Characteristics and mechanisms of generation of transient luminous events – a review
DOI:
https://doi.org/10.26881/prog.2023.12.03Keywords:
ionosphere, lightnings, sprites, elves, jetsAbstract
The plasma contained in the ionosphere enables the formation of many light phenomena. Apart from the aurora borealis, colourful and diverse transient luminous events can be observed in the ionosphere, the formation of which is very often associated with thunderstorm clouds and lightning. Among the types of discharges, we can distinguish quite rare positive ground discharges, some of which lead to the appearance of red-coloured sprites. If the discharge is strong enough, it can lead to an electromagnetic pulse causing elves, visible as circles of propagating red light. Among the well-studied transient luminous events, one can also distinguish jets, whose origin is related to the occurrence of an unbalanced charge in a storm cloud. Other, still poorly studied, light phenomena of the ionosphere include gnomes, pixies, trolls, and ghosts.
Downloads
References
Barrington-Leigh C., Inan U., 2001, Identification of sprites and elves with intensified video and broadband array photometry, „Journal of Geophysical Research”, Vol. 106, No. A2.
Chen ., Kuo C., Lee Y., Su H., Hsu R., Chern J., Frey H., Mende S., Takahashi Y., Fukunishi H., Chang Y., Liu T., Lee L., 2008, Global distributions and occurrence rates of transient luminous events, „Journal of Geophysical Research”, Vol. 113, No. A8.
Cieślar K., 2017, Duszki, elfy i niebieskie strumienie, czyli o egzotycznych wyładowaniach elektrycznych, „Neutrino”, nr 38.
Cummer S., Jaugey N., Li J., Lyons W., Nelson T., Gerken E., 2006, Submillisecond imaging of sprite development and structure, „Geophysical Research Letters”, Vol. 33, No. 4.
Da Silva C., 2015, Numerical Modeling of Leader Discharge Mechanisms in Lightning, Blue Jets, Gigantic Jets, And Sprites, A Dissertation in Electrical Engineering.
Dwyer J., 2014, The physics of lightning, „Physics Reports”, Vol. 534, No. 4.
Franz R., Nemzek R., Winckler J., 1990, Television Image of a Large Upward Electrical Discharge Above a Thunderstorm System, „Science”, Vol. 249, No. 5964.
Füllekrug M., Mareev E., Rycroft M., 2004, Sprites, Elves and Intense Lightning Discharges, „NATO Science Series II: Mathematics, Physics and Chemistry”, Vol. 225.
Herzog C., Sprites and Elves in the Atmosphere, PennState, 1.09.1997, https://www.psu.edu/news/ research/story/sprites-and-elves-atmosphere.
Jaugey G., 2007, Space Physics: Aurora Borealis, AUSpace.
Kelley M., 2009, The Earth’s Ionosphere: Plasma Physics and Electrodynamics, USA.
Kivelson M., Russell C., 1995, Introduction to Space Physics, Cambridge.
Krehbiel P., Riousset J., Pasko V., Thomas R., Rison W., Stanley M., Edens H., 2008, Upward Electrical Discharges From Thunderstorm, „Nature Geoscience”, Vol. 1, No. 4.
Lyons W., Nelson T., Armstrong R., Pasko V., Stanley M., 2003, Upward Electrical Discharges From Thunderstorm Tops, „Bulletin of the American Meteorological Society”, Vol. 84, No. 4.
McHarg M., Halland R., 2002, Altitude-time development of sprites, „Journal of Geophysical Research”, Vol. 107, No. A11.
Mende S., Frey H., Hsu R., Su H., Chen A., Lee L., Sentman D., Takahashi Y., Fukunishi H., 2005, D region ionization by lightning-induced electromagnetic pulses, „Journal of Geophysical Research”, Vol. 110, No. A11.
Nagano I., Yagitani S., Miyamura K., Makino S., 2003, Full-wave analysis of elves created by lightning- generated electromagnetic pulses, „Journal of Atmospheric and Solar-Terrestrial Physics”, Vol. 65, No. 5.
Neubert T., 2003, On Sprites and Their Exotic Kin, „Science”, Vol. 300, No. 5620.
Pasko V., 2008, Blue jets and gigantic jets: transient luminous events between thunderstorm tops and the lower ionosphere, „Plasma Physics And Controlled Fusion”, Vol. 50, No. 12.
Pasko V., Inan U., Bell T., 1997, Sprites produced by quasi‐ electrostatic heating and ionization in the lower ionosphere, „Journal of Geophysical Research”, Vol. 102, No. A3.
Phillips T., 2020, Introducing, The Green Ghost, Space Weather, 31.05.2020, https://spaceweatherarchive. com/2020/05/31/introducing-the-green-ghost/
Riousset J., Pasko V., Krehbiel P., Rison W., Stanley M., 2010, Modeling of thundercloud screening charges: Implications for blue and gigantic jets, „Journal of Geophysical Research”, Vol. 1015, No. A1.
Rybka E., 1975, Astronomia Ogólna, Warszawa.
Sedlak W., 1972, Plazma fizyczna jako podstawa bioenergetyki, „Roczniki Filozoficzne”, t. 20, nr 3.
Siingh D., Singh A., Patel R., Singh R., Singh R., Veenadhari B., Mukherjee M., 2009, Thunderstorms, lightning, sprites and magnetospheric whistler-mode radio waves, „Suveys in Geophysics”, Vol. 29, No. 6.
Singh M., Kumar A., Pathak P., 2017, Review of various findings about sprites, „Journal of Environment and Bio-Sciences”, Vol. 31, No. 2.
Sokołowska D., 2009, Piorunujące wrażenie, „Neutrino”, nr 5.
Su H., Hsu R., Chen A., Wang Y., Hsiao W., Lai W., Lee L., Sato M., Fukunishi H., 2003, Gigantic jets between a thundercloud and the ionosphere, „Nature”, Vol. 423, No. 6943.
Surkov V., Hayakawa M., 2016, Semianalytical Models of Sprite Formation from Plasma Inhomogeneities, „Geomagnetism and Aeronomy”, Vol. 56, No. 6.
Surkov V., Hayakawa M., 2020, Progress in the Study of Transient Luminous and Atmospheric Events: A Review, „Surveys in Geophysics”, Vol. 41, No. 5.
Uman M., 1984, Lightning, New York.
Valdivia J., Milikh G., Papadopoulus K., 1997, Red sprites: Lightning as a fractal antenna, „Geophysical Research Letters”, Vol. 24, No. 24.
Wescott E., Sentman D., Heavner M., Hampton D., Vaughan Jr O., 1998, Blue Jets: their relationship to lightning and very large hailfall, and their physical mechanisms for their production, „Journal of Atmospheric and Solar-Terrestrial Physics”, Vol. 60, No. 7–9.
Wescott E., Sentman D., Stenbaek-Nielsen H., Huet P., Heavner M., Moudry D., 2001, New evidence for the brightness and ionization of blue starters and blue jets, „Journal of Geophysical Research”, Vol. 106, No. A10.