“一带一路”区域冰冻圈变化及其对水资源的影响

doi:10.11867/j.issn.1001-8166.2020.002

地球科学进展 ›› 2020, Vol. 35 ›› Issue (1): 1 -17. doi: 10.11867/j.issn.1001-8166.2020.002

所属专题： “一带一路”绿色发展研究；

综述与评述下一篇

“一带一路”区域冰冻圈变化及其对水资源的影响

康世昌 ^1, ^2, ³(

),郭万钦 ¹,吴通华 ¹,钟歆玥 ⁴(

),陈仁升 ⁵,许民 ¹,陈金雷 ¹,杨瑞敏 ⁶

^1.中国科学院西北生态环境资源研究院冰冻圈科学国家重点实验室，甘肃兰州 730000
^2.中国科学院青藏高原地球科学卓越创新中心，北京 100101
^3.中国科学院大学，北京 100049
^4.中国科学院西北生态环境资源研究院甘肃省遥感重点实验室，甘肃兰州 730000
^5.中国科学院西北生态环境资源研究院内陆河流域生态水文重点实验室黑河上游生态—水文试验研究站，甘肃兰州 730000
^6.兰州大学资源环境学院，甘肃兰州 730000

收稿日期:2019-11-12 修回日期:2019-12-15 出版日期:2020-01-20
通讯作者: 钟歆玥 E-mail:shichang.kang@lzb.ac.cn;xyzhong@lzb.ac.cn
基金资助:
国家自然科学基金创新研究群体项目“冰冻圈与全球变化“(41721091);中国科学院前沿科学重点研究项目“北极冰冻圈变化与可持续发展”(QYZDY-SSW-DQC021)

Cryospheric Changes and Their Impacts on Water Resources in the Belt and Road Regions

Shichang Kang ^1, ^2, ³( ),Wanqin Guo ¹,Tonghua Wu ¹,Xinyue Zhong ⁴( ),Rensheng Chen ⁵,Min Xu ¹,Jinlei Chen ¹,Ruimin Yang ⁶

^1.State Key Laboratory of Cryospheric Science，Northwest Institute of Eco-Environment and Resources，Chinese Academy of Sciences，Lanzhou 730000，China
^2.Center for Excellence in Tibetan Plateau Earth;Sciences，Chinese Academy of Sciences，Beijing 100101，China
^3.University of Chinese Academy of Sciences，Beijing 100049，China
^4.Key Laboratory of Remote Sensing of Gansu Province，Northwest Institute of Eco-;Environment and Resources，Chinese Academy of Sciences，Lanzhou 730000，China
^5.Qilian Alpine Ecology;and Hydrology Research Station，Key Laboratory of Ecohydrology of Inland River Basin，Northwest;Institute of Eco-Environment and Resources，Chinese Academy of Sciences，Lanzhou 730000，China
^6.College of Earth and Environmental Science，Lanzhou University，Lanzhou 730000，China

Received:2019-11-12 Revised:2019-12-15 Online:2020-01-20 Published:2020-02-27
Contact: Xinyue Zhong E-mail:shichang.kang@lzb.ac.cn;xyzhong@lzb.ac.cn
About author:Kang Shichang (1969-), male, Longxi County, Gansu Province, Professor. Research areas include cryosphere and climate change. E-mail: shichang.kang@lzb.ac.cn
Supported by:
the Innovative Research Groups of the National Natural Science Foundation of China "Cryosphere and climate change"(41721091);The Frontier Science Key Project of Chinese Academy of Sciences "Cryospheric changes and sustainable development in the Arctic"(QYZDY-SSW-DQC021)

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“一带一路”区域横跨亚洲、欧洲和非洲东部、北部，空间范围大。在全球气候变暖背景下，“一带一路”区域的冰冻圈正在发生快速变化，将对区域水资源、生态系统、北极航道等带来深刻影响。综述了近几十年来“一带一路”沿线和周边区域（包括亚洲、欧洲、北极和非洲等）冰冻圈要素（包括冰川、多年冻土、积雪、海冰、河冰和湖冰）的变化及其对水资源的影响，主要认知为： $①$ 绝大部分冰川面积萎缩、冰川物质平衡处于亏损状态，但存在区域差异； $②$ 多年冻土温度升高，冻土分布下限上升，活动层厚度增大，多年冻土整体处于退化状态； $③$ 积雪范围明显缩减、积雪深度总体呈增加趋势，积雪期缩短，即积雪首日延后、消融期提前，但变化存在显著区域差异； $④$ 北极夏季海冰范围快速减少、厚度减薄，多年冰减少，反映了海冰的快速萎缩，河/湖冰初冰日延后、消融日提前、冰封期缩短； $⑤$ 中国冰川融水径流显著增加，积雪融水和多年冻土退化也在不同程度上增加了流域径流，反映出冰冻圈变化对径流的重要影响。“一带一路”区域冰冻圈萎缩的现状及其对水资源的影响分析，将为应对气候变化和区域可持续发展提供重要科学支撑。

关键词: 一带一路, 冰冻圈变化, 水资源

“Belt and Road” regions include Asia, Europe and eastern and northern Africa, with a wide spatial distribution. The cryosphere is undergoing rapid changes in the Belt and Road regions with global warming, and has an important impact on water resources, ecosystems and Arctic waterways in these regions. This article reviewed recent cryospheric changes and associated impacts on water resources in the Belt and Road regions during the last decades. The main cognitions are as follows: $①$ Most glaciers are shrinking and glacier mass balances are most negative, but there are regional differences in the changes of glaciers. $②$ Global temperature rise has resulted in permafrost degradation, including a rise in permafrost temperature and decreasing permafrost thickness as well as an increase in active layer thickness. $③$ There is a significant decrease in snow cover extent and an increase in snow depth. Snow cover duration has shortened, the onset of snow cover has delayed, and the end of snow cover has advanced. However, there are still obvious regional differences in the changes of snow cover. $④$ Arctic sea ice has declined precipitously in both extent and thickness in summer, and multi-year sea ice has decreased，indicating the precipitous retreat of sea ice. The freeze-up date of some lakes has been delayed, the break-up date has advanced, and the ice cover duration of river/lake ice has significantly shortened. $⑤$ Glacial runoff has increased significantly in China. Snowmelt and permafrost degradation have also increased the basin runoff, which indicates the important impact of cryospheric changes on runoff. This study will provide a baseline and important scientific support for addressing climate change and regional sustainable development.

Key words: The Belt and Road, Cryospheric changes, Water resource

中图分类号:

P343.6

图1 “一带一路”涵盖区冰川分布图（图中数字为RGI分区编号）

Fig.1 Glacier distribution in the Belt and Road areas （the numbers in the figure are RGI partition numbers）

图2 欧亚大陆冰川变化空间分布特征（1975—2005年）

Fig.2 Spatial distribution of variations in glacier in Eurasia from 1975 to 2005

表1 欧亚大陆冰川年均物质平衡特征

Table 1 Annual mean glacier mass balances in Eurasia

RGI分区	地名	时段	年均冰川物质平衡/（m w.e./a）	RGI分区	地名	时段	年均冰川物质平衡/（m w.e./a）
7-1	北斯瓦尔巴德Vestfonna冰帽	1980—2010年	+0.09±0.15	13-2	西帕米尔高原	2000—2011年	+0.14±0.13
	中斯瓦尔巴德迪克森地	1990—2009年	-0.78±0.21	13-3	伊利切克冰川	1975—2007年	-0.39±0.10
	东斯瓦尔巴德埃季岛	1970—2002年	-0.50±0.02	13-4	乌鲁木齐河源1号冰川	1962—2009年	-0.44±0.09
	斯瓦尔巴德群岛整体	1965—2007年	-0.36±0.02	13-7	祁连山团结峰	1966—1999年	-0.21±0.04
	斯瓦尔巴德群岛整体	2003—2008年	-0.12±0.40	13-8	念青唐古拉山西段	2000—2014年	-0.27±0.13
8-1	斯瓦提森冰帽西部	1985—2002年	-0.12±0.09	14-1	兴都库什山	2003—2008年	-0.21±0.07
9-1	法兰士约瑟夫地群岛	2003—2009年	-0.07±0.06	14-2	喀喇昆仑山	1999—2008年	+0.11±0.22
9-2	新地岛	2003—2009年	-0.34±0.05	14-2	喀喇昆仑山	2003—2008年	-0.07±0.04
9-3	北地群岛	2003—2009年	-0.06±0.05	14-3	印度河源北部	1999—2011年	-0.44±0.09
10-1	IGAN和奥布鲁切夫冰川	1963—2008年	-0.30±0.06		查谟克什米尔	2003—2008年	-0.66±0.09
10-4	中国阿尔泰山	1959—2008年	-0.43±0.03	15-1	喜马拉雅山中段	2003—2008年	-0.38±0.06
11-1	意大利阿尔卑斯东部	1987—2009年	-0.69±0.12	15-2	喜马拉雅山东段	2003—2008年	-0.38±0.09
11-1	瑞士阿尔卑斯	1985—1999年	-0.77±0.14	15-3	岗日嘎布地区	1980—2014年	-0.46±0.08

表1 欧亚大陆冰川年均物质平衡特征

Table 1 Annual mean glacier mass balances in Eurasia

RGI分区	地名	时段	年均冰川物质平衡/（m w.e./a）	RGI分区	地名	时段	年均冰川物质平衡/（m w.e./a）
7-1	北斯瓦尔巴德Vestfonna冰帽	1980—2010年	+0.09±0.15	13-2	西帕米尔高原	2000—2011年	+0.14±0.13
	中斯瓦尔巴德迪克森地	1990—2009年	-0.78±0.21	13-3	伊利切克冰川	1975—2007年	-0.39±0.10
	东斯瓦尔巴德埃季岛	1970—2002年	-0.50±0.02	13-4	乌鲁木齐河源1号冰川	1962—2009年	-0.44±0.09
	斯瓦尔巴德群岛整体	1965—2007年	-0.36±0.02	13-7	祁连山团结峰	1966—1999年	-0.21±0.04
	斯瓦尔巴德群岛整体	2003—2008年	-0.12±0.40	13-8	念青唐古拉山西段	2000—2014年	-0.27±0.13
8-1	斯瓦提森冰帽西部	1985—2002年	-0.12±0.09	14-1	兴都库什山	2003—2008年	-0.21±0.07
9-1	法兰士约瑟夫地群岛	2003—2009年	-0.07±0.06	14-2	喀喇昆仑山	1999—2008年	+0.11±0.22
9-2	新地岛	2003—2009年	-0.34±0.05	14-2	喀喇昆仑山	2003—2008年	-0.07±0.04
9-3	北地群岛	2003—2009年	-0.06±0.05	14-3	印度河源北部	1999—2011年	-0.44±0.09
10-1	IGAN和奥布鲁切夫冰川	1963—2008年	-0.30±0.06		查谟克什米尔	2003—2008年	-0.66±0.09
10-4	中国阿尔泰山	1959—2008年	-0.43±0.03	15-1	喜马拉雅山中段	2003—2008年	-0.38±0.06
11-1	意大利阿尔卑斯东部	1987—2009年	-0.69±0.12	15-2	喜马拉雅山东段	2003—2008年	-0.38±0.09
11-1	瑞士阿尔卑斯	1985—1999年	-0.77±0.14	15-3	岗日嘎布地区	1980—2014年	-0.46±0.08

表2 全球多年冻土主要分布区域和面积 ^{[

51
]}

Table 2 Distribution and areas of permafrost over the world ^{[

51
]}

序号	国家/地区	多年冻土区域面积/( $×$ 10³ km²)	多年冻土面积/( $×$ 10³ km²)
1	俄罗斯	10 968(9 619~12 006)	6 966~9 541
2	加拿大	6 031(5 238~6 695)	3 637~4 978
3	中国	2 056(1 457~2 463)	673~1 676
4	美国	1 132(902~1 242)	530~877
5	蒙古	530(357~758)	165~394
6	格陵兰	297(282~303)	226~276
7	挪威	84(35~127)	25~65
8	吉尔吉斯斯坦	72(47~88)	19.6~54
9	瑞典	59(11.3~123)	4.7~43
10	印度	58(21~88)	7.8~65
11	塔吉克斯坦	54(30~62)	11.6~48
12	巴基斯坦	40(12.2~60)	4.4~43
13	哈萨克斯坦	39(27~49)	12.2~27
14	芬兰	34(0.9~97)	2.6~23
15	阿根廷	30(9.1~76)	3.5~33
16	阿富汗	27(12.4~40.8)	4.4~26
17	尼泊尔	15.7(10.5~19.5)	4.5~12.4
18	智利	14.0(3.5~37)	1.4~15.2
19	意大利	5.1(2.6~8.4)	0.8~3.2
20	朝鲜	4.7(0.7~12.5)	0.3~4.1
21	格鲁吉亚	4.7(2.4~7.6)	0.8~3.2
22	瑞士	4.5(2.3~6.6)	0.7~2.5
23	澳大利亚	3.6(1.7~6.3)	0.5~2.3
24	不丹	3.1(0.8~6.4)	0.3~3.2
25	乌兹别克斯坦	2.8(1.8~3.7)	0.6~1.8

表2 全球多年冻土主要分布区域和面积 ^{[

51
]}

Table 2 Distribution and areas of permafrost over the world ^{[

51
]}

序号	国家/地区	多年冻土区域面积/( $×$ 10³ km²)	多年冻土面积/( $×$ 10³ km²)
1	俄罗斯	10 968(9 619~12 006)	6 966~9 541
2	加拿大	6 031(5 238~6 695)	3 637~4 978
3	中国	2 056(1 457~2 463)	673~1 676
4	美国	1 132(902~1 242)	530~877
5	蒙古	530(357~758)	165~394
6	格陵兰	297(282~303)	226~276
7	挪威	84(35~127)	25~65
8	吉尔吉斯斯坦	72(47~88)	19.6~54
9	瑞典	59(11.3~123)	4.7~43
10	印度	58(21~88)	7.8~65
11	塔吉克斯坦	54(30~62)	11.6~48
12	巴基斯坦	40(12.2~60)	4.4~43
13	哈萨克斯坦	39(27~49)	12.2~27
14	芬兰	34(0.9~97)	2.6~23
15	阿根廷	30(9.1~76)	3.5~33
16	阿富汗	27(12.4~40.8)	4.4~26
17	尼泊尔	15.7(10.5~19.5)	4.5~12.4
18	智利	14.0(3.5~37)	1.4~15.2
19	意大利	5.1(2.6~8.4)	0.8~3.2
20	朝鲜	4.7(0.7~12.5)	0.3~4.1
21	格鲁吉亚	4.7(2.4~7.6)	0.8~3.2
22	瑞士	4.5(2.3~6.6)	0.7~2.5
23	澳大利亚	3.6(1.7~6.3)	0.5~2.3
24	不丹	3.1(0.8~6.4)	0.3~3.2
25	乌兹别克斯坦	2.8(1.8~3.7)	0.6~1.8

表3 多年冻土变化

Table 3 Variations of permafrost over the world

区域	地温变化	时段	活动层厚度变化	时段
青藏高原地区	0.017 ℃/a	1961—2000年	1.33 m/a	1990—2010年
昆仑山	0.0335 ℃/a	1996—2001年	0.295 m/a	1996—2001年
五道梁	0.007 ℃/a	1996—2001年	0.22 m/a	1996—2001年
北麓河	0.02 ℃/a	2005—2014年	0.42 m/a	2005—2014年
风火山	0.037 ℃/a	1996—2001年	0.34 m/a	1996—2001年
沱沱河	0.079 ℃/a	1980—2007年
唐古拉	0.017 ℃/a	1980—2007年	3.53 cm/a	1980—2007年
安多	0.062 ℃/a	1980—2007年
Corvatsch-Furtschellas	升高1.0 ℃	1988—1994年
Schilthorn			0.63~1.13 m/a	1999—2006年
挪威南部			0.03~0.33 m/10a	1860—2012年
Janssonhaugen			0.18 m/a	2005—2006年
Svalbard			0.26 m/a	2005—2006年
意大利地区	0.01~0.10 ℃/a	2007—2013年
俄罗斯	0.5~2.0 ℃/a	1970—2009年	0.57 cm/a	1956—1990年
俄罗斯北极	升高3 ℃	1955—2000年
东西伯利亚	0.065~0.59 ℃/a	1956—1990年	0.3~1.0 cm/a	1950—2008年
西西伯利亚北部	0.01~0.07 ℃/a	1996—1999年

表3 多年冻土变化

Table 3 Variations of permafrost over the world

区域	地温变化	时段	活动层厚度变化	时段
青藏高原地区	0.017 ℃/a	1961—2000年	1.33 m/a	1990—2010年
昆仑山	0.0335 ℃/a	1996—2001年	0.295 m/a	1996—2001年
五道梁	0.007 ℃/a	1996—2001年	0.22 m/a	1996—2001年
北麓河	0.02 ℃/a	2005—2014年	0.42 m/a	2005—2014年
风火山	0.037 ℃/a	1996—2001年	0.34 m/a	1996—2001年
沱沱河	0.079 ℃/a	1980—2007年
唐古拉	0.017 ℃/a	1980—2007年	3.53 cm/a	1980—2007年
安多	0.062 ℃/a	1980—2007年
Corvatsch-Furtschellas	升高1.0 ℃	1988—1994年
Schilthorn			0.63~1.13 m/a	1999—2006年
挪威南部			0.03~0.33 m/10a	1860—2012年
Janssonhaugen			0.18 m/a	2005—2006年
Svalbard			0.26 m/a	2005—2006年
意大利地区	0.01~0.10 ℃/a	2007—2013年
俄罗斯	0.5~2.0 ℃/a	1970—2009年	0.57 cm/a	1956—1990年
俄罗斯北极	升高3 ℃	1955—2000年
东西伯利亚	0.065~0.59 ℃/a	1956—1990年	0.3~1.0 cm/a	1950—2008年
西西伯利亚北部	0.01~0.07 ℃/a	1996—1999年

图3 欧亚大陆和北极年平均雪深（a）和最大雪深（b）年际变化^{[

82
]}

Fig.3 Interannual variations of mean snow depth (a) and maximum snow depth (b) in Eurasia and Arctic^{[

82
]}

图4 1979—2019年北极年平均海冰范围异常（相对于1981—2010年平均）

Fig. 4 The Arctic sea ice extent anomaly in 1979-2019 (relatived to the 1981-2010 mean values)

图5 “一带一路”沿线湖冰发育的主要湖泊

Fig. 5 Lakes with ice formation in the Belt and Road areas

图6 欧亚大陆不同流域雪冰融水占总水量比例（数据来自参考文献[ 130 ]）

Fig. 6 Ratio of meltwater from snow and ice to total runoff in different watersheds over Eurasia(data from reference[ 130 ])

表4 中国西部山区冰川融水径流量 ^{[

135
]}

Table 4 Glacier runoff in mountains in western China ^{[

135
]}

山脉	冰川融水径流量/( $×$ 10⁸ m³)	占中国冰川融水径流量比重/%
祁连山	11.32	1.9
阿尔泰山	3.86	0.6
天山	96.30	15.9
帕米尔	15.35	2.5
喀喇昆仑山	38.47	6.4
昆仑山	61.87	10.2
喜马拉雅山	76.60	12.7
羌塘高原	9.29	1.5
冈底斯山	9.41	1.6
念青唐古拉山	213.27	35.3
横断山	49.94	8.3
唐古拉山	17.59	2.9
阿尔金山	1.39	0.2

表4 中国西部山区冰川融水径流量 ^{[

135
]}

Table 4 Glacier runoff in mountains in western China ^{[

135
]}

山脉	冰川融水径流量/( $×$ 10⁸ m³)	占中国冰川融水径流量比重/%
祁连山	11.32	1.9
阿尔泰山	3.86	0.6
天山	96.30	15.9
帕米尔	15.35	2.5
喀喇昆仑山	38.47	6.4
昆仑山	61.87	10.2
喜马拉雅山	76.60	12.7
羌塘高原	9.29	1.5
冈底斯山	9.41	1.6
念青唐古拉山	213.27	35.3
横断山	49.94	8.3
唐古拉山	17.59	2.9
阿尔金山	1.39	0.2

表5 中国典型流域冰川径流量 ^{[

134
,

136
]}

Table 5 Glacier runoff in typical watersheds in China ^{[

134
,

136
]}

流域	冰川融水径流量/( $×$ 10⁸ m³)	冰川融水占流域径流比重/%
河西水系	11.94	16.5
准格尔盆地	33.65	26.9
伊犁河	37.14	19.2
塔里木盆地	126.50	38.5
柴达木盆地	13.51	28.4
哈拉湖	0.11	3.4
羌塘高原	29.18	11.9
长江	15.52	8.8
黄河	1.74	0.8
额尔齐斯河	7.73	7.7
澜沧江	4.43	4.0
怒江	24.26	5.9

表5 中国典型流域冰川径流量 ^{[

134
,

136
]}

Table 5 Glacier runoff in typical watersheds in China ^{[

134
,

136
]}

流域	冰川融水径流量/( $×$ 10⁸ m³)	冰川融水占流域径流比重/%
河西水系	11.94	16.5
准格尔盆地	33.65	26.9
伊犁河	37.14	19.2
塔里木盆地	126.50	38.5
柴达木盆地	13.51	28.4
哈拉湖	0.11	3.4
羌塘高原	29.18	11.9
长江	15.52	8.8
黄河	1.74	0.8
额尔齐斯河	7.73	7.7
澜沧江	4.43	4.0
怒江	24.26	5.9

表6 中国西部冰川融水变化 ^{[

134
,

136
,

138
]} 单位：×10 ⁸ m ³

Table 6 Variations of glacier melt in western China ^{[

134
,

136
,

138
]} 单位：×10 ⁸ m ³

流域水系	1961—1970年	1971—1980年	1981—1990年	1991—2000年	2001—2006年
总计	517.65	590.87	615.16	695.48	794.67
印度河	5.36	7.39	7.96	10.76	12.58
恒河	260.16	298.02	312.22	341.06	379.41
怒江	23.45	24.60	25.43	29.54	35.70
澜沧江	3.83	3.96	4.07	4.52	5.30
黄河	1.75	1.82	1.77	1.91	2.19
长江	17.04	18.75	18.68	22.54	28.47
额尔齐斯河	3.23	3.33	3.32	3.50	3.63
外流水系合计	314.83	357.87	373.45	413.83	467.27
塔里木盆地	121.05	136.73	139.26	157.85	180.39
哈拉湖	0.11	0.12	0.13	0.15	0.16
甘肃河西内陆河	8.12	9.06	9.12	11.67	14.76
柴达木盆地	7.36	8.23	8.62	11.45	14.52
天山准噶尔盆地	17.92	18.81	18.65	20.76	22.73
吐—哈盆地	2.39	2.36	2.40	2.59	3.12
新疆伊犁河	21.16	22.55	22.86	24.79	26.91
青藏高原内流区	24.73	35.13	40.68	52.38	64.81
内流水系合计	202.82	233.00	241.71	281.64	327.40

表6 中国西部冰川融水变化 ^{[

134
,

136
,

138
]} 单位：×10 ⁸ m ³

Table 6 Variations of glacier melt in western China ^{[

134
,

136
,

138
]} 单位：×10 ⁸ m ³

流域水系	1961—1970年	1971—1980年	1981—1990年	1991—2000年	2001—2006年
总计	517.65	590.87	615.16	695.48	794.67
印度河	5.36	7.39	7.96	10.76	12.58
恒河	260.16	298.02	312.22	341.06	379.41
怒江	23.45	24.60	25.43	29.54	35.70
澜沧江	3.83	3.96	4.07	4.52	5.30
黄河	1.75	1.82	1.77	1.91	2.19
长江	17.04	18.75	18.68	22.54	28.47
额尔齐斯河	3.23	3.33	3.32	3.50	3.63
外流水系合计	314.83	357.87	373.45	413.83	467.27
塔里木盆地	121.05	136.73	139.26	157.85	180.39
哈拉湖	0.11	0.12	0.13	0.15	0.16
甘肃河西内陆河	8.12	9.06	9.12	11.67	14.76
柴达木盆地	7.36	8.23	8.62	11.45	14.52
天山准噶尔盆地	17.92	18.81	18.65	20.76	22.73
吐—哈盆地	2.39	2.36	2.40	2.59	3.12
新疆伊犁河	21.16	22.55	22.86	24.79	26.91
青藏高原内流区	24.73	35.13	40.68	52.38	64.81
内流水系合计	202.82	233.00	241.71	281.64	327.40

1	Qin Dahe. An Introduction to Cryosphere Science [M]. Beijing: Science Press, 2017.
	秦大河. 冰冻圈科学概论[M]. 北京: 科学出版社, 2017.
2	Editing Commission of the Third National Report on Climate Change of China. The Third National Report on Climate Change of China [M]. Beijing: Science Press, 2015.
	《第三次气候变化国家评估报告》编写委员会. 第三次气候变化国家评估报告[M]. 北京: 科学出版社, 2015.
3	Consortium R. Randolph Glacier Inventory—A Dataset of Global Glacier Outlines: Version 6.0[R]. Technical Report, Global Land Ice Measurements from Space, Colorado, USA, 2017.
4	Paul F, K??b A, Maisch M, et al. Rapid disintegration of Alpine glaciers observed with satellite data [J]. Geophysical Research Letters, 2004, 31(21). DOI:10.1029/2004GL020816. doi: 10.1029/2004GL020816
5	Lambrecht A, Kuhn M. Glacier changes in the Austrian Alps during the last three decades, derived from the New Austrian Glacier Inventory [J]. International Glaciological Society, 2007, 46(1): 177-184.
6	Paul F, Andreassen L M, Winsvold S H. A new glacier inventory for the Jostedalsbreen region, Norway, from Landsat TM scenes of 2006 and changes since 1966 [J]. Annals of Glaciology, 2011, 52(59): 153-162.
7	Tielidze L G. Glacier change over the last century, Caucasus Mountains, Georgia, observed from old topographical maps, Landsat and ASTER satellite imagery[J]. The Cryosphere, 2016, 10(2): 713-725.
8	Lynch C M, Barr I D, Mullan D, et al. Rapid glacial retreat on the Kamchatka Peninsula during the early 21st century [J]. Cryosphere, 2016, 10(4): 1 809-1 821.
9	Paul F, Frey H, Le Bris R. A new glacier inventory for the European Alps from Landsat TM scenes of 2003: Challenges and results [J]. Annals of Glaciology, 2011, 52(59): 144-152.
10	Kaab A. Glacier volume changes using ASTER satellite stereo and ICESat GLAS laser altimetry: A test study on Edge?ya, Eastern Svalbard [J]. IEEE Transactions on Geoscience and Remote Sensing, 2008, 46: 2 823-2 830.
11	Shahgedanova M, Nosenko G, Bushueva I, et al. Changes in area and geodetic mass balance of small glaciers, Polar Urals, Russia, 1950-2008 [J]. Journal of Glaciology, 2012, 58(211): 953-964.
12	Liu S, Ding Y, Shangguan D, et al. Glacier retreat as a result of climate warming and increased precipitation in the Tarim river basin, northwest China [J]. Annals of Glaciology, 2006, 43(1): 91-96.
13	Kriegel D, Mayer C, Hagg W, et al. Changes in glacierisation, climate and runoff in the second half of the 20th century in the Naryn Basin, Central Asia [J]. Global and Planetary Change, 2013, 110: 51-61.
14	Bie Qiang, Qiang Wenli, Wang Chao, et al. Monitoring the glacier variation in the upper reaches of the Heihe River based on remote sensing in 1960-2010 [J]. Journal of Glaciology and Geocryology, 2013, 35(3): 574-582.
	别强, 强文丽, 王超, 等. 1960—2010 年黑河流域冰川变化的遥感监测 [J]. 冰川冻土, 2013, 35(3): 574-582.
15	Ye Q, Kang S, Chen F, et al. Monitoring glacier variations on Geladandong mountain, central Tibetan Plateau, from 1969 to 2002 using remote-sensing and GIS technologies [J]. Journal of Glaciology, 2006, 52(179): 537-545.
16	Liu S, Shangguan D, Ding Y, et al. Glacier changes during the past century in the Gangrigabu mountains, southeast Qinghai-Xizang (Tibetan) Plateau, China [J]. Annals of Glaciology, 2006, 43(1): 187-193.
17	Li B, Zhu A-X, Zhang Y, et al. Glacier change over the past four decades in the middle Chinese Tien Shan [J]. Journal of Glaciology, 2006, 52(178): 425-432.
18	Aizen V, Aizen E, Glazirin G, et al. Simulation of daily runoff in Central Asian alpine watersheds [J]. Journal of Hydrology, 2000, 238(1/2): 15-34.
19	Hagg W, Hoelzle M, Wagner S, et al. Glacier and runoff changes in the Rukhk catchment, upper Amu-Darya Basin until 2050 [J]. Global and Planetary Change, 2013, 110: 62-73.
20	Ye Q, Yao T, Kang S, et al. Glacier variations in the Naimona’nyi region, western Himalaya, in the last three decades [J]. Annals of Glaciology, 2006, 43(1): 385-389.
21	Wu Y, Zhu L. The response of lake-glacier variations to climate change in Nam Co Catchment, central Tibetan Plateau, during 1970-2000 [J]. Journal of Geographical Sciences, 2008, 18(2): 177-189.
22	Wang Y, Hou S, Liu Y. Glacier changes in the Karlik Shan, eastern Tien Shan, during 1971/72-2001/02 [J]. Annals of Glaciology, 2009, 50(53): 39-45.
23	Niederer P, Bilenko V, Ershova N, et al. Tracing glacier wastage in the Northern Tien Shan (Kyrgyzstan/Central Asia) over the last 40 years [J]. Climatic Change, 2008, 86(1): 227-234.
24	Shahgedanova M, Nosenko G, Khromova T, et al. Glacier shrinkage and climatic change in the Russian Altai from the mid‐20th century: An assessment using remote sensing and PRECIS regional climate model [J]. Journal of Geophysical Research: Atmospheres, 2010, 115（D6）. DOI:10.1029/2009JD012976. doi: 10.1029/2009JD012976
25	Moelg T, Cullen N J, Hardy D R, et al. East African glacier loss and climate change: Corrections to the UNEP article “Africa without ice and snow” [J]. Environmental Development, 2013, 6(1): 1-6.
26	Klein A G, Kincaid J L. Retreat of glaciers on Puncak Jaya, Irian Jaya, determined from 2000 and 2002 IKONOS satellite images [J]. Journal of Glaciology, 2006, 52: 65-79.
27	Mackintosh A N, Anderson B M, Lorrey A M, et al. Regional cooling caused recent New Zealand glacier advances in a period of global warming [J]. Nature Communications, 2017, 8: 14 202.
28	Kotlyakov V, Osipova G, Tsvetkov D. Monitoring surging glaciers of the Pamirs, central Asia, from space [J]. Annals of Glaciology, 2008, 48(1): 125-134.
29	Yao T, Thompson L, Yang W, et al. Different glacier status with atmospheric circulations in Tibetan Plateau and surroundings [J]. Nature Climate Change, 2012, 2(9): 663.
30	Quincey D J, Glasser N F, Cook S J, et al. Heterogeneity in Karakoram glacier surges [J]. Journal of Geophysical Research: Earth Surface, 2015, 120(7): 1 288-1 300.
31	Yasuda T, Furuya M. Dynamics of surge‐type glaciers in West Kunlun Shan, Northwestern Tibet [J]. Journal of Geophysical Research: Earth Surface, 2015, 120(7): 2 393-2 405.
32	Harrison W D, Post A S. How much do we really know about glacier surging?[J]. Annals of Glaciology, 2003, 36: 1-6.
33	Gardelle J, Berthier E, Arnaud Y, et al. Region-wide glacier mass balances over the Pamir-Karakoram-Himalaya during 1999-2011 [J]. The Cryosphere, 2013, 7: 1 885-1 886.
34	Lang C, Fettweis X, Erpicum M. Stable climate and surface mass balance in Svalbard over 1979-2013 despite the Arctic warming [J]. The Cryosphere, 2015, 9: 83-101.
35	Carturan L, Filippi R, Seppi R, et al. Area and volume loss of the glaciers in the Ortles-Cevedale group (Eastern Italian Alps): Controls and imbalance of the remaining glaciers [J]. The Cryosphere, 2013, 7: 1 339-1 359.
