of x-rays, as well as particles accelerated near the speed of light. Both have far-reaching and harmful effects on Earth and its inhabitants. The focus of this investigation is the initial, impulsive phase of the solar flare. This includes the process of magnetic reconnection, a high-energy plasma phenomenon considered the cause of flare initiation. This presentation will examine the impulsive phase by comparing x-ray emissions of two distinct and powerful flares that occurred on January 7th, 2014 with x-ray observations from an atmospheric balloon survey conducted over Antarctica as well as multi-wavelength observations from several other Earth and space-based observatories. Sarah McGregor Conference Object Antarc* Antarctica Keene State College: KSCommons
institution Open Polar
collection Keene State College: KSCommons
op_collection_id ftkeenecollege
language English
topic Physics
spellingShingle Physics
Corey Boul?
Understanding Solar Flare Dynamics With High-Altitude Balloons
topic_facet Physics
description dc.description Solar flares are large energy releases observed at the surface of the sun, capable of outputting the energy equivalent of 160 billion megatons of TNT. Caused by a build-up in magnetic energy, these enormous eruptions result in an emission of radiation spanning the entire electromagnetic spectrum, including large fluxes of x-rays, as well as particles accelerated near the speed of light. Both have far-reaching and harmful effects on Earth and its inhabitants. The focus of this investigation is the initial, impulsive phase of the solar flare. This includes the process of magnetic reconnection, a high-energy plasma phenomenon considered the cause of flare initiation. This presentation will examine the impulsive phase by comparing x-ray emissions of two distinct and powerful flares that occurred on January 7th, 2014 with x-ray observations from an atmospheric balloon survey conducted over Antarctica as well as multi-wavelength observations from several other Earth and space-based observatories. Sarah McGregor
format Conference Object
author Corey Boul?
author_facet Corey Boul?
author_sort Corey Boul?
title Understanding Solar Flare Dynamics With High-Altitude Balloons
title_short Understanding Solar Flare Dynamics With High-Altitude Balloons
title_full Understanding Solar Flare Dynamics With High-Altitude Balloons
title_fullStr Understanding Solar Flare Dynamics With High-Altitude Balloons
title_full_unstemmed Understanding Solar Flare Dynamics With High-Altitude Balloons
title_sort understanding solar flare dynamics with high-altitude balloons
publisher Keene State College
publishDate 2015
url http://hdl.handle.net/20.500.12088/7586
genre Antarc*
Antarctica
genre_facet Antarc*
Antarctica
op_relation http://hdl.handle.net/20.500.12088/7586
_version_ 1766024299697668096