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| 1 | Expression of ERCC1, TYMS, RRM1, TUBB3, non-muscle myosin II, myoglobinand MyoD1 in lung adenocarcinoma pleural effusions predicts survival in patientsreceiving platinum-based chemotherapy显示文摘 | Haijiao Jiang He Wang Shiyu Wang Zhengtong Pei Zhimin Fu Changqing Fang Jian Wang Qingjie Lu Enhua Wang Jianhua Li | 2015 | Molecular Medicine Reports2015，，： | 1 |
| 2 | Synthesis, spectral and structural characterization and thermal decomposition kinetics of dinitrato ( N, N, N',N'-tetra-n-butyl aliphatic diamide) urany (II) by thermogravimetric analysis 显示文摘 | Lu Zhengtong Sun Jianping Yang Li | 1995 | Thermochim Acta1995，255，1： | 1 |
| 3 | A Numerical Study for Turbulent Flow and Thermal Influence over Inhomogenous Canopy of Roughness Elements显示文摘 | Zhengtong Xie Jiachun Li | 2005 | Environmental Fluid Mechanics2005，，6： | 1 |
| 4 | An SGS Model and Its Application显示文摘Based on the turbulent energy and structure function model, a subgridstress model named transitional structure function (TSF) is proposed, which exhibitsmore satisfactory performance than the previous one when applied in turbulent flow withinand above forest canopy.The time and horizontal averaged statistics such as mean verticalprofiles of wind velocity, Reynolds stress, turbulent kinetic energy etc., and instantaneousfields as well are in general agreement with earlier observations, at least in a qualitativesense. | Zhengtong XIE Jiachun LI (Institute of Mechanics, Chinese Academy of Sciences, Beijing 100080, China) | 1999 | Communications in Nonlinear Science and Numerical Simulation1999，4，2： | 0 |
| 5 | Novel advances in metal-based solar absorber for photothermal vapor generation显示文摘Access to safe drinking water has become an extremely urgent research topic wo rldwide.In recent years,the technology of solar vapor generation has been extensively explored as a potential and effective strategy of transforming elements content in seawater.In this review,the basic concepts and theories of metal-based photothermal vapor generation device(PVGD) with excellent optical and thermal regulatory are introduced.In the view of optical regulation,how to achieve high-efficiency localized evaporation in different evaporation system(i.e.,volumetric solar heating and interface solar heating) is discussed;from the aspect of thermal regulation,the importance of selective absorption surface for interfacial PVGD is analyzed.Based on the above discussion and analysis,we summarize the challenges of metal-based desalination device. | Zhengtong Li Chengbing Wang | 2020 | Chinese Chemical Letters2020，31，9： | 0 |
| 6 | Effect of traffic tidal flow on pollutant dispersion in various street canyons and corresponding mitigation strategies显示文摘Increasing traffic emission presents a high risk of exposure to residents in near-road buildings.Traffic tidal flow(TTF)has gradually become one of the most important components of urban traffic congestion.By computational fluid dynamics simulation,the present study examines the airflow,spatial distribution of pollutant concentration,and personal intake fraction(IF_p)of CO in five street canyon structures(shallow,regular,deep,step-up,and step-down street canyons),with non-uniform TTF-induced traffic emission considered.Optimal urban design devices(wind catchers)are subsequently introduced to reduce IF_p.The results suggest that leeward IF_p is far higher in concentration than the windward wall in the shallow,regular,step-up,and step-down street canyons but lower than the windward side in the deep street canyon under different TTF conditions.Moreover,the TTF condition S L(leeward source)/S W(windward source)=3/1 leads to a higher leeward IF_p in the shallow,regular,deep,and step-up street canyons,compared with S L/S W=1/3;however,no significant difference in windward IF_p is found under the different TTF conditions.The highest IF_p and lowest IF_p for both TTF configurations occur in the step-down and shallow street canyons,respectively.Finally,the effect of wind catchