Variability of the Surface Electric Field under the Influence of Meteorological Conditions According to Observations in Tomsk

The electric field of the atmosphere, along with electrical conductivity and ionization of air, is the main characteristic of atmospheric electricity, which is a set of electrical phenomena occurring in the atmosphere, including in clouds and precipitation. There is a close connection between the intensity (potential gradient) of the atmospheric electric field and the topography and landscape of an area and meteorological quantities. A disruption of the normal electric field, characteristic of fair-weather conditions, occurs during the formation and development of clouds, precipitation, thunderstorm, etc. In general, the variability of the electric field is determined by a number of individual or combined factors, both of global and regional (or local) character. Therefore, studying and understanding the functioning of the Global Electric Circuit and its local variability seems to be a relevant scientific problem, especially in the context of the modern climate change. The variability of the electric field potential gradient and meteorological quantities is analyzed in this work based on long-term observations in a large urban settlement. The analysis shows a pronounced dependence of the potential gradient on the wind direction in fair-weather conditions, especially in winter, associated, we believe, with aerosol transfer. We also found that the variability of the surface electric field, including seasonal and daily variations, under all meteorological conditions significantly differs from the variability under exceptionally fair-weather conditions. The results are in good agreement with similar studies at other observation sites located near large populated areas, and are of interest for simulating the state and variability of the Global Electric Circuit depending on various physical and geographical and meteorological conditions.

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Publication Details

Journal
Atmospheric and Oceanic Optics
Published
2024-12-01
DOI
https://doi.org/10.1134/s1024856024701070
Primary Topic
Earthquake Detection and Analysis
Type
article
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article

Variability of the Surface Electric Field under the Influence of Meteorological Conditions According to Observations in Tomsk

Maria V. Oglezneva, Sergei V. Smirnov, Konstantin N. Pustovalov, Petr M. Nagorskiy
Atmospheric and Oceanic Optics
Earthquake Detection and Analysis
article

Variability of the Surface Electric Field under the Influence of Meteorological Conditions According to Observations in Tomsk

Maria V. Oglezneva, Sergei V. Smirnov, Konstantin N. Pustovalov, Petr M. Nagorskiy
article en

Abstract

The electric field of the atmosphere, along with electrical conductivity and ionization of air, is the main characteristic of atmospheric electricity, which is a set of electrical phenomena occurring in the atmosphere, including in clouds and precipitation. There is a close connection between the intensity (potential gradient) of the atmospheric electric field and the topography and landscape of an area and meteorological quantities. A disruption of the normal electric field, characteristic of fair-weather conditions, occurs during the formation and development of clouds, precipitation, thunderstorm, etc. In general, the variability of the electric field is determined by a number of individual or combined factors, both of global and regional (or local) character. Therefore, studying and understanding the functioning of the Global Electric Circuit and its local variability seems to be a relevant scientific problem, especially in the context of the modern climate change. The variability of the electric field potential gradient and meteorological quantities is analyzed in this work based on long-term observations in a large urban settlement. The analysis shows a pronounced dependence of the potential gradient on the wind direction in fair-weather conditions, especially in winter, associated, we believe, with aerosol transfer. We also found that the variability of the surface electric field, including seasonal and daily variations, under all meteorological conditions significantly differs from the variability under exceptionally fair-weather conditions. The results are in good agreement with similar studies at other observation sites located near large populated areas, and are of interest for simulating the state and variability of the Global Electric Circuit depending on various physical and geographical and meteorological conditions.

Atmospheric and Oceanic OpticsVol. 37(6)
National Research Tomsk State University (RU), Institute of Monitoring of Climatic and Ecological Systems (RU)
Climate action
Openalex Percentile: Top 74%
Earthquake Detection and Analysis
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