General

Prof. Y YU
Key Laboratory of Land Surface Process & Climate Change in Cold & Arid Regions 
Northwest Institute of Eco-Environmnet and Resources
Chinese Academy of Sciences
Lanzhou, Gansu, China
Email: yyu@lzb.ac.cn
Telephone: 0931-4967168
Address: 320 Donggang West Road
Chengguan District
Lanzhou
Gansu
China
Postcode: 730000

Research Areas

Land surface processes and their intraction with weather and climate


Observation and numerical simulation on the effects of land use/land cover change on convective activities in Eastern Gansu (2024.1-2027.12)

East Gansu is an area with frequent convective storms.  Since the implementation of "Green for Grain" in 1999, there have been significant changes in the land cover in this area. Does this change alter the spatial heterogeneity of surface properties, thereby affecting the spatial distribution of convective activities?  It is not yet clear. The project plan to analyze the differences in atmospheric environmental parameters between local convective days and sunny days, the spatiotemporal variability of convective activities in the study area and its relationships with soil moisture, land cover, topography, etc. The role of spatial heterogeneity of soil moisture and land cover in the development of convective boundary layer and the establishment of pre-storm atmospheric environment will be revealed. Numerical sensitivity experiments will be conducted to investigate the process and mechanisms of topography and spatial heterogeneity of soil moisture and land cover on the initiation and development of convection. 


Westerly and monsoon interaction, and their effect on water cycle in eastern Tibet Plateau (2019.11-2024.10)

Through the research on the climate change mechanism of the "westerly monsoon" interaction region in the Qinghai Tibet Plateau, we try to understand and predict the climate change in the Qinghai Tibet Plateau, the Asian monsoon region and the regions along the "Silk Road" economic belt. The interaction between one belt, one road and the west side of the Qinghai Xizang Plateau will be studied. The interaction between the westerly and monsoon through the water vapor interaction will be analyzed. The influence of this interaction on the Northern Hemisphere climate variability will be analyzed, including the simulating and forecasting ability of the earth simulation system, and the climatic influence of the "one belt" economic belt core area. This project will scientifically answer the question of the synergism of monsoon and westerlies on multiple time scales, and solve the key energy, water transport and regional and global impact characteristics that restrict the understanding of the interaction mechanism of "westerlies and monsoons". 


Effect of land-atmosphere interaction and boundary layer structure on heat source intensity over Qinghai-Tibet plateau (2018.11-2021.10)

By establishing a comprehensive observation network of land surface and boundary layer covering the Middle East and northeast of the Tibetan plateau, the comprehensive observational data of land surface and boundary layer covering three consecutive years will be collected; the atmospheric boundary layer structure and its variation characteristics, the energy and water exchange characteristics between the earth and the atmosphere will be studied at typical stations, and the applicability of the boundary layer structure and the water and heat characteristics from large-scale reanalysis data will be evaluated; at the same time, based on the in situ observations and the heat source intensity from reanalysis data, a quantitative estimation method for regional scale surface and atmospheric heat source based on limited observation data will be developed combined with key surface characteristic parameters representing the plateau land surface-atmosphere interactions. On this basis, the temporal and spatial variation characteristics of the heat source intensity over the plateau will be analyzed.


Observation and numerical modeling study of the effect of soil moisture on boundary layer structure and convection initiation over Losses plateau, Eastern Gansu(2015-2019)

Losses Plateau in East Gansu is an area with frequent convective storms. A synthetic observation including land surface processes, boundary layer structure and convective activities is the key to further understanding the triggering mechanisms of these storms, which is very important for improving the ability of mesoscale models for severe weather forecasting. The limited understanding of the role of land surface and boundary layer processes in triggering convections in this area have largely delayed our prediction skills in short, disaster weathers. This project considers the land surface process, boundary layer development and convection initiation as a whole to analyze the spatial distribution of convection preferential areas and its relation to surface conditions; evaluate the effect of surface radiation and energy budget on boundary layer development and convection initiation with focus on the role of entrainment on top of boundary layer in the establishment of pre-environment for convection initiation; discuss the effect of soil moisture status and spatial distribution on boundary layer development and convection initiation. Results from the project will improve our understanding on the role of land surface and boundary layer processes in the formation of severe weather and offer a way for further development of weather forecasting models.


Characteristics of land-atmosphere energy and water exchange and its response to climate change in the Tibetan Plateau (2013-2018)

Land-atmosphere energy and water exchange reflects the process of energy exchange and coupling between the surface and the atmosphere. There are great differences in the energy transfer process under different climatic background and underlying surface conditions. The analysis and comparison of the characteristics of land-atmosphere energy and water exchange over the Qinghai-Tibet plateau is helpful to understand the impact of climate change on the land-atmosphere energy and water exchange over the Qinghai-Tibet plateau, and the mechanism of the response of desertification on the Qinghai-Tibet plateau to climate change. In view of the particularity of desertification over the Qinghai-Tibet plateau , which is sensitive to temperature and related to the degradation of permafrost, this study aims to solve the key scientific question of the response of the land-surface energy and water exchange process over different types of surface to climate change on the basis of the analysis of multi-point observation data.


Observation and numerical study of energy and water processes in typical Loess Plateau areas(2012-2015)

The losse plateau is a unique land type in China. Further investigation of its energy and water cycle is very important for the understanding of the role of losse plateau in regional climate change and will be an important contribution to the study of global energy and water cycle. Until now the land-atmosphere coupling process and its control factors in losse plateau area are not well understood, which is an important factor affecting the skill of climate prediction in this area. In current project, field observations on the energy and water exchange between land and atmosphere and its transport process will be conducted in the losse plateau, together with the atmospheric boundary layer structure; the characteristics of energy and water transport will be investigated and the Noah land surface model will be developed based on the improvement of land process parameterization scheme and remotely sensed land surface parameters. The improved model will be used to reveal the main factors controlling the energy and water transport in the losse plateau; investigate the processes of land -atmosphere energy and water exchange and its relation with the dynamic and thermal dynamic structure of the boundary layer. The project will advance our understanding of the role of the land surface processes on regional climate change in the losse plateau area and have important implications on the improvement of current weather forecast model.


The charge distribution and discharge initiation mechanism in thunderstorms (2014-2019)

This is a subproject of a National Kay Basic Research Program funded by the Ministry of Science and Tecnolgy of China. The project aims to understand the characteristics of charge distribution and the formation mechanism of charge structure in the severe thunderstorms; the initial conditions, development process and mechanism of lightning in thunderstorms, and the special discharge events (such as bipolar large pulse NBEs, etc.), as well as the related electric field environment and generation mechanism. The atmospheric boundary layer structure and turbulence characteristics under different types of lightning disasters were compared and analyzed.


Boundary Layer Processes 

Mechanism and parameterization of local ecology and climate effect of large wind farms (2019-2023)

At present, most of the studies on the ecology and climate effect of wind farms are based on the results from idealized numerical experiments and wind tunnel experiments. To what extent do wind farms alter local meteorology and turbulent transport processes? Will it cause local/regional weather and climate change? What are the effects and mechanisms of wind farm operation on terrestrial vegetation and soil properties? What is the influence of offshore wind farm on marine ecological environment? All these questions need answers. In addition, the parameterization scheme of wind farms in regional climate model is not perfect, the simulation results are lack of comparison and verification with the in situ observations, and the research results of climate effects of wind farms are inconsistent. As for the research on the ecological effect and mechanism of wind farms, only a few studies focus on the ecological  effect during the construction period of wind farms, and there is a lack of research on the operation period of wind farms. We are going to investigate the above science questions in the project.


Numerical simulation of katabatic flow jumps in Antarctica (2000-2004)

The project investigated the conditions under which a katabatic flow jump (KFJ) (an abrupt rise of surface pressure and decrease of boundary layer wind speed) originates, develops and interacts with the rest of the planetary boundary layer; and revealed detailed structure and dynamical processes within KFJs. A series of quasi-two dimensional numerical simulations with horizontal spatial resolution ranging from 3500 m (one grid) to 35 m (four nested grids) were carried out. Results are compared to available theories. The project involves the use of the Regional Atmospheric Modelling System – RAMS and the development of a number of FORTRAN and C Shell programs to analyse and graphically manipulate the model output. R-plot and Vis5D were also used to view and present model results. The results have been presented at national conferences and peer reviewed journals.


Mesoscale meteorological and Air Quality Modelling 

Participated in several EU fundded projects, including FUMAPEX (Integrated Systems for Forecasting Urban Meteorology, Air Pollution and Population Exposure) and AIR4EU (Air Quality Assessment for Europe: from local to continental scale), as well as the Environment Agency funded project “Atmospheric chemistry and regional ozone”. Has led or contributed to the establishment, improvement and evaluation of the UK application of the MM5-SMOKE-CMAQ modelling system on urban and regional scales. The modeling system has been used for studies on the formation and fate of tropospheric ozone and particulate matter in the UK; source (industrial and urban) contributions to near surface pollutant concentrations in the UK. In the FUMAPEX project the influence of meteorology conditions on the evolution of air pollution episodes has been studied focusing on the urbanization of the PSU/NCAR MM5 by incorporating the effect of anthropogenic heat flux and high resolution land cover data. In the Air4EU ptoject and the Environment Agency funded project “Atmospheric chemistry and regional ozone” the SMOKE emissions model was adapted for UK applications as part of activities using advanced numerical models to study the dispersion, transport and transformation of pollutants on urban and regional scales.

Education

2000 – 2004: PhD, School of Geography, Earth and Environmental Sciences, University of Birmingham, U.K., Geography and Environmental Sciences

1997 – 1999: MSc, Cold and Arid Regions Environmental and Engineering Research Institute, Chinese Academy of Sciences, Atmospheric physics and Atmospheric environment.

1992 – 1996: BSc, Department of Atmospheric Science, Lanzhou University, Atmospheric Physics & Atmospheric Environment

Experience

   
Work Experience

2016-present: Professor, Key Laboratory of Land Surface Process & Climate Change in Cold & Arid Regions, Northwest Institute of Eco-Environment and Resources, Chinese Academy of Sciences

2008 – 2016: Professor, Key Laboratory of Land Surface Process & Climate Change in Cold & Arid Regions, Cold & Arid Regions Environmental & Engineering Research Institute, Chinese Academy of Sciences

2004 – 2007: Research Fellow, Center for Atmospheric and Instrumentation Research, University of Hertfordshire, U.K.

1996 – 2000: Research Assistant, Lanzhou Institute of Plateau Atmospheric Physics, Chinese Academy of Sciences.

Publications

Papers on Atmospheric Environment Research

1.       Hui Liu, Ye Yu*, Dunsheng Xia*, Suping Zhao, Xiaoyi Ma, Longxiang Dong. Analysis of the relationship between dust aerosol and precipitation in spring over East Asia using EOF and SVD methods. Science of the Total Environment. 2024, 908: http://dx.doi.org/10.1016/j.scitotenv.2023.168437.

2.       Chen, Pengfei, Kang, Shichang, Gan, Qinyi, Yu, Ye, Yuan, Xianlei, Liu, Yajun, Tripathee, Lekhendra, Wang, Xiaoxiang, Li, Chaoliu. Concentrations and light absorption properties of PM2.5 organic and black carbon based on online measurements in Lanzhou, China. Journal Of Environmental Sciences. 2023, 131(9): 84-95, http://dx.doi.org/10.1016/j.jes.2022.08.007.

3.       Liu, Hui, Yu, Ye*, Ma, Xiaoyi, Liu, Xinying, Dong, Longxiang, Xia, Dunsheng. Monitoring the impact of the COVID-19 lockdown on air quality in Lanzhou: Implications for future control strategies. Frontiers in Earth Science. 2023, 10: http://dx.doi.org/10.3389/feart.2022.1011536.

4.       Suping Zhao, He jianjun, Dong longxiang, Shaofeng Qi, Yin daiying, Jinbei Chen, Yu Ye*. Contrasting Vertical Circulation between Severe and Light Air Pollution inside a Deep Basin: Results from the Collaborative Experiment of 3D Boundary-Layer Meteorology and Pollution at the Sichuan Basin (BLMP-SCB). Bulletin Of The American Meteorological Society. 2023, 104(2): E411-E434

5.       Suping Zhao, Shaofeng Qi, Ye Yu, Shichang Kang, Longxiang Dong, Jinbei Chen, Daiying Yin. Measurement report: Contrasting elevation-dependent light absorption by black and brown carbon: lessons from in situ measurements from the highly polluted Sichuan Basin to the pristine Tibetan Plateau. Atmospheric Chemistry And Physics. 2022, 22: 14-1, https://doi.org/10.5194/acp-22-14693-2022.

6.       Zhao, S P, Yu, Ye*, Yin, D Y, Qin, D H. Contrasting Response of Ultrafine Particle Number and PM2.5 Mass Concentrations to Clean Air Action in China.Geophysical Research Letters. 2021, 48(13)

7.       Zhao, Suping, Yu, Ye*, Li, Jianglin, Yin, Daiying, Qi, Shaofeng, Qin, Dahe. Response of particle number concentrations to the clean air action plan: lessons from the first long-term aerosol measurements in a typical urban valley in western China. Atmospheric Chemistry And Physics. 2021, 21(19): 14959-14981, http://dx.doi.org/10.5194/acp-21-14959-2021.