36	Paul F, Haeberli W. Spatial variability of glacier elevation changes in the Swiss Alps obtained from two digital elevation models [J]. Geophysical Research Letters, 2008, 35(2). DOI:10.1029/2008GL034718. doi: 10.1029/2008GL034718
37	K??b A, Berthier E, Nuth C, et al. Contrasting patterns of early twenty-first-century glacier mass change in the Himalayas [J]. Nature, 2012, 488(7 412): 495.
38	Wang P, Li Z, Li H, et al. Comparison of glaciological and geodetic mass balance at Urumqi Glacier No. 1, Tian Shan, central Asia [J]. Global and Planetary Change, 2014, 114: 14-22.
39	Shangguan D, Bolch T, Ding Y, et al. Mass changes of Southern and Northern Inylchek Glacier, Central Tian Shan, Kyrgyzstan, during ～1975 and 2007 derived from remote sensing data [J]. The Cryosphere, 2015, 9: 703-717.
40	Wei J F, Liu S Y, Xu J L, et al. Mass loss from glaciers in the Chinese Altai Mountains between 1959 and 2008 revealed based on historical maps, SRTM, and ASTER images [J]. Journal of Mountain Science, 2015, 12（2）: 330-343.
41	Wu K, Liu S, Jiang Z, et al. Recent glacier mass balance and area changes in the Kangri Karpo Mountains from DEMs and glacier inventories [J]. The Cryosphere, 2018, 12: 103.
42	Haug T, Rolstad C, Elveh?y H, et al. Geodetic mass balance of the western Svartisen ice cap, Norway, in the periods 1968-1985 and 1985-2002 [J]. Annals of Glaciology, 2009, 50（50）: 119-125.
43	Li G, Lin H. Recent decadal glacier mass balances over the Western Nyainqentanglha Mountains and the increase in their melting contribution to Nam Co Lake measured by differential bistatic SAR interferometry[J]. Global and Planetary Change, 2017, 149: 177-190.
44	Xu J, Liu S, Zhang S, et al. Recent changes in glacial area and volume on Tuanjiefeng Peak Region of Qilian Mountains, China [J]. PLoS ONE, 2013, 8: e70574.
45	Gardelle J, Berthier E, Arnaud Y. Slight mass gain of Karakoram glaciers in the early twenty-first century [J]. Nature Geoscience, 2012, 5: 322.
46	M?ller M, Finkelnburg R, Braun M, et al. Variability of the climatic mass balance of Vestfonna ice cap, northeastern Svalbard,1979-2011[J]. Annals of Glaciology, 2013, 54（63）: 254-264.
47	Ma?ecki J. Elevation and volume changes of seven Dickson Land glaciers,Svalbard,1960-1990-2009 [J]. Polar Research, 2013, 32: 18 400.
48	Moholdt G, Wouters B, Gardner A S. Recent mass changes of glaciers in the Russian High Arctic [J]. Geophysical Research Letters, 2012, 39（10）. DOI:10.1029/2012GL051466. doi: 10.1029/2012GL051466
49	Cheng Guodong, Zhao Lin. The problems associated with permafrost in the development of the Qinghai-Xizhang Plateau [J]. Quaternary Sciences, 2000, 20（16）: 521-531.
	程国栋, 赵林. 青藏高原开发中的冻土问题 [J]. 第四纪研究, 2000, 20（16）: 521-531.
50	Zhao L, Marchenko S, Sharkhuu N, et al. Regional changes of permafrost in Central Asia[C]// Proceedings of the Extended Abstracts, Proceedings Ninth International Conference on Permafrost. Institute of Northern Engineering. Fairbanks: University of Alaska,2008.
51	Gruber S. Derivation and analysis of a high-resolution estimate of global permafrost zonation [J]. The Cryosphere, 2012, 6: 1 547-1 582.
52	IPCC. Climate Change 2013: The Physical Science Basis [M]. Cambridge, UK, and New York, USA: Cambridge University Press, 2013.
53	Liu X, Chen B. Climatic warming in the Tibetan Plateau during recent decades [J]. International Journal of Climatology, 2000, 20(14): 1 729-1 742.
54	Wang B, Bao Q, Hoskins B, et al. Tibetan Plateau warming and precipitation changes in East Asia [J]. Geophysical Research Letters, 2008, 35(14). DOI:10.1029/2008GL034330. doi: 10.1029/2008GL034330
55	Wu Tonghua. Study on the Response of Frozen Soil to Global Climate Change in Tibetan Plateau [D]. Beijing:Graduate School of Chinese Academy of Sciences, 2005.
	吴通华. 青藏高原冻土对全球气候变化响应研究 [D].北京：中国科学院研究生院, 2005.
56	Cheng G, Wu T. Responses of permafrost to climate change and their environmental significance, Qinghai‐Tibet Plateau [J]. Journal of Geophysical Research: Earth Surface, 2007, 112: 93-104.
57	Li Ren, Zhao Lin, Ding Yongjian, et al. Temporal and spatial variations of the active layer along the Qinghai-Tibet Highway in a permafrost region [J]. Chinese Science Bulletin, 2012, 57(30): 2 864-2 871.
	李韧, 赵林, 丁永建, 等. 青藏公路沿线多年冻土区活动层动态变化及区域差异特征 [J]. 科学通报, 2012, 57(30): 2 864-2 871.
58	Xu Xiaoming, Zhang Zhongqiang, Wu Qingbai. Simulation of permafrost changes on the Qinghaig Peak region of Qilian Mountains, China [J]. International Journal of Digital Earth, 2016, 10(5): 1-17.
59	Anisimov O, Reneva S. Permafrost and changing climate: The Russian perspective [J]. AMBIO: A Journal of the Human Environment, 2006, 35(4): 169-176.
60	Pavlov A. Current changes of climate and permafrost in the Arctic and sub‐Arctic of Russia [J]. Permafrost and Periglacial Processes, 1994, 5(2): 101-110.
61	Pavlov A, Moskalenko N. The thermal regime of soils in the north of western Siberia [J]. Permafrost and Periglacial Processes, 2002, 13(1): 43-51.
62	Isaksen K, Sollid J L, Holmlund P, et al. Recent warming of mountain permafrost in Svalbard and Scandinavia[J]. Journal of Geophysical Research: Earth Surface, 2007, 112(F2). DOI:10.1029/2006JF000522. doi: 10.1029/2006JF000522
63	Pogliotti P, Guglielmin M, Cremonese E, et al. Warming permafrost and active layer variability at Cime Bianche, Western European Alps [J]. The Cryosphere, 2015, 9: 647-661.
64	Visconti G, Beniston M, Iannorelli E D, et al. Global Change and Protected Areas [M]. Springer Press, 2001. DOI:12.100710-306-48051-4. doi: 12.100710-306-48051-4
65	Farbrot H, Etzelmüller B, Schuler T V, et al. Thermal characteristics and impact of climate change on mountain permafrost in Iceland[J]. Journal of Geophysical Research: Earth Surface, 2007, 112(F3). DOI: 10.1029/2006JF000541. doi: 10.1029/2006JF000541
66	Gisn?s K, Etzelmüller B, Lussana C, et al. Permafrost map for Norway, Sweden and Finland [J]. Permafrost and Periglacial Processes, 2017, 28: 359-378.
67	Myhra K, Westermann S, Etzelmüller B. Modelled distribution and temporal evolution of permafrost in steep rock walls along a latitudinal transect in Norway by CryoGrid 2D [J]. Permafrost and Periglacial Processes, 2017, 28: 172-182.
68	Wu Q, Zhang T. Changes in active layer thickness over the Qinghai‐Tibetan Plateau from 1995 to 2007[J]. Journal of Geophysical Research: Atmospheres, 2010, 115(D9). DOI:10.1029/2009JD012974. doi: 10.1029/2009JD012974
69	Brutsaert W, Hiyama T. The determination of permafrost thawing trends from long‐term streamflow measurements with an application in eastern Siberia[J]. Journal of Geophysical Research: Atmospheres, 2012, 117(D22). DOI:10.1029/2012JD018344. doi: 10.1029/2012JD018344
