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Seasonal and interannual variability of temperature and gravity wave intensity from hydroxyl emission observations in Alma Aty. / Popov, A. А. ; Gavrilov, N. M. ; Andreev, A. B. ; Pogoreltsev , A. I. .

Atmosphere, ionosphere. safety. ред. / I. V. Karpov. Том 1 Kaliningrad : Издательство Балтийского федерального университета им. И. Канта, 2018. стр. 201-205.

Результаты исследований: Публикации в книгах, отчётах, сборниках, трудах конференций › статья в сборнике › научная › Рецензирование

Harvard

Popov, AА, Gavrilov, NM, Andreev, AB & Pogoreltsev , AI 2018, Seasonal and interannual variability of temperature and gravity wave intensity from hydroxyl emission observations in Alma Aty. в IV Karpov (ред.), Atmosphere, ionosphere. safety. Том. 1, Издательство Балтийского федерального университета им. И. Канта, Kaliningrad, стр. 201-205.

APA

Popov, A. А., Gavrilov, N. M., Andreev, A. B., & Pogoreltsev , A. I. (2018). Seasonal and interannual variability of temperature and gravity wave intensity from hydroxyl emission observations in Alma Aty. в I. V. Karpov (Ред.), Atmosphere, ionosphere. safety (Том 1, стр. 201-205). Издательство Балтийского федерального университета им. И. Канта.

Vancouver

Popov AА, Gavrilov NM, Andreev AB, Pogoreltsev AI. Seasonal and interannual variability of temperature and gravity wave intensity from hydroxyl emission observations in Alma Aty. в Karpov IV, Редактор, Atmosphere, ionosphere. safety. Том 1. Kaliningrad: Издательство Балтийского федерального университета им. И. Канта. 2018. стр. 201-205

Author

Popov, A. А. ; Gavrilov, N. M. ; Andreev, A. B. ; Pogoreltsev , A. I. . / Seasonal and interannual variability of temperature and gravity wave intensity from hydroxyl emission observations in Alma Aty. Atmosphere, ionosphere. safety. Редактор / I. V. Karpov. Том 1 Kaliningrad : Издательство Балтийского федерального университета им. И. Канта, 2018. стр. 201-205

BibTeX

@inbook{f100538f32c94c56a8550c5a74e9d10b,
title = "Seasonal and interannual variability of temperature and gravity wave intensity from hydroxyl emission observations in Alma Aty",
abstract = "Conclusion. The method of digital differential filters (2) is applied to theanalysis of observations of the rotational temperature of hydroxyl nightglow at altitudes of 85—90 km with the SATI device in Alma-Aty, Kazakhstan in years 2010—2017. Analyzed are interannual and seasonal changes in the monthly-mean temperature and characteristics of temperature perturbations with mesoscale periods, which may be associated with IGW in the mesopause region. To obtain variations with time periods of 1.7—5 h a numerical filtering was used by calculating the differences between consecutive hourly-mean temperature values. The mean temperature near the mesopause has a maximum in winter and minimum in June. IGW intensities maximize in spring and autumn and minimize in winter and summer. The slopes of regression lines in Figs. 3b—3d correspond to multi-year increasing intensity of mesoscale perturbations near the mesopause.",
author = "Popov, {A. А.} and Gavrilov, {N. M.} and Andreev, {A. B.} and Pogoreltsev, {A. I.}",
year = "2018",
month = jun,
language = "English",
isbn = " 978-5-9971-0490-0 ",
volume = "1",
pages = "201--205",
editor = "Karpov, {I. V.}",
booktitle = "Atmosphere, ionosphere. safety",
publisher = "Издательство Балтийского федерального университета им. И. Канта",
address = "Russian Federation",

}

RIS

TY - CHAP

T1 - Seasonal and interannual variability of temperature and gravity wave intensity from hydroxyl emission observations in Alma Aty

AU - Popov, A. А.

AU - Gavrilov, N. M.

AU - Andreev, A. B.

AU - Pogoreltsev , A. I.

PY - 2018/6

Y1 - 2018/6

N2 - Conclusion. The method of digital differential filters (2) is applied to theanalysis of observations of the rotational temperature of hydroxyl nightglow at altitudes of 85—90 km with the SATI device in Alma-Aty, Kazakhstan in years 2010—2017. Analyzed are interannual and seasonal changes in the monthly-mean temperature and characteristics of temperature perturbations with mesoscale periods, which may be associated with IGW in the mesopause region. To obtain variations with time periods of 1.7—5 h a numerical filtering was used by calculating the differences between consecutive hourly-mean temperature values. The mean temperature near the mesopause has a maximum in winter and minimum in June. IGW intensities maximize in spring and autumn and minimize in winter and summer. The slopes of regression lines in Figs. 3b—3d correspond to multi-year increasing intensity of mesoscale perturbations near the mesopause.

AB - Conclusion. The method of digital differential filters (2) is applied to theanalysis of observations of the rotational temperature of hydroxyl nightglow at altitudes of 85—90 km with the SATI device in Alma-Aty, Kazakhstan in years 2010—2017. Analyzed are interannual and seasonal changes in the monthly-mean temperature and characteristics of temperature perturbations with mesoscale periods, which may be associated with IGW in the mesopause region. To obtain variations with time periods of 1.7—5 h a numerical filtering was used by calculating the differences between consecutive hourly-mean temperature values. The mean temperature near the mesopause has a maximum in winter and minimum in June. IGW intensities maximize in spring and autumn and minimize in winter and summer. The slopes of regression lines in Figs. 3b—3d correspond to multi-year increasing intensity of mesoscale perturbations near the mesopause.

M3 - Article in an anthology

SN - 978-5-9971-0490-0

VL - 1

SP - 201

EP - 205

BT - Atmosphere, ionosphere. safety

A2 - Karpov, I. V.

PB - Издательство Балтийского федерального университета им. И. Канта

CY - Kaliningrad

ER -

ID: 36353558