|
论文题目 |
作者 |
刊物名称 |
年/卷/页 |
|
Comparison of permafrost degradation under natural ground surfaces and embankments of the Qinghai–Tibet Highway |
Fan Yu |
Cold Regions Science and Technology |
2015, 114: 1-8 |
|
Assessment of Terrain Susceptibility to Thermokarst Lake Development along the Qinghai-Tibet Engineering Corridor, China |
Fujun Niu |
Environmental Earth Sciences |
2015,73(9):5631-5642 |
|
Laboratory testing on heat transfer of frozne soil blocks used as backfills of pile foundation in permafrost along Qinghai-Tibet electrical transmission line |
Guoyu Li |
Arabian Journal of Geosciences |
2015,8(5):2527-2535 |
|
The thermal effect of strengthening measures in an insulated embankment in a permafrost region |
Hou Yandong |
Cold Regions Science and Technology |
2015, 116: 49-55 |
|
Thermal stabilization of duct-ventilated railway embankments in permafrost regions using ripped-rock revetment |
Hou Yandong |
Cold Region Science and Technology |
2015, 120, 145-152 |
|
Degradation characteristics of permafrost under the effect of climate warming and engineering disturbance along the Qinghai–Tibet Highway |
Hui Peng |
Natural Hazards |
2015, 75(3): 2589-2605 |
|
Impacts of permafrost degradation on embankment deformation of the Qinghai-Tibet Highway in permafrost regions |
Hui Peng |
Journal of central South University |
2015, 22:1079-1086 |
|
Cooling Effect of Crushed Rock-Based Embankment along the Chaidaer-Muli Railway |
Ji Chen |
Advances in Materials Science and Engineering |
2015, (4):1-8. DOI: http://dx.doi.org/10.1155/2015/182437 |
|
Thermokarst lake changes between 1969 and 2010 in the Beilu River Basin, Qinghai–Tibet Plateau, China |
Jing Luo |
Science Bulletin |
2015, 60(5):556-564 |
|
Lateral thermal disturbance of embankments in the permafrost regions of the Qinghai-Tibet Engineering Corridor |
Mingyi Zhang |
Natural Hazards |
2015, 78: 2121–2142.(SCI) |
|
Evaluating the cooling performance of crushed-rock interlayer embankments with unperforated and perforated ventilation ducts in permafrost regions |
Mingyi Zhang |
Energy |
2015, 93: 874-881.(SCI) |
|
Assessment of terrain susceptibility to thermokarst lake development along the Qinghai–Tibet engineering corridor, China |
Niu F |
Environmental Earth Sciences |
2015, 73(9): 5631-5642 |
|
Long-term thermal regimes of the Qinghai-Tibet Railway embankments in plateau permafrost regions |
Niu Fujun |
Science China-Earth Sciences |
2015, 58(9): 1669-1676 |
|
Comparative analysis of temperature variation characteristics of permafrost roadbeds with different widths |
Qihao Yu |
Cold Regions Science and Technology |
2015, 117: 12–18 |
|
Impact of climatic factors on permafrost of the QinghaieXizang Plateau in the time-frequency domain |
Siru Gao |
Quaternary International |
2015, 374: 110-117 |
|
Period analysis and trend forecast for soil temperature in the Qinghai-Xizang Highway by wavelet transformation |
Siru Gao |
Environmental Earth Sciences |
2015, 74: 2883–2891 |
|
Thermal regime of frozen soil foundation affected by concrete base of transmission line tower on the Tibetan Plateau |
W.B. Liu |
Applied Thermal Engineering |
2015,75:950-957 |
|
Discussion of Applicability of the Generalized Clausius-Clapeyron Equation and the Frozen Fringe Process |
Wei Ma |
Earth Science Reviews |
2015, 142: 47-59 |
|
Thermal-moisture dynamics of embankment with asphalt pavement in permafrost regions of central Tibetan Plateau[J] |
Wen Zhi |
European Journal of Environmental and Civil Engineering |
2015, 19(4): 387-399. doi: 10.1080/19648189.2014.945043.(SCI) |
|
Changes in active layer thickness and thermal state of permafrost between 2002-2012 in a variety of alpine ecosystem, Qinghai-Xizang (Tibet) Plateau, China |
Wu Qingbai |
Global and Planetary Change |
2015, 124, 149-155 |
|
The thermal regime, including a reversed thermal offset, of arid permafrost sites with variations in vegetation cover density, Wudaoliang Basin, Qinghai-Tibet Plateau |
Zhanju Lin |
Permafrost and Periglacial Processes |
2015, 26(2): 142-159 |
|
青藏铁路路基下融化夹层特征及其对路基沉降变形的影响 |
高宝林 |
冰川冻土 |
2015,37（1）：126-131 |
|
青藏铁路碎石护坡-热管复合措施的补强效果研究 |
侯彦东 |
冰川冻土 |
2015,37(1):118-125 |
|
青藏工程走廊热融湖湖底热状态 |
林战举 |
地球科学 |
2015,40(1) : 179-188 |
|
青藏工程走廊热融湖湖底热状态 |
林战举 |
地球科学 |
2015, 40(1) : 179-188 |
|
多年冻土区青藏铁路路基的长期热状况 |
牛富俊 |
中国科学:地球科学 |
2015,45(8)：1220-1228 |
|
青藏公路普通填土路基长期变形特征与路基病害调查分析 |
彭惠 |
岩土力学 |
2015， 36（7）：1-8,(EI) |
|
青藏铁路运营以来冻土路基变形特征及其来源探讨 |
王进昌 |
甘肃科技 |
2015,31（1）：80-83 |
|
青藏高原昆仑山垭口盆地发现天然气水合物赋存的证据 |
吴青柏 |
科学通报 |
2015，60（1）：68-74 |
|
适用于多年冻土区具有碳通量自动观测性能的OTC系统开发设计 |
贠汉伯 |
冰川冻土 |
2015,37(2):454-460 |
|
北麓河多年冻土活动层水热迁移规律分析[J] |
张明礼 |
干旱区资源与环境 |
2015, 29(9): 176-181 |
|
青藏高原公路路面结构水热差异变化分析 |
张中琼 |
|
2015,45(5):975-979 |
|
多年冻土区典型地面浅层地温对降水的响应 |
张中琼 |
长安大学学报（自然科学版） |
2015,23(5):948-953 |
|
青藏高原北麓河地区沥青路面辐射特征分析 |
张中琼 |
冰川冻土 |
2015,37(2):408-415 |
|
不同地面类型热物理性质差异 |
张中琼 |
长安大学学报（自然科学版） |
2015,35(4):41-47 |
|
冻融循环对土结构性影响的试验研究及影响机理分析 |
郑郧 |
岩土力学 |
2015, 36(05): 1282-1287,(EI) |
|
Analysis of permanent deformations of railway embankments under repeated vehicle loadings in permafrost regions |
Wei Ma |
Sciences in Cold and Arid Regions |
2015, 7(6):645-653 |
