Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude site

Remote sensing of the ionosphere bottom using long wave radio signal propagation is a still going strong and inexpensive method for continuous monitoring purposes. We present a propagation model describing the time development of solar flare effects. Based on monitored amplitude and phase data f...

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Main Author: E. D. Schmitter
Format: Article
Language:English
Published: Copernicus Publications 2013-04-01
Series:Annales Geophysicae
Online Access:https://www.ann-geophys.net/31/765/2013/angeo-31-765-2013.pdf
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spelling doaj-f5c20f9329b747678cf52dc4995fb6e92020-11-24T22:02:06ZengCopernicus PublicationsAnnales Geophysicae0992-76891432-05762013-04-013176577310.5194/angeo-31-765-2013Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude siteE. D. Schmitter0University of Applied Sciences Osnabrück, 49076 Osnabrück, GermanyRemote sensing of the ionosphere bottom using long wave radio signal propagation is a still going strong and inexpensive method for continuous monitoring purposes. We present a propagation model describing the time development of solar flare effects. Based on monitored amplitude and phase data from VLF/LF transmitters gained at a mid-latitude site during the currently increasing solar cycle no. 24 a parameterized electron density profile is calculated as a function of time and fed into propagation calculations using the LWPC (Long Wave Propagation Capability). The model allows to include lower ionosphere recombination and attachment coefficients, as well as to identify the relevant forcing X-ray wavelength band, and is intended to be a small step forward to a better understanding of the solar–lower ionosphere interaction mechanisms within a consistent framework.https://www.ann-geophys.net/31/765/2013/angeo-31-765-2013.pdf
collection DOAJ
language English
format Article
sources DOAJ
author E. D. Schmitter
spellingShingle E. D. Schmitter
Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude site
Annales Geophysicae
author_facet E. D. Schmitter
author_sort E. D. Schmitter
title Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude site
title_short Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude site
title_full Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude site
title_fullStr Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude site
title_full_unstemmed Modeling solar flare induced lower ionosphere changes using VLF/LF transmitter amplitude and phase observations at a midlatitude site
title_sort modeling solar flare induced lower ionosphere changes using vlf/lf transmitter amplitude and phase observations at a midlatitude site
publisher Copernicus Publications
series Annales Geophysicae
issn 0992-7689
1432-0576
publishDate 2013-04-01
description Remote sensing of the ionosphere bottom using long wave radio signal propagation is a still going strong and inexpensive method for continuous monitoring purposes. We present a propagation model describing the time development of solar flare effects. Based on monitored amplitude and phase data from VLF/LF transmitters gained at a mid-latitude site during the currently increasing solar cycle no. 24 a parameterized electron density profile is calculated as a function of time and fed into propagation calculations using the LWPC (Long Wave Propagation Capability). The model allows to include lower ionosphere recombination and attachment coefficients, as well as to identify the relevant forcing X-ray wavelength band, and is intended to be a small step forward to a better understanding of the solar–lower ionosphere interaction mechanisms within a consistent framework.
url https://www.ann-geophys.net/31/765/2013/angeo-31-765-2013.pdf
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