8.       Zhao Suping, Yu Ye, Du Zhiheng, et al., 2020, Size-resolved carbonaceous aerosols at near surface level and the hilltop in a typical valley city, China. Atmospheric Pollution Research, 11(1): 129-140

9.       Zhao Suping, Yu Ye, Yin Daiying, et al., 2019,Concentrations, optical and radiative properties of carbonaceous aerosols over urban Lanzhou, a typical valley city: Results from in-situ observations and numerical model, Atmospheric Environment, 213: 470-484

10.   Dong Longxiang, Yu Ye*, Zuo Hongchao, et al., 2019, Elaborated simulation of urban atmospheric dispersion using an established WRF-Fluent coupling model. China Environmental Science, 39(6): 2311-2319

11.   Zhao Suping, Yu Ye, Yin Daiying, 2019, PM1 carbonaceous aerosols during winter in a typical valley city of western China: Vertical profiles and the key influencing factors. Atmospheric Environment, 202: 75-92.

12.   Zhao Suping, Yu Ye, Qin Dahe, et al., 2019, Measurements of submicron particles vertical profiles by means of topographic relief in a typical valley city, China. Atmospheric Environment, 199: 102-113

13.   Zhao Suping, Yu Ye, Qin, Dahe, et al., 2019, Analyses of regional pollution and transportation of PM2.5 and ozone in the city clusters of Sichuan Basin, China. Atmospheric Pollution Research, 10: 374-385

14.   He Jianjun, Lu Shuhua, Yu Ye, et al., 2018, Numerical Simulation Study of Winter Pollutant Transport Characteristics over Lanzhou City, Northwest China. Atmosphere, 9(10): 382

15.   Zhao Suping, Yu Ye, Yin, Daiying, 2018, Two winter PM2.5 pollution types and the causes in the city clusters of Sichuan Basin, Western China. Science Of The Total Environment , 636: 1228-1240.

16.   Zhao Suping, Yu Ye, Yin Daiying, et al., 2018, Spatial patterns and temporal variations of six criteria air pollutants during 2015 to 2017 in the city clusters of Sichuan Basin, China. Science of the Total Environment, 624, 540-557.

17.   Zhao Suping; Yu Ye; Qin Dahe, 2018, From highly polluted inland city of China to "Lanzhou Blue": The air-pollution characteristics. Sciences in Cold and Arid Regions, 10(1): 12-26.

18.   Yu Ye, Zhao Suping, Wang Bo, et al., 2017, Pollution Characteristics Revealed by Size Distribution Properties of Aerosol Particles at Urban and Suburban Sites, Northwest China, Aerosol And Air Quality Research, 17(7): 1784-1797

19.   Zhao Suping, Yu Ye*, 2017, Effect of short-term regional traffic restriction on urban submicron particulate pollution, Journal Of Environmental Sciences,55:86-99

20.   Zhao, Suping, Yu Ye, Qin, Dahe, et al., 2017, Assessment of long-term and large-scale even-odd license plate controlled plan effects on urban air quality and its implication. Atmospheric Environment, 170: 82-95.

21.   He Jianjun, Gong Sunling, Yu Ye, et al., 2017, Air pollution characteristics and their relation to meteorological conditions during 2014-2015 in major Chinese cities. Environmental Pollution, 223: 484-496

22.   Zhao Suping, Yu Ye, Yin Daiying, 2017, Effective Density of Submicron Aerosol Particles in a Typical Valley City, Western China. Aerosol And Air Quality Research,17(1): 1-13

23.   Zhao Suping, Yu Ye, Yin Daiying, 2016, Annual and diurnal variations of gaseous and particulate pollutants in 31 provincial capital cities based on in situ air quality monitoring data from China National Environmental Monitoring Center. Environment International, 86: 92-106

24.   Wu Fang-kun, Sun Jie, Yu Ye, et al., 2016, Variation Characteristics and Sources Analysis of Atmospheric Volatile Organic Compounds in Changbai Mountain Station. Huanjing Kexue,  37(9): 3308-3314

25.   Wu Fangkun, Yu Ye, Sun Jie, 2016, Characteristics, source apportionment and reactivity of ambient volatile organic compounds at Dinghu Mountain in Guangdong Province, China. Science Of The Total Environment, 548: 347-359

26.   He Jianjun, Yu Ye*, Xie Yaochen, et al., 2016, Numerical Model-Based Artificial Neural Network Model and Its Application for Quantifying Impact Factors of Urban Air Quality. Water Air And Soil Pollution, 227(7): 235

27.   Suping Zhao, Ye Yu*, Dunsheng Xia, et al., 2015, Urban particle size distributions during two contrasting dust events originating from Taklimakan and Gobi Deserts. Environmental Pollution, 207:107-122

28.   Suping Zhao, Ye Yu*, Daiying Yin, Jianjun He, 2015, Meteorological dependence of particle number concentrations in an urban area of complex terrain, Northwestern China. Atmospheric Research, 164–165: 304–317

29.   Suping Zhao, Ye Yu*, Jianjun He, Daiying Yin, 2015, Below-cloud scavenging of aerosol particles by precipitation in a typical valley city, northwestern China. Atmospheric Environment 102: 70-78

30.   Liu Na, Yu Ye*, He Jianjun, et al., 2015, Analysis of Air Pollutant Transport in Winter in Lanzhou. Research of Environmental Science, 28(4): 509-516

31.   Suping Zhao, Ye Yu*, Daiying Yin, 2015, Effect of Traffic Restriction on Fine Particle Concentrations and Their Size Distributions. Plateau Meteorology, 34(3): 777-785

32.   Suping Zhao, Ye Yu*, Na Liu, Jianjun He, Jinbei Chen, 2014, Effect of traffic restriction on atmospheric particle concentrations and their size distributions in urban Lanzhou, Northwestern China. Journal of Environmental Sciences, 26: 362–370

33.   Suping Zhao, Ye Yu*, Daiying Yin, Na Liu, Jianjun He, 2014, Ambient particulate pollution during Chinese Spring Festival in urban Lanzhou, Northwestern China. Atmospheric Pollution Research 5 : 335343

34.   Wang Bo, Xia Dunsheng, Yu Ye, et al., 2014, Detection and differentiation of pollution in urban surface soils using magnetic properties in arid and semi-arid regions of northwestern China. Environmental Pollution, 184(SI): 335-346

35.   Xia Dunsheng, Wang Bo, Yu Ye, et al., 2014, Combination of magnetic parameters and heavy metals to discriminate soil-contamination sources in Yinchuan - A typical oasis city of Northwestern China. Science Of The Total Environment, 485: 83-92

36.   Jianjun He, Ye Yu*, Na Liu, Suping Zhao, 2013, Numerical model-based relationship between meteorological conditions and air quality and its implication for urban air quality management. Int. J. Environment and Pollution, 53 ( 3/4):265-286

37.   He Jianjun, Yu Ye*, Liu Na, 013, WRF-Based Forecast Model for Autumn and Winter Air Quality in Lanzhou. Meteorological Monthly, 39(10): 1293-1303

38.   Na Liu, Ye Yu*, Jianjun He, Suping Zhao, 2013, Integrated modeling of urban–scale pollutant transport: application in a semi–arid urban valley, Northwestern China. Atmospheric Pollution Research 4:306314

39.   Wang B, Xia D. S., Yu Y., 2013, Magnetic properties of river sediments and their relationship with heavy metals and organic matter in the urban area in Lanzhou, China. Environmental Earth Sciences, 70(2): 605-614

40.   Zhao SupingYu YeChen JinbeiLiu NaHe JianjunSize Distribution Properties of Atmospheric Aerosol Particles During Summer and Autumn in Lanzhou. Environmental Science201233):687-693

41.   Liu NaYu YeChen JinbeiHe JianjunZhao SupingA study on potential sources and transportation pathways of PM10 in spring in Lanzhou. Transactions of Atmospheric Sciences201235(4):477-486

42.   Zhao SupingYu YeHe JianjunLiu Na, Chen JinbeiChe XingConcentration and size distribution of aerosol particles during 2011 Spring Festival in Lanzhou. China Environmental Science201232(11)1939-1947

43.   Yu Y, SP Zhao, DS Xia, JJ He, N LiuJB Chen. Characteristics of aerosol particle size distributions in urban Lanzhou, north-western China.WIT Transactions on Ecology and the Environment2011147307-318

44.   Liu N, Y Yu*, JB Chen, JJ HeSP Zhao. Identification of potential sources and transport pathways of atmospheric PM10 using HYSPLIT and hybrid receptor modelling in Lanzhou, China. WIT Transactions on Ecology and the Environment201114759-70

45.   Chemel C, Sokhi RS, Yu Y. Evaluation of a CMAQ simulation at high resolution over the UK for the calendar year 2003. Atmospheric Environment, 2010, 44(24): 2927-2939

46.   Yu Y, Sokhi RS, Kitwiroon N. Performance characteristics of MM5-SMOKE-CMAQ for a summer photochemical episode in southeast England, United Kingdom. Atmospheric Environment, 2008, 42(20): 4870-4883

47.   Xia DS, Yu Y, Tian SL. Use of environmental magnetic techniques to monitor urban pollution origins in Lanzhou, Northwest China. Environmental Earth Sciences, 2011, 64(7) : 1943-1949

48.   Wang Bo, Xia DunSheng, Yu Ye. Magnetic records of heavy metal pollution in urban topsoil in Lanzhou, China. Chinese Science Bulletin, 2013,58(3):384-395

49.   Wang BoXia DunshengYu YeTian ShiliJia Jia, Element Characteristics of River Sediment of Urban Area in Lanzhou City. Journal of Desert Research, 2012321):168-174

50.   Tian ShiliXia DunshengYu YeWang  BoWang LiMagnetic Property of Dustfall in a Northwest China Valley City and Its Environmental Implications. Environmental Science2011329):2761-2768

51.   Wang BoXia DunshengYu YeJia JiaTian ShiliLiu XianbinUse of environmental magnetism to monitor pollution in the river sediment of an urban area . Acta Scientiae Circumstantiae2011319):1979-1991

52.   Wang BoZhao ShuangXia DunshengYu YeTian ShiliJia JiaJiang XiaorongCharacteristics of Heavy Metal Elements and Their Relationship with Magnetic Properties of River Sediment from Urban Area in Lanzhou. Environmental Science2011325):1430-1440

53.   Yu Ye, Xia Dunsheng, Chen Leihua, Liu Na, Chen JinbeiGao YanhongAnalysis of Particulate Pollution Characteristics and Its Causes in Lanzhou, Northwest China. Environmental Science2010311):22-28

54.   Chen LeihuaYu YeChen JinbeiLi WanyuanLi Jinaglin Characteristics of Main Air Pollution in Lanzhou During 2001-2007. Plateau Meteorology2010 29( 6): 1627-1633

55.   Wang LiXia DunshengYu YeTian ShiliWang  BoMagnetic Properties of Urban Dustfall in North Xinjiang and Its Environmental Signif icance. Journal of Desert Research2010303):699-705

56.   Wang Bo, Xia DunshengYu YeWang  LiTian ShiliMagnetic Characters of River Sediment of Urban Area in Lanzhou. Environmental Science2010318):1740-1748

57.   Li WanyuanLv ShihuaYu YeDong ZhibaoShen ZhibaoChen YuchunStudy on Various Meteorological Factors Impact on the Dust Storm Occurrence. Plateau Meteorology2010294):1058-1066

58.   Wang BoXia DunshengYu YeJia JiaTian ShiliMagnetic properties of urban dustfall and its environmental implications. Lournal of Lanzhou University (Natural Sciences)2010466):11-17

Papers on Land Surface Processes and Convection Research

1.      Jin, Xiao, Bai, Ruiqiang, Gao, Xiaoqing, Yang, Wen, Yu, Ye, Li, Zhenchao. A Soil Semi-Empirical Dielectric Model Based on the Dielectric Variation Characteristics of an Electrical Double-Layer Solution. IEE Transactions pn Geoscience and Remote Sensing[J]. 2023, 61: http://dx.doi.org/10.1109/TGRS.2023.3286342.

2.      Zhao, Guo, Huang, Hao, Yu, Ye, Zhao, Kun, Yang, Zhengwei, Chen, Gang, Zhang, Yu. Study on the Quantitative Precipitation Estimation of X-Band Dual-Polarization Phased Array Radar from Specific Differential Phase. Remote Sensing. 2023, 15(2): http://dx.doi.org/10.3390/rs15020359.

3.      Zan, Beilei, Yu Ye*, Li Jianglin, et al., 2019, Solving the storm split-merge problem—A combined storm identification, tracking algorithm, Atmospheric Research, 218: 335-346

4.      Li JiangLin,Yu Ye, Li WanLi, et al., 2019, Numerical simulation of thunderstorm charge structure in eastern Qinghai using different non-inductive and inductive schemes, Chinese Journal Of Geophysics-Chinese Edition, 62(7): 2366-2381

5.       Zhang Xinke, Chen Jinbei, Yu Ye, 2017, Study on the Micrometeorological Characteristics over the Loess Plateau under the Influence of Thunderstorm. Plateau Meteorology, 36(2): 384-394

6.      Yu Ye, He Jianjun, Zhao Suping, et al., 2016, Numerical simulation of the impact of reforestation on winter meteorology and environment in a semi-arid urban valley, Northwestern China. Science Of The Total Environment, 569: 404-415

7.       Yu Ye, Li Jiang-lin, Xie Jin, et al., 2016, Climatic characteristics of thunderstorm days and the influence of atmospheric environment in Northwestern China. Natural Hazards, 80(2): 823-838

8.       Li Jianglin, Yu Ye*, Liu Chuan, et al., 2015, Variation of Thunderstorm Activities and Its Connection to East Asian Summer Monsoon in Transition Region Between Qinghai-Xizang Plateau and Loess Plateau. Plateau Meteorology,34(6): 1575-1583

9.       Li Jianglin, Yu Ye, Wang Baojian, 2014, Analysis of Heavy Rain to Rainstorm Event on the West of the Gansu Corridor. Plateau Meteorology, 33(4): 1034-1044

Papers on Atmospheric Boundary Layer Research

1.      Chen, Jinbei, Chen, Xiaowen, Jia, Wei, Yu, Ye, Zhao, Suping. Multi-site observation of large-scale eddies in the surface layer of the Loess Plateau. Science China-Earth Sciences. 2023, 66(4): 871-881, http://dx.doi.org/10.1007/s11430-022-1035-4.

2.      Chen, Jinbei, Chen, Xiaowen, Jing, Xiaojun, Jia, Wei, Yu, Ye, Zhao, Suping. Ergodicity of turbulence measurements upon complex terrain in Loess Plateau. Science China-Earth Sciences[J]. 2021, 64(1): 37-51, http://lib.cqvip.com/Qikan/Article/Detail?id=7103798201.

3.      Xie Jin, Yu Ye, Li Jiang-lin, et al., 2019, Comparison of surface sensible and latent heat fluxes over the Tibetan Plateau from reanalysis and observations, Meteorology And Atmospheric Physics, 131(3):567-584

4.      Cheng Haiyan, Yu Ye*, Chen Jinbei, et al., 2018, Validation of AIRS Retrieved Temperature and Moisture Products and Its Applicability for Boundary Layer Height Estimation in Loess Plateau. Plateau Meteorology,37(2): 432-442

5.      Xie Jin,Yu Ye*, Liu Chuan, et al., 2018, Characteristics of Surface Sensible Heat Flux over the Qinghai-Tibetan Plateau and Its Response to Climate Change. Plateau Meteorology, 37(1): 28-42

6.      Li Jianli, Yu Ye*, Zhao Suping, 2018, Effect evaluation of artificial precipitation in Altay Prefecture, Xinjiang. Journal of Glaciology and Geocryology, 40(2): 388-394

7.      Yin Daiying, Qu Jianjun, Yu Ye, 2018, Variations of the Components of Radiation in Desert Wetland of Dunhuang,China. Journal of Desert Research, 38(1): 172-181

8.      Ge Jun, Yu Ye*, Xie Jin, et al., 2018, A Study on Responses of Surface Energy Partitioning to Climatic Factors on Two Types of Underlying Surface over Qinghai-Xizang Plateau. Chinese Journal of Atmospheric Sciences, 41(5): 918-932

9.      He J. J., Yu Y.*, Yu L. J., et al., 2017, Impacts of uncertainty in land surface information on simulated surface temperature and precipitation over China. International Journal of Climatology, 37 (Suppl 1): 829-847.

10.   Li Zhenchao,Yang Jiaxi, Zheng Zhiyuan, Yu Ye, et al., 2017,Comparative study of the soil thermal regime in arid and semi-humid areas. Environmental Earth Sciences, 76(1): 28

11.   Ge Jun, Yu Ye*, Li Zhenchao, et al.,2016,  Impacts of Freeze/Thaw Processes on Land Surface Energy Fluxes in the Permafrost Region of Qinghai-Xizang Plateau. Plateau Meteorology,35(3): 608-620

12.   Chen Xing, Yu Ye*, Chen Jinbei, et al., 2016, Seasonal Variation of Radiation and Energy Fluxes over the Rain-Fed Cropland in the Semi-Arid Area of Loess Plateau. Plateau Meteorology, 35   (2): 351-362 

13.   Chen Xing, Yu Ye*, Chen Jinbei, et al., 2016, Seasonal and interannual variation of radiation and energy fluxes over a rain-fed cropland in the semi-arid area of Loess Plateau, northwestern China. Atmospheric Research, 17: 240-253  

14.   He J. J., Yu Y.*, Yu L J.., et al., 2016, Effect of soil texture and hydraulic parameters on WRF simulations in summer in east China. Atmospheric Science Letters, 17(10): 538-547

15.   Chen J., Hu Y., Yu, Y., 2015, Ergodicity test of the eddy-covariance technique. Atmospheric Chemistry And Physics,15(17): 9929-9944

16.   Liu Chuan, Yu Ye*, Xie Jing, 2015, Applicability of Soil Temperature and Moisture in Several Datasets over Qinghai-Xizang Plateau. Plateau Meteorology, 34(3): 653-665

17.   Chen Xing, Yu Ye*, Chen Jinbei, 2014, Study of Estimation of Soil Heat Flux at a Wheat Field in Semi-Arid Area of Loess Plateau. Plateau Meteorology, 33(6): 1514-1525

18.   He Jianjun, Yu Ye*, Liu Na, et al., 2014, Impact of Land Surface Information on WRF's Performance in Complex Terrain Area.Chinese Journal of Atmospheric Sciences, 38(3): 484-498

19.   Ma Chenchen, Yu Ye*, He Jianjun, 2014, Analyses of Simulation Result in Loess Plateau by WRF Model with Two Reanalysis Data. Plateau Meteorology, 33(3): 698-711

20.   Chen JinBei, Hu YinQiao, Lu ShiHua, Yu Ye, 2014, Influence of advection on the characteristics of turbulence over uneven surface in the oasis and the Gobi Desert. Science China-Earth Sciences, 57(9): 2242-2258

21.    He JianjunYu Ye*, Chen JinbeiLiu Na, Zhao SupingSimulation Study of the Influence of Vegetation Fraction on Meteorological Condition in Lanzhou Using WRF Model. Plateau Meteorology2012316):1611-1621

22.   *Yu, Ye, Cai, Xiaoming, Qie, Xiushu. Influence of topography and large-scale forcing on the occurrence of katabatic flow jumps in Antarctica: Idealized simulations. Advances in Atmospheric Sciences, 2007, 24(5), pp

23.   Yu, Ye, *Cai, Xiao-Ming. Structure and dynamics of katabatic flow jumps: Idealised simulations. Boundary-Layer Meteorology, 2006, 118(3), pp 527-555.

24.    *Yu, Y, Cai, XM, King, JC, Renfrew, IA, Numerical simulations of katabatic jumps in Coats Land, Antarctica. Boundary-Layer Meteorology, 2005, 114(2), pp 413-437.

25.   Chen Jinbei, Hu Yinqiao, Lu Shihua, Yu Ye. Experimental demonstration of the coupling effect of vertical velocity on latent heat flux. Sci China Ser D-Earth Sci, 2013,56: 1-9

26.   Chen Jin-Bei, Lu Shi-Hua, Yu Ye. Comparison of heat and matter transfer characteristics in the surface layers of oasis and Gobi. Chinese Journal of Geophysics-Chinese Edition. 2012, 55( 6): 1817-1830

27.   Wang Y, Long X, Yu Y, Zuo HCLiang Yiling. The Impacts of Various Meteorological Conditions on Air Quality Modeling Results over Complex Terrain. Chinese Journal of Atmospheric Sciences, 201337 (1): 14-22

Papers on Lightning Physics Research

1.       *Qie, XS, Yu, Y, Wang, DH, Wang, HB, Chu, RZ Characteristics of cloud-to-ground lightning in Chinese inland plateau. Journal of the Meteorologcal Society of Japan, 2002, 80(4), pp 745-754.

2.       *Qie, X, Yu, Y, Guo, C, Laroche, P, Zhang, G, Zhang, Q. Some features of stepped and dart-stepped leaders near the ground in natural negative cloud-to-ground lightning discharges. Annales Geophysicae, 2002, 20(6), pp 863-870.

3.       *Dong, WS, Liu, XS, Yu, Y, Zhang, YJ. Broadband interferometer observations of a triggered lightning. Chinese Science Bulletin, 2001,46(18), pp 1561-1565.

4.       *Qie, X, Yu, Y, Liu, X, Guo, C, Wang, D, Watanabe, T, Ushio, T. Charge analysis on lightning discharges to the ground in Chinese inland plateau (close to Tibet). Annales Geophysicae-Atmospheres Hydrospheres and Space Sciences, 2000, 18(10), pp 1340-1348.

5.       *Qie, X, Yu, Y, Liu, X, Zhang, G. ,Ushio, T. K-type breakdown process of intracloud discharge in Chinese inland plateau. Progress in Natural Science, 2000,8, pp 49-53.

6.       Yu Y, Qie XS, Yuan T. A Numerical Study on Charge Distribution in Leader Channel of Cloud-to-Ground Lightning Discharges. Plateau Meteorology, 2002,4, pp 375-380.

7.       Yu Y, Qie XS, Zhang YJ, Liu XS, Chen ML. Characteristics of the Electric Fields Produced by Negative Leader in One Thunderstorm in Guangdong. Acta Meteorologica Sinica, 2001,3, pp 341-351.

8.       Qie XS, Yu Y, Wang HB, Zhang CH. Analyese on Some Features of Ground Flashes in Chinese Inland Plateau, Plateau Meteorology, 2001,4, pp 395-401.

9.   Qie XS, YU Y, Zhang GS, Liu XS, Guo CM. Initial Process During one Negative Ground Lightning Discharge in Zhongchuan Area, Plateau Meteorology, 1998, 01, pp 37-4.


Research Interests

Mesoscale meteorological and Air Quality Modelling

Boundary layer processes

Land-atmopshere interaction

Boundary layer climate