Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau?

We have conducted 12-year field observations along two slopes with altitude differences about 1,200 m (3,250 m to 4,400 m and 4,280 m to 5,538 m) to examine the altitudinal dependence of climate warming in recent years. Annual mean of air temperature during 1951-2014 of 65 meteorological stations on...

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Main Authors: Du, Mingyuan, Liu, Jingshi, Li, Yingnian, Zhang, Fawei, Zhao, Liang, Niu, Ben, He, Yongtao, Zhang, Xianzhou, Yonemura, Seiichiro, Tang, Yanhong
Format: Report
Language:unknown
Published: 2019
Subjects:
Online Access:http://210.75.249.4/handle/363003/59890
id ftchinacascnwipb:oai:210.75.249.4:363003/59890
record_format openpolar
spelling ftchinacascnwipb:oai:210.75.249.4:363003/59890 2023-05-15T17:57:46+02:00 Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau? Du, Mingyuan Liu, Jingshi Li, Yingnian Zhang, Fawei Zhao, Liang Niu, Ben He, Yongtao Zhang, Xianzhou Yonemura, Seiichiro Tang, Yanhong 2019 http://210.75.249.4/handle/363003/59890 unknown INTERNATIONAL JOURNAL OF GLOBAL WARMING http://210.75.249.4/handle/363003/59890 null air temperature climate warming elevation latitude zone Tibetan Plateau 期刊论文 2019 ftchinacascnwipb 2023-03-26T20:46:20Z We have conducted 12-year field observations along two slopes with altitude differences about 1,200 m (3,250 m to 4,400 m and 4,280 m to 5,538 m) to examine the altitudinal dependence of climate warming in recent years. Annual mean of air temperature during 1951-2014 of 65 meteorological stations on the TP are used to analyze the relationship between elevation and climate warming. We divided the TP into three latitude zones: <30 degrees N, 30 degrees N-35 degrees N and >35 degrees N. We find that climate warming rates decreased significantly with elevation increasing in the three latitude zones. Our 12-year intensive field observations data show a similar result. Therefore, higher altitudes are likely to warm slower on the Tibetan Plateau. In addition to the latitudinal effect, it is perhaps largely contributed by the local environmental changes such as urbanization, land cove changes at lower populated elevation area, and/or the glacier and permafrost melting at high mountains. Report permafrost Northwest Institute of Plateau Biology: NWIPB OpenIR (Chinese Academy of Sciences)
institution Open Polar
collection Northwest Institute of Plateau Biology: NWIPB OpenIR (Chinese Academy of Sciences)
op_collection_id ftchinacascnwipb
language unknown
topic air temperature
climate warming
elevation
latitude zone
Tibetan Plateau
spellingShingle air temperature
climate warming
elevation
latitude zone
Tibetan Plateau
Du, Mingyuan
Liu, Jingshi
Li, Yingnian
Zhang, Fawei
Zhao, Liang
Niu, Ben
He, Yongtao
Zhang, Xianzhou
Yonemura, Seiichiro
Tang, Yanhong
Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau?
topic_facet air temperature
climate warming
elevation
latitude zone
Tibetan Plateau
description We have conducted 12-year field observations along two slopes with altitude differences about 1,200 m (3,250 m to 4,400 m and 4,280 m to 5,538 m) to examine the altitudinal dependence of climate warming in recent years. Annual mean of air temperature during 1951-2014 of 65 meteorological stations on the TP are used to analyze the relationship between elevation and climate warming. We divided the TP into three latitude zones: <30 degrees N, 30 degrees N-35 degrees N and >35 degrees N. We find that climate warming rates decreased significantly with elevation increasing in the three latitude zones. Our 12-year intensive field observations data show a similar result. Therefore, higher altitudes are likely to warm slower on the Tibetan Plateau. In addition to the latitudinal effect, it is perhaps largely contributed by the local environmental changes such as urbanization, land cove changes at lower populated elevation area, and/or the glacier and permafrost melting at high mountains.
format Report
author Du, Mingyuan
Liu, Jingshi
Li, Yingnian
Zhang, Fawei
Zhao, Liang
Niu, Ben
He, Yongtao
Zhang, Xianzhou
Yonemura, Seiichiro
Tang, Yanhong
author_facet Du, Mingyuan
Liu, Jingshi
Li, Yingnian
Zhang, Fawei
Zhao, Liang
Niu, Ben
He, Yongtao
Zhang, Xianzhou
Yonemura, Seiichiro
Tang, Yanhong
author_sort Du, Mingyuan
title Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau?
title_short Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau?
title_full Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau?
title_fullStr Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau?
title_full_unstemmed Are high altitudinal regions warming faster than lower elevations on the Tibetan Plateau?
title_sort are high altitudinal regions warming faster than lower elevations on the tibetan plateau?
publishDate 2019
url http://210.75.249.4/handle/363003/59890
genre permafrost
genre_facet permafrost
op_relation INTERNATIONAL JOURNAL OF GLOBAL WARMING
http://210.75.249.4/handle/363003/59890
op_rights null
_version_ 1766166257246142464