Role of sea ice in air-sea exchange and its relation to sea fog

被引:4
|
作者
解思梅
包澄澜
姜德中
机构
基金
美国国家科学基金会;
关键词
Arctic sea ice; ice-air-sea interaction; sea-air exchange; Arctic sea fog;
D O I
暂无
中图分类号
P731.15 [海冰];
学科分类号
0707 ;
摘要
Synchronous or quasi-synchronous stereoscopic sea-ice-air comprehensive observation was conducted during the First China Arctic Expedition in summer of 1999. Based on these data, the role of sea ice in sea-air exchange was studied. The study shows that the kinds, distribution and thickness of sea ice and their variation significantly influence the air-sea heat exchange. In floating ice area, the heat momentum transferred from ocean to atmosphere is in form of latent heat; latent heat flux is closely related to floating ice concentration; if floating ice is less, the heat flux would be larger. Latent heat flux is about 21 23 6 W·m -2, which is greater than sensible heat flux. On ice field or giant floating ice, heat momentum transferred from atmosphere to sea ice or snow surface is in form of sensible heat. In the floating ice area or polynya, sea-air exchange is the most active, and also the most sensible for climate. Also this area is the most important condition for the creation of Arctic vapor fog. The heat exchange of a large-scale vapor fog process of about 500000 km 2 on Aug. 21 22,1999 was calculated; the heat momentum transferred from ocean to air was about 14 8×10 9 kW. There are various kinds of sea fog, radiation fog, vapor fog and advection fog, forming in the Arctic Ocean in summer. One important cause is the existence of sea ice and its resultant complexity of both underlying surface and sea-air exchange.
引用
收藏
页码:119 / 132
页数:14
相关论文
共 50 条
  • [21] Link between anomalously cold winters in Russia and sea-ice decline in the Barents Sea
    Semenov, V. A.
    IZVESTIYA ATMOSPHERIC AND OCEANIC PHYSICS, 2016, 52 (03) : 225 - 233
  • [22] A Synthesis of Observations and Models to Assess the Time Series of Sea Ice Mass Balance in the Beaufort Sea
    Planck, Cameron J.
    Perovich, Donald K.
    Light, Bonnie
    JOURNAL OF GEOPHYSICAL RESEARCH-OCEANS, 2020, 125 (11)
  • [23] Simulations and Projections of Winter Sea Ice in the Barents Sea by CMIP6 Climate Models
    Rongrong Pan
    Qi Shu
    Zhenya Song
    Shizhu Wang
    Yan He
    Fangli Qiao
    Advances in Atmospheric Sciences, 2023, 40 : 2318 - 2330
  • [24] Impact of early spring sea ice in Barents Sea on midsummer rainfall distribution at Northeast China
    Tingting Han
    Minghua Zhang
    Jiawen Zhu
    Botao Zhou
    Shangfeng Li
    Climate Dynamics, 2021, 57 : 1023 - 1037
  • [25] Simulations and Projections of Winter Sea Ice in the Barents Sea by CMIP6 Climate Models
    Pan, Rongrong
    Shu, Qi
    Song, Zhenya
    Wang, Shizhu
    He, Yan
    Qiao, Fangli
    ADVANCES IN ATMOSPHERIC SCIENCES, 2023, 40 (12) : 2318 - 2330
  • [26] Impact of early spring sea ice in Barents Sea on midsummer rainfall distribution at Northeast China
    Han, Tingting
    Zhang, Minghua
    Zhu, Jiawen
    Zhou, Botao
    Li, Shangfeng
    CLIMATE DYNAMICS, 2021, 57 (3-4) : 1023 - 1037
  • [27] The Arctic sea ice-cloud radiative negative feedback in the Barents and Kara Sea region
    Fu, Yunhao
    Liu, Peng
    Tang, Mingyue
    THEORETICAL AND APPLIED CLIMATOLOGY, 2022, 150 (1-2) : 1 - 11
  • [28] Strengthened relationship between sea ice in East Siberian Sea and midsummer rainfall in Northeast China
    Tingting Han
    Guowa Tang
    Botao Zhou
    Xin Hao
    Shangfeng Li
    Climate Dynamics, 2023, 60 : 3749 - 3763
  • [29] Link between anomalously cold winters in Russia and sea-ice decline in the Barents Sea
    V. A. Semenov
    Izvestiya, Atmospheric and Oceanic Physics, 2016, 52 : 225 - 233
  • [30] Role of Arctic Sea Ice in the 2014-2015 Eurasian Warm Winter
    Xie, Jinbo
    Zhang, Minghua
    Liu, Hailong
    GEOPHYSICAL RESEARCH LETTERS, 2019, 46 (01) : 337 - 345