70	Frauenfeld O W, Zhang T, Barry R G, et al. Interdecadal changes in seasonal freeze and thaw depths in Russia[J]. Journal of Geophysical Research: Atmospheres, 2004, 109(D5). DOI:10.1029/2003JD004245. doi: 10.1029/2003JD004245
71	Christiansen H, Humlum O. Interannual variations in active layer thickness in Svalbard[C] //Proceedings Ninth International Conference on Permafrost, 2008.
72	Hilbich C, Hauck C, Hoelzle M, et al. Monitoring mountain permafrost evolution using electrical resistivity tomography: A 7‐year study of seasonal, annual, and long‐term variations at Schilthorn, Swiss Alps[J]. Journal of Geophysical Research: Earth Surface, 2008, 113(F1). DOI:10.1029/2007JF000799. doi: 10.1029/2007JF000799
73	Malevsky-Malevich S, Molkentin E, Nadyozhina E, et al. Numerical simulation of permafrost parameters distribution in Russia [J]. Cold Regions Science and Technology, 2001, 32(1): 1-11.
74	Sattler K, Anderson B, Mackintosh A, et al. Estimating permafrost distribution in the maritime Southern Alps, New Zealand, based on climatic conditions at rock glacier sites [J]. Frontiers in Earth Science, 2016, 4: 4.
75	Brown R D, Goodison B E. Interannual variability in reconstructed Canadian snow cover, 1915-1992 [J]. Journal of Climate, 1996, 9(6): 1 299-1 318.
76	King J C, Pomeroy J W, Gray D M, et al. Snow-Atmosphere Energy and Mass Balance [M]. Cambridge, UK: Cambridge University Press, 2008.
77	Armstrong R L, Brodzik M J. Recent Northern Hemisphere snow extent: A comparison of data derived from visible and microwave satellite sensors [J]. Geophysical Research Letters, 2001, 28(19): 3 673-3 676.
78	Robinson D A, Dewey K F, Heim Jr R R. Global snow cover monitoring: An update [J]. Bulletin of the American Meteorological Society, 1993, 74(9): 1 689-1 696.
79	Strategy I G O. Cryosphere Theme Report: For the Monitoring of Our Environment from Space and from Earth [R]. Geneva: World Meteorological Organisation, 2007.
80	Barry R, Gan T Y. The Global Cryosphere: Past, Present and Future [M]. Cambridge, UK: Cambridge University Press, 2011.
81	Parkinson C L. Earth's cryosphere: Current state and recent changes [J]. Annual Review of Environment Resources, 2006, 31: 33-60.
82	Zhong X, Zhang T, Kang S, et al. Spatiotemporal variability of snow depth across the Eurasian continent from 1966 to 2012 [J]. The Cryosphere, 2018, 12: 227-245.
83	Brown R D, Robinson D A. Northern Hemisphere spring snow cover variability and change over 1922-2010 including an assessment of uncertainty [J]. The Cryosphere, 2011, 5: 219-229.
84	AMAP. Snow，Water, Ice and Permafrost in the Arctic (SWIPA): Climate Change and the Cryosphere [R]. Oslo, Norway:Arctic Monitoring and Assessment Programme (AMAP), 2011.
85	Callaghan T V, Johansson M, Brown R D, et al. The changing face of Arctic snow cover: A synthesis of observed and projected changes [J]. Ambio, 2011, 40: 17-31.
86	Bulygina O, Razuvaev V, Korshunova N. Changes in snow cover over Northern Eurasia in the last few decades [J]. Environmental Research Letters, 2009, 4: 045026.
87	Bulygina O, Groisman P Y, Razuvaev V, et al. Changes in snow cover characteristics over Northern Eurasia since 1966 [J]. Environmental Research Letters, 2011, 6: 045204.
88	Wegmann M, Orsolini Y, Dutra E, et al. Eurasian snow depth in long-term climate reanalyses [J]. The Cryosphere, 2017, 11: 923-935.
89	Ma Lijuan, Qin Dahe. Spatial-temporal characteristics of observed key parmeters for snow cover in China during 1957-2009 [J]. Journal of Glaciology and Geocryology, 2012, 34(1): 1-11.
	马丽娟, 秦大河. 1957—2009 年中国台站观测的关键积雪参数时空变化特征 [J]. 冰川冻土, 2012, 34(1): 1-11.
90	Hernández-Henríquez M A, Déry S J, Derksen C. Polar amplification and elevation-dependence in trends of Northern Hemisphere snow cover extent, 1971-2014 [J]. Environmental Research Letters, 2015, 10: 044010.
91	Huang X, Deng J, Wang W, et al. Impact of climate and elevation on snow cover using integrated remote sensing snow products in Tibetan Plateau [J]. Remote Sensing of Environment, 2017, 190: 274-288.
92	AMAP. Snow, Water, Ice and Permafrost in the Arctic (SWIPA) [M]. Oslo, Norway: Arctic Monitoring and Assessment Programme (AMAP), 2017.
93	Huang X, Deng J, Ma X, et al. Spatiotemporal dynamics of snow cover based on multi-source remote sensing data in China [J]. The Cryosphere, 2016, 10: 2 453-2 463.
94	Shmakin A. Climatic characteristics of snow cover over North Eurasia and their change during the last decades [J]. Ice and Snow, 2010, 1: 43-57.
95	Peng S, Piao S, Ciais P, et al. Change in snow phenology and its potential feedback to temperature in the Northern Hemisphere over the last three decades [J]. Environmental Research Letters, 2013, 8（1）: 014008.
96	Shen S S, Yao R, Ngo J, et al. Characteristics of the Tibetan Plateau snow cover variations based on daily data during 1997-2011 [J]. Theoretical and Applied Climatology, 2015, 120: 445-453.
97	Bai Shuying, Shi Jianqiao, Shen Weishou, et al. Spatial and temporal variations of snow and influencing factors in Tibet Plateau based on remote sensing [J]. Remote Sensing Technology and Application, 2014, 29(6): 954-962.
	白淑英, 史建桥, 沈渭寿, 等. 卫星遥感西藏高原积雪时空变化及影响因子分析 [J]. 遥感技术与应用, 2014, 29(6): 954-962.
98	Xu W, Ma L, Ma M, et al. Spatial-temporal variability of snow cover and depth in the Qinghai-Tibetan Plateau [J]. Journal of Climate, 2017, 30: 1 521-1 533.
99	Shi Jianqiao. Spatial and Temporal Variations of Snow and Influencing Factors in Tibetan Based on Remote Sensing and GIS [D]. Nanjing:Nanjing University of Information Science & Technology, 2014.
	史建桥. 基于遥感和 GIS 的青藏高原积雪时空变化及影响因子分析 [D].南京：南京信息工程大学, 2014.
100	Chu Duo, Yang Yong, Jiancan Luobu, et al. The variations of snow cover days over the Tibetan Plateau during 1981-2010 [J]. Journal of Glaciology and Geocryology, 2015, 37(6): 1 461-1 472.
	除多, 杨勇，罗布坚参，等. 1981—2010年青藏高原积雪日数时空变化特征分析 [J]. 冰川冻土, 2015, 37(6): 1 461-1 472.
101	Xiong C, Shi J, Cui Y, et al. Snowmelt pattern over high-mountain Asia detected from active and passive microwave remote sensing [J]. IEEE Geoscience and Remote Sensing Letters, 2017, 14: 1 096-1 100.
102	Zhang Y, Kang S, Sprenger M, et al. Black carbon and mineral dust in snow cover on the Tibetan Plateau [J]. The Cryosphere, 2018, 12: 413-431.
103	Kang S, Zhang Q, Qian Y, et al. Linking atmospheric pollution to cryospheric change in the third pole region: Current progresses and future prospects [J]. National Science Review, 2019, 6(4)： 796-809.
104	Zhong X, Kang S, Zhang W, et al. Light-absorbing impurities in snow cover across Northern Xinjiang, China [J]. Journal of Glaciology, 2019, 65（254）: 940-956.
105	Wang Daiwei, Yang Xiuqun. Temporal and spatial patterns of Arctic sea ice variations [J]. Acta Meteorological Sinica, 2002, 60(2): 129-138.
	汪代维, 杨修群. 北极海冰变化的时间和空间型 [J]. 气象学报, 2002, 60(2): 129-138.
106	Stroeve J C, Serreze M C, Holland M M, et al. The Arctic’s rapidly shrinking sea ice cover: A research synthesis [J]. Climatic Change, 2012, 110(3/4): 1 005-1 027.
107	Screen J A, Simmonds I. The central role of diminishing sea ice in recent Arctic temperature amplification [J]. Nature, 2010, 464（7 293）: 1 334-1 337.
108	Gao Y, Sun J, Li F, et al. Arctic sea ice and Eurasian climate: A review [J]. Advances in Atmospheric Sciences, 2015, 32: 92-114.
109	Comiso J C, Meier W N, Gersten R. Variability and trends in the Arctic Sea ice cover: Results from different techniques [J]. Journal of Geophysical Research: Oceans, 2017, 122: 6 883-6 900.
110	Meier W N, Hovelsrud G K, Van Oort B E, et al. Arctic sea ice in transformation: A review of recent observed changes and impacts on biology and human activity [J]. Reviews of Geophysics, 2014, 52(3): 185-217.
111	Perovich D K, Richter-Menge J A. Regional variability in sea ice melt in a changing Arctic [J]. Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences, 2015, 373: 20140165.
112	Perovich D K, Richter-Menge J A. Loss of sea ice in the Arctic [J]. Annual Review of Marine Science, 2009, 1: 417-441.
113	Lindsay R, Schweiger A. Arctic sea ice thickness loss determined using subsurface, aircraft, and satellite observations [J]. The Cryosphere, 2015, 9: 269-283.
114	Wang L, Derksen C, Brown R, et al. Recent changes in pan‐Arctic melt onset from satellite passive microwave measurements [J]. Geophysical Research Letters, 2013, 40(3): 522-528.
115	Mortin J, Svensson G, Graversen R G, et al. Melt onset over Arctic sea ice controlled by atmospheric moisture transport [J]. Geophysical Research Letters, 2016, 43: 6 636-6 642.
116	Bliss A, Anderson M. Arctic sea ice melt onset from passive microwave satellite data: 1979-2012 [J]. The Cryosphere Discussions, 2014, 8: 3 037-3 055.
117	Cordeira J M, Laird N F. The influence of ice cover on two lake-effect snow events over Lake Erie [J]. Monthly Weather Review, 2008, 136: 2 747-2 763.
118	Likens G E. Plankton of Inland Waters [M]. New York:Academic Press, 2010.
119	Walter K M, Smith L C, Stuart Chapin Iii F. Methane bubbling from northern lakes: Present and future contributions to the global methane budget [J]. Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences, 2007, 365(1 856): 1 657-1 676.
120	De Munck S, Gauthier Y, Bernier M, et al. River predisposition to ice jams: A simplified geospatial model [J]. Natural Hazards and Earth System Sciences, 2017, 17: 1 033-1 045.
121	Magnuson J J, Robertson D M, Benson B J, et al. Historical trends in lake and river ice cover in the Northern Hemisphere [J]. Science, 2000, 289(5 848): 1 743-1 746.
122	Benson B J, Magnuson J J, Jensen O P, et al. Extreme events, trends, and variability in Northern Hemisphere lake-ice phenology (1855-2005) [J]. Climatic Change, 2012, 112(2): 299-323.
123	Yao X, Li L, Zhao J, et al. Spatial-temporal variations of lake ice phenology in the Hoh Xil region from 2000 to 2011 [J]. Journal of Geographical Sciences, 2016, 26(1): 70-82.
124	Cai Y, Ke C Q, Duan Z. Monitoring ice variations in Qinghai Lake from 1979 to 2016 using passive microwave remote sensing data [J]. Science of the Total Environment, 2017, 607/608: 120-131.
125	Gou P, Ye Q, Che T, et al. Lake ice phenology of Nam Co, Central Tibetan Plateau, China, derived from multiple MODIS data products [J]. Journal of Great Lakes Research, 2017, 43(6): 989-998.
126	Kropá?ek J, Maussion F, Chen F, et al. Analysis of ice phenology of lakes on the Tibetan Plateau from MODIS data [J]. The Cryosphere, 2013, 7: 287-301.
127	Kouraev A V, Semovski S V, Shimaraev M N, et al. Observations of Lake Baikal ice from satellite altimetry and radiometry [J]. Remote Sensing of Environment, 2007, 108(3): 240-253.
128	Arp C D, Jones B M, Lu Z, et al. Shifting balance of thermokarst lake ice regimes across the Arctic Coastal Plain of northern Alaska[J].Geophysical Research Letters,2012,39（16）. DOI:10.1029/2012GL052518. doi: 10.1029/2012GL052518
129	Immerzeel W W, Van Beek L P, Bierkens M F. Climate change will affect the Asian water towers [J]. Science, 2010, 328(5 984): 1 382-1 385.
130	Kaser G, Gro?hauser M, Marzeion B. Contribution potential of glaciers to water availability in different climate regimes [J]. Proceedings of the National Academy of Sciences, 2010, 107(47): 20 223-20 227.
131	Ren Jiawen, Ye Baisheng, Ding Yongjian, et al. Initial estimate of the contribuiton of cryospheric changes in China to sea level rise [J]. Chinese Science Bulletin, 2011, 56(14): 1 084-1 087.
	任贾文,叶柏生,丁永建,等. 中国冰冻圈变化对海平面上升潜在贡献的初步估计[J]. 科学通报, 2011, 56(14): 1 084-1 087.
132	Qin Dahe, Chen Yiyu, Li Xueyong. Assessment of Climate and Environment Changes in China(II): Measures to Adapt and Mitigate the Effects of Climate and Environment Changes [M]. Beijing: Science Press, 2005.
	秦大河, 陈宜瑜, 李学勇. 中国气候与环境演变 (下卷): 气候与环境变化的影响与适应, 减缓对策 [M]. 北京: 科学出版社, 2005.
133	Zhao Lin, Liu Guangyue, Jiao Keqin, et al. Variations of the permafrost in the headwaters of the Urumqi River in the Tianshan Mountains since 1991 [J]. Journal of Glaciology and Geocryology, 2010, 32(2): 223-230.
	赵林, 刘广岳, 焦克勤, 等. 1991—2008 年天山乌鲁木齐河源区多年冻土的变化 [J]. 冰川冻土, 2010, 32(2): 223-230.
134	Xie Zichu, Wang Xin, Kang Ersi, et al. Glacial runoff in China: An evaluation and orediction for the future 50 years [J]. Journal of Glaciology and Geocryology, 2006, 28(4): 457-466.
	谢自楚, 王欣, 康尔泗, 等. 中国冰川径流的评估及其未来50a变化趋势预测[J]. 冰川冻土, 2006, 28(4): 457-466.
135	Shi Yafeng. Glacier and Envrionment in China [M]. Beijing: Science Press, 2000.
	施雅风. 中国冰川与环境 [M]. 北京: 科学出版社, 2000.
136	Gao X, Ye B, Zhang S, et al. Glacier runoff variation and its influence on river runoff during 1961-2006 in the Tarim River Basin, China [J]. Science in China (Series D), 2010, 53: 880-891.
137	Chen Rensheng, Zhang Shiqiang, Yang Yong, et al. The Impacts of Cryospheric Changes on Runoff in Cold Regions of Western China [M]. Beijing: Science Press, 2019.
	陈仁升, 张世强, 阳勇, 等. 冰冻圈变化对中国西部寒区径流的影响 [M]. 北京: 科学出版社, 2019.
138	Gao Xin, Zhang Shiqiang, Ye Baisheng, et al. Recent changes of glacier runoff in the Hexi Inland riber basin [J]. Advances in Water Science, 2011, 22(31): 344-350.
	高鑫, 张世强, 叶柏生, 等. 河西内陆河流域冰川融水近期变化 [J]. 水科学进展, 2011, 22(31): 344-350.
139	Hock R, Rasul R, Adler C, et al. High mountain areas[R]// P?rtner H O, Roberts D C, Masson-Delmotte V, et al. IPCC Special Report on the Ocean and Cryosphere in a Changing Climate. 2019.

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