团队负责人：潘保田
93. Zhang Y, Geng H, Cai S, Pan B. Tan DEM-X preserves the relationship between hilltop curvature and erosion rate in
the Qilian Shan. Journal of Geophysical Research: Earth Surface, 2023, 128(9): e2023JF007118.
92. Pan B, Li X, Hu Z, et al. Channel migration in the northeastern margin of the Tibetan Plateau and its implication
for fluvial response to the interaction between rapid tectonic activity, climatic fluctuation and human influence.
Quaternary Science Reviews, 2023, 310: 108126.
91. Pan B, Guan W, Shi M, et al. Different characteristics of two surges in Weigeledangxiong Glacier, northeastern
Tibetan Plateau. Environmental Research Letters, 2022, 17(11): 114009.
90. Guan W, Cao B, Pan B, et al. Updated surge-type glacier inventory in the West Kunlun Mountains, Tibetan Plateau,
and implications for glacier change. Journal of Geophysical Research: Earth Surface, 2022, 127(1): e2021JF006369.
89. Tian L, Zhang B, Chen S, Wang X, Ma X, Pan B. Large‐Scale Afforestation Enhances Precipitation by Intensifying the
Atmospheric Water Cycle Over the Chinese Loess Plateau. Journal of Geophysical Research: Atmospheres, 2022, 127
(16): e2022JD036738.
88. Wen Z, Chen D, Guo L, Pan B, Hu X, Li Q, Ji X, Jiaming Yang. Response of terrace deposit thickness to climate
change and tectonic deformation: An example of the Liyuan River in the Northeast Tibetan Plateau. Terra Nova,
2022, 34(1): 37-46.
87. Geng, H., Cai, S., Lü, H., Pan, B. (2022). How can a youthful mountain survive in a foreland setting?-Constraining
the uplift threshold rate by numerical simulation. Science bulletin, 67 12, 1233-1235.
86. Pan B, Guan W, Shi M, et al. Different characteristics of two surges in Weigeledangxiong Glacier, northeastern
Tibetan Plateau. Environmental Research Letters, 2022, 17(11): 114009.
85. Pan B, Zhao Q, Hu X, et al. Uplift and Expansion of the North Qilian Shan Recorded by Detrital Fission Tracks in
the Jiudong Basin, NW China. Frontiers in Earth Science, 2022, 9: 826104.
84. Dong Z, Pan B, Hu Z, et al. Evaluation of the Fluvial Response to Tectonic Uplift From Grain-Size Distribution in
Riverbed Gravels at the Northeastern Margin of the Tibetan Plateau. Continental Basin and Orogenic Processes:
Tectonic Deformation and Associated Landscape and Environmental Evolution, 2022, 10: 824368.
83. Pan B, Cai S, Geng H. Numerical simulation of landscape evolution and mountain uplift history constrain—A case
study from the youthful stage mountains around the central Hexi Corridor, NE Tibetan Plateau. Science China Earth
Sciences, 2021, 64: 412-424.
82. Hu, X., Cao, X., Li, T., Mao, J., Zhang, J., He, X., Zhang, Y. n., and Pan, B., 2021, Late Quaternary Fault Slip
Rate Within the Qilian Orogen, Insight Into the Deformation Kinematics for the NE Tibetan Plateau: Tectonics, v.
40, no. 5, p. e2020TC006586.
81. Gao, P., Nie, J., Yan, Q., Zhang, X., Liu, Q., Cao, B., and Pan, B., 2021, Millennial Resolution Late Miocene
Northern China Precipitation Record Spanning Astronomical Analogue Interval to the Future: Geophysical Research
Letters, v. 48, no. 15, p. e2021GL093942.
80. Cao X, Hu X, Pan B, et al. Using fluvial terraces as distributed deformation offset markers: Implications for
deformation kinematics of the North Qilian Shan Fault. Geomorphology, 2021, 386: 107750.
79. Cao, B.; Guan, W.; Li, K.; Wen, Z.; Han, H.; Pan, B. Area and Mass Changes of Glaciers in the West Kunlun Mountains
Based on the Analysis of Multi-Temporal Remote Sensing Images and DEMs from 1970 to 2018. Remote Sens. 2020, 12,
2632.
78. Hu X, Chen D, Pan B, et al. Sedimentary evolution of the foreland basin in the NE Tibetan Plateau and the growth of
the Qilian Shan since 7 Ma. GSA Bulletin, 2019, 131(9-10): 1744-1760.
77. Hu, Z., Li, M., Dong, Z., Guo, L., Bridgland, D., Pan, B., Li, X., and Liu, X., 2019, Fluvial entrenchment and
integration of the Sanmen Gorge, the Lower Yellow River: Global and Planetary Change, v. 178, p. 129-138.
76. Cao X, Hu X, Pan B, et al. A fluvial record of fault-propagation folding along the northern Qilian Shan front, NE
Tibetan Plateau. Tectonophysics, 2019, 755: 35-46.
75. Cao B, Pan B, Wen Z, et al. Changes in glacier mass in the Lenglongling Mountains from 1972 to 2016 based on remote
sensing data and modeling. Journal of Hydrology, 2019, 578: 124010.
74. Cao B, Pan B, Guan W, et al. Changes in glacier volume on Mt. Gongga, southeastern Tibetan Plateau, based on the an
alysis of multi-temporal DEMs from 1966 to 2015. Journal of Glaciology, 2019, 65(251): 366-375.
73. Li Q, Pan B, Gao H, et al. Differential rock uplift along the northeastern margin of the Tibetan Plateau inferred
from bedrock channel longitudinal profiles. Journal of Asian Earth Sciences, 2019, 169: 182-198.
72. Hu Z B, Pan B T, Bridgland D, et al. The linking of the upper-middle and lower reaches of the Yellow River as a
result of fluvial entrenchment. Quaternary Science Reviews, 2017, 166: 324-338.
71. Gao, H., Li, Z., Liu, X., Pan, B., Wu, Y., and Liu, F., 2017, Fluvial terraces and their implications for Weihe
River valley evolution in the Sanyangchuan Basin: Science China Earth Sciences, v. 60, no. 3, p. 413-427.
70. Cao B, Pan B, Cai M, et al. An investigation on changes in glacier mass balance and hypsometry for a small
mountainous glacier in the northeastern Tibetan Plateau. Journal of Mountain Science, 2017, 14(8): 1624-1632.
69. Hu Z, Pan B, Guo L, et al. Rapid fluvial incision and headward erosion by the Yellow River along the Jinshaan gorge
during the past 1.2 Ma as a result of tectonic extension. Quaternary Science Reviews, 2016, 133: 1-14.
68. Pan B, Pang H, Gao H, et al. Heavy-mineral analysis and provenance of Yellow River sediments around the China Loess
Plateau. Journal of Asian Earth Sciences, 2016, 127: 1-11.
67. Pan B, Chen D, Hu X, et al. Drainage evolution of the Heihe River in western Hexi Corridor, China, derived from
sedimentary and magnetostratigraphic results. Quaternary Science Reviews, 2016, 150: 250-263.
66. Pan B, Pang H, Zhang D, et al. Sediment grain-size characteristics and its source implication in the Ningxia-Inner
Mongolia sections on the upper reaches of the Yellow River. Geomorphology, 2015, 246: 255-262.
65. Pan B, Li Q, Hu X, et al. Bedrock channels response to differential rock uplift in eastern Qilian Mountain along
the northeastern margin of the Tibetan Plateau. Journal of Asian Earth Sciences, 2015, 100: 1-19.
64. Zhang G, Pan B, Cao B, et al. Elevation changes measured during 1966–2010 on the monsoonal temperate glaciers'
ablation region, Gongga Mountains, China. Quaternary International, 2015, 371: 49-57.
63. Pan B, Guan Q, Liu Z, et al. Analysis of channel evolution characteristics in the Hobq Desert reach of the Yellow
River (1962–2000). Global and Planetary Change, 2015, 135: 148-158.
62. Geng H, Pan B, Milledge D G, et al. Quantifying sheet wash erosion rates in a mountainous semi‐arid basin using
environmental radionuclides and a stream power model.Earth surface processes and landforms,2015,40(13):1814-18 26.61. Cao B, Pan B, Wang J, et al. Changes in the glacier extent and surface elevation along the Ningchan and Shuiguan
river source, eastern Qilian Mountains, China. Quaternary Research, 2014, 81(3): 531-537.
60. Pan B, Guan Q, Gao H, et al. The origin and sources of loess‐like sediment in the Jinsha River Valley, SW China.
Boreas, 2014, 43(1): 121-131.
59. Pan B, Hu X, Gao H, et al. Late Quaternary river incision rates and rock uplift pattern of the eastern Qilian Shan
Mountain, China. Geomorphology, 2013, 184: 84-97.
58. Pan B, Qingyang L, Xiaofei H, et al. Cretaceous and Cenozoic cooling history of the eastern Qilian Shan,
north-eastern margin of the Tibetan Plateau: evidence from apatite fission‐track analysis. Terra Nova, 2013,
25(6): 431-438.
57. Guan Q, Pan B, Yang J, et al. The processes and mechanisms of severe sandstorm development in the eastern Hexi
Corridor China, during the Last Glacial period. Journal of Asian Earth Sciences, 2013, 62: 769-775.
56. Pan B, Hu Z, Wang J, et al. The approximate age of the planation surface and the incision of the Yellow River.
Palaeogeography, Palaeoclimatology, Palaeoecology, 2012, 356: 54-61.
55. Pan B, Cao B, Wang J, et al. Glacier variations in response to climate change from 1972 to 2007 in the western
Lenglongling mountains, northeastern Tibetan Plateau. Journal of Glaciology, 2012, 58(211): 879-888.
54. Pan B, Zhang G L, Wang J, et al. Glacier changes from 1966–2009 in the Gongga Mountains, on the south-eastern
margin of the Qinghai-Tibetan Plateau and their climatic forcing. The Cryosphere, 2012, 6(5): 1087-1101.
53. Pan B, Hu Z, Wang J, et al. A magnetostratigraphic record of landscape development in the eastern Ordos Plateau,
China:Transition from Late Miocene and Early Pliocene stacked sedimentation to Late Pliocene and Quaternary uplift
and incision by the Yellow River. Geomorphology, 2011, 125(1): 225-238.
52. Qingyu G, Pan B, Na L, et al. Timing and significance of the initiation of present day deserts in the northeastern
Hexi Corridor, China. Palaeogeography, Palaeoclimatology, Palaeoecology, 2011, 306(1-2): 70-74.
51. Qingyu G, Pan B, Na L, et al. A warming interval during the MIS 5a/4 transition in two high-resolution loess
sections from China. Journal of Asian Earth Sciences, 2010, 38(6): 255-261.
50. Yu G Q, Pan B, Na L, et al. Pattern of abrupt climatic fluctuation in the East Asian Monsoon during the Last
Glacial: Evidence from Chinese loess records. Comptes Rendus Geoscience, 2010, 342(3): 189-196.
49. Pan B, Geng H, Hu X, et al. The topographic controls on the decadal-scale erosion rates in Qilian Shan Mountains,
NW China. Earth and Planetary Science Letters, 2010, 292(1-2): 148-157.
48. 高阳,蔡顺,潘保田,熊巨华.地貌学领域自然科学基金项目申请资助、研究范式与启示.科学通报
47. 洪洋,耿豪鹏,潘保田.寒冻风化控制的祁连山风化碎屑的空间分布.冰川冻土,2022,44(04):1347-1356.
46. 潘保田,郭明宙,乔振峰.创新高等理科教育 提高人才培养能力.高等理科教育,2021(05):1-7.
45. 潘保田,曹泊,管伟瑾.2010—2020年祁连山东段冷龙岭宁缠河1号冰川变化综合观测研究.冰川冻土,2021,43(03):864-873.
44. 秦大河,姚檀栋,周尚哲,陈发虎,潘保田,康世昌.李吉均先生纪念专刊·编者按.冰川冻土,2021,43(03):681-682.
43. 潘保田,胡振波.黄河中游响应气候变化和地表相对抬升发育阶地研究.冰川冻土,2021,43(03):853-863.
42. 樊云龙,潘保田,胡振波,任大银,陈起伟,刘芬良,李宗盟.云贵高原北盘江流域构造地貌特征分析.地球科学进展,2018,33(07):751-76
1.
41. 高红山,李宗盟,刘小丰,潘保田,吴雅婕,刘芬良.三阳川盆地渭河阶地发育与河谷地貌演化.中国科学:地球科学,2017,47(02):191-20
4.
40. 潘保田.完善治理结构 加快现代大学制度建设步伐.世界教育信息,2014,27(01):69-70.
39. 吉亚鹏,高红山,潘保田,李宗盟,管东升,杜功元.渭河上游流域河长坡降指标SL参数与Hack剖面的新构造意义.太阳集团3143学报(自然科
学版),2011,47(04):1-6.
38. 曹泊,潘保田,高红山,姜少飞,温煜华,上官冬辉.1972-2007年祁连山东段冷龙岭现代冰川变化研究.冰川冻土,2010,32(02):242-248.
37. 耿豪鹏,潘保田,王超,黄波.基于GIS与USLE的榆中县土壤侵蚀.太阳集团3143学报(自然科学版),2009,45(06):8-13.
36. 李琼, 潘保田, 程维明. 基于RS与GIS的1:100万数字地貌制图方法——以兰州幅(J—48)为例. 太阳集团3143学报：自然科学版, 2009
(5):7.
35. 管清玉,潘保田,徐树建,邬光剑,李娜,赵明,徐先英,潘俊斌.腾格里沙漠南部(河西走廊东段)沙尘暴代用指标初探.自然科学进展,
2009,19(01):69-74.
34. 刘锋,潘保田,苏怀.兰州地区黄河第五级小沙沟阶地古地磁年代研究.中国沙漠,2008(05):821-826.
33. 胡小飞,潘保田.磷灰石(U-Th)/He热年代学方法及其在地貌演化研究中的应用.原子能科学技术,2008(07):662-664.
32. 潘保田,李万里,徐鹏彬.以科技创新提升高校科研水平——太阳集团3143科研实践的思考.研究与发展管理,2008(02):118-121.
31. 褚娜娜,潘保田,王均平,胡振波,苏怀,周天,胡小飞.汾渭盆地黄土剖面0.9Ma前后的粒度突变及其环境意义.中国沙漠,2008(01):50-
56.
30. 潘保田,刘小丰,高红山,王勇,李吉均.渭河上游陇西段河流阶地的形成时代及其成因.自然科学进展,2007(08):1063-1068.
29. 刘小丰,潘保田,高红山,王勇,张慧,王均平.渭河河流沉积物对气候变化的响应分析.干旱区资源与环境,2007(05):6-9.
28. 刘小丰,潘保田,高红山,王勇,王均平,张慧,胡春生.渭河L9时期(0.87~0.94Ma)古洪水事件的特征研究.干旱区地理,2007(02):
247-250.
27. 潘保田,苏怀,刘小丰,胡小飞,周天,胡春生,李吉均.兰州东盆地最近1.2Ma的黄河阶地序列与形成原因.第四纪研究,2007(02):
172-180.
26. 李琼,潘保田,高红山,徐树建.腾格里沙漠南缘末次冰盛期以来沙漠演化与气候变化.中国沙漠,2006(06):875-879.
25. 潘保田,苏怀,胡春生,胡小飞,周天,李吉均.兰州地区1．0Ma黄河阶地的发现和0．8Ma阶地形成时代的重新厘定.自然科学进展,2006
(11):1411-1418.
24. 潘保田,王均平,高红山,陈莹莹,李吉均,刘小丰.从三门峡黄河阶地的年代看黄河何时东流入海.自然科学进展,2005(06):700-705.
23. 高红山,潘保田,邬光剑,李吉均,李炳元,Douglas Burbank,业渝光.祁连山东段河流阶地的形成时代与机制探讨.地理科学,2005(02):
197-202.
22. 高红山,潘保田,李吉均,邬光剑,李炳元,业渝光.祁连山东段金塔河流域层状地貌时代与成因探讨.山地学报,2005(02):129-135.
21. 潘保田,王均平,高红山,管清玉,王勇,苏怀,李炳元,李吉均.河南扣马黄河最高级阶地古地磁年代及其对黄河贯通时代的指示.科学通报,2005(03):255-261.
20. 潘保田, 高红山, 李炳元,等. 青藏高原层状地貌与高原隆升. 第四纪研究, 2004.
19. 潘保田,高红山,李吉均.关于夷平面的科学问题——兼论青藏高原夷平面.地理科学,2002(05):520-526.
18. 潘保田,邬光剑,王义祥,刘志刚,管清玉.祁连山东段沙沟河阶地的年代与成因.科学通报,2000(24):2669-2675.
17. 潘保田,李吉均,李炳元.青藏高原地面抬升证据讨论.太阳集团3143学报,2000(04):100-111.
16. 潘保田.代表我国冰冻圈地貌与沉积研究跃上新台阶的一部力作──《中天山冰冻圈地貌过程与沉积特征》评介.冰川冻土,2000
(01):96.
15. 潘保田,王建民.末次间冰期以来青藏高原东部季风演化的黄土沉积记录.第四纪研究,1999(04):330-335.
14. 潘保田,陈发虎.青藏高原东北部15万年来的多年冻土演化.冰川冻土,1997(02):30-38.
13. 潘保田,邬光剑.青藏高原东北部最近两次冰期降温幅度的初步估算.干旱区地理,1997(02):17-24.
12. 潘保田,李吉均,曹继秀,陈发虎.化隆盆地地貌演化与黄河发育研究.山地研究,1996(03):153-158.
11. 潘保田,李吉均.青藏高原：全球气候变化的驱动机与放大器──Ⅲ．青藏高原隆起对气候变化的影响.太阳集团3143学报,1996(01):108-
115.
10. 潘保田,石生仁,朱俊杰.河西经济带建设在大西北开发中的地位与作用.干旱区地理,1996(01):32-37.
9. 潘保田,李吉均,朱俊杰,曹继秀.青藏高原：全球气候变化的驱动机与放大器──Ⅱ．青藏高原隆起的基本过程.太阳集团3143学报,1995
(04):160-167.
8. 潘保田,李吉均,陈发虎.青藏高原：全球气候变化的驱动机与放大器──Ⅰ 新生代气候变化的基本特征.太阳集团3143学报,1995(03):
120-128.
7. 王乃昂,潘保田.我国高等地理教育的发展和问题.高等理科教育,1995(03):18-23.
6. 潘保田.贵德盆地地貌演化与黄河上游发育研究.干旱区地理,1994(03):43-50.
5. 潘保田,李吉均,曹继秀.黄河中游的地貌与地文期问题.太阳集团3143学报,1994(01):115-123.
4. 潘保田,李吉均,周尚哲.青藏高原倒数第二次冰期冰楔的发现及其意义.科学通报,1992(17):1599-1602.
3. 潘保田,徐叔鹰,陈发虎,曹继秀,张宇田.青海高原东部三万年来自然环境变迁的序列与幅度探讨.干旱区地理,1989(02):14-21.
2. 潘保田,徐叔鹰.青海高原东部晚第四纪自然环境演化探讨.科学通报,1989(07):534-536.
