Generation of Seed Electrons by Extensive Air Showers, and the Lightning Inception Problem Including Narrow Bipolar Events

Lightning streamers and leaders need thermal electrons to initiate, but free electrons are extremely rare in the wet air of a thundercloud. Here we analyze the probabilities that high electron densities occur in extensive air showers. We argue that relevant air showers are created by cosmic particle...

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Veröffentlicht in:Journal of geophysical research. Atmospheres 2019-07, Vol.124 (13), p.7255-7269
Hauptverfasser: Rutjes, Casper, Ebert, Ute, Buitink, Stijn, Scholten, Olaf, Trinh, Thi Ngoc Gia
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container_issue 13
container_start_page 7255
container_title Journal of geophysical research. Atmospheres
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creator Rutjes, Casper
Ebert, Ute
Buitink, Stijn
Scholten, Olaf
Trinh, Thi Ngoc Gia
description Lightning streamers and leaders need thermal electrons to initiate, but free electrons are extremely rare in the wet air of a thundercloud. Here we analyze the probabilities that high electron densities occur in extensive air showers. We argue that relevant air showers are created by cosmic particles with energies between 1015 and 1017 eV impinging onto our atmosphere. We simulate a large number of air showers and perform a stochastic analysis of their results. We present the available densities of thermal electrons as a function of altitude, time interval, and considered area, while neglecting effects of local electric fields. We find that free electron densities at altitudes between 5 and 13 km can reach values of order 103 cm−3, but only in shower cores with a radius on a centimeter scale. Above 6 km, the availability of extreme free electron densities decreases significantly with increasing altitude. Recent measurements by Rison et al. (2016, https://doi.org/10.1038/ncomms10721) indicate that several streamers must have been triggered simultaneously during discharge inception, and we suggest that an extensive air shower could have been the trigger. Rison's measurements show further that the streamers are laterally separated by several tens of meters, so they must have been triggered by electron densities as low as 1 cm−3. Such low electron densities demand a stochastic approach to streamer initiation near hydrometeors. Key Points We calculate the probabilities of extreme densities of thermal electrons in extensive air showers The spatial distribution of the electrons might explain correlations in lightning inception (Rison et al., 2016)
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subjects Air
Altitude
Atmospheric pressure
Cosmic ray showers
Electric fields
Electron density
electron seed
Electrons
Extensive air showers
Free electrons
Geophysics
Hydrometeors
Leader currents
Lightning
lightning inception
Measuring instruments
Stochasticity
Streamers
thundercloud
title Generation of Seed Electrons by Extensive Air Showers, and the Lightning Inception Problem Including Narrow Bipolar Events
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