1. 潘保田.陇西黄土高原农业发展方向初探.地域研究与开发,1988(02):27-32.
团队骨干成员：聂军胜
78. Liu, X., Nie, J., Zhou, B. and Zhang, Z., 2023. East Asian summer monsoon variations across the Miocene−Pliocene
boundary recorded by sediments from the Guide Basin, northeastern Tibetan Plateau. GSA Bulletin.
77. Li, M., Nie, J., Li, Z., Pullen, A., Abell, J.T., Zhang, H., McMechen, C.A. and Pan, B., 2023. A middle Pleistocene
to Holocene perspective on sediment sources for the Tengger Desert, China. CATENA, 228: 107119.
76. Yang, J., Nie, J., Zhang, H., Rasmeni, S.K., Ncube, L., van Niekerk, H.J., Zhao, B. and Hu, X., 2023. Sr-Nd-Hf
isotopic constraints on the provenance of the modern Zambezi River sand sediments, southern Africa.Basin Research,
35(3): 1053-1070.
75. Li, S., Nie, J., Ren, X., Xing, L., Tong, F. and Xiao, Y., 2023. Increased primary mineral dissolution control on
a terrestrial silicate lithium isotope record during the middle Miocene Climate Optimum.Geochimica et Cosmochimica
Acta, 348: 41-53.
74. Peng, W., Zhang, H., Pullen, A., Li, M., Pan, B., Xiao, W. and Nie, J., 2023. Stepwise increased spatial provenance
contrast on the Chinese Loess Plateau over late Miocene-Pleistocene. Communications Earth & Environment, 4(1): 60.
73. Nie, J., Wang, W., Heermance, R., Gao, P., Xing, L., Zhang, X., Zhang, R., Garzione, C. and Xiao, W., 2022. Late
Miocene Tarim desert wetting linked with eccentricity minimum and East Asian monsoon weakening. Nature
Communications, 13(1): 3977.
72. Wang, X., Nie, J., Stevens, T., Zhang, H. and Xiao, W., 2022. Resolving conflicting models of late Miocene East
Asian summer monsoon intensity recorded in Red Clay deposits on the Chinese Loess Plateau. Earth-Science Reviews:
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71. Zhang, H., Li, M., Peng, W., Zhang, Z. and Nie, J., 2022. No major temporal provenance variation on the Chinese
Loess Plateau since the late Miocene — insight from stable heavy mineral ratios. Geosystems and Geoenvironment,
1(2): 100022.
70. Guo, B., Nie, J., Li, J., Xiao, W., Pan, F. Expansion/shrinkage history of the Paratethys Sea during the Eocene:
New insights from eolian Red Clay records in the Altyn Mountains, northern China. Frontiers in Earth Science, 10,
2022.
69. Guo, B., Nie, J., Stevens, T., Buylaert, J.-P., Peng, T., Xiao, W., Pan, B., Fang, X. Dominant precessional forcing
of the East Asian summer monsoon since 260 ka. Geology, 50(12): 1372-1376, 2022.
68. Peng, F., Nie, J., Stevens, T., Pan, B. Decoupled Chinese Loess Plateau Dust Deposition and Asian Aridification at
Millennial and Tens of Millennial Timescales. Geophysical Research Letters, 49(20): e2022GL099338, 2022.
67. Cheng, F., Garzione, C., Li, X., Salzmann, U., Schwarz, F., Haywood, A.M., Tindall, J., Nie, J., Li, L., Wang, L.,
Abbott, B.W., Elliott, B., Liu, W., Upadhyay, D., Arnold, A., Tripati, A. Alpine permafrost could account for a
quarter of thawed carbon based on Plio-Pleistocene paleoclimate analogue. Nature Communications, 13(1): 1329,
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66. Wang, X., Nie, J., Saylor, J.E. Anti-Phase Strengthening of the South and East Asian Summer Monsoons During the
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团队骨干成员：王杰
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团队骨干成员：胡振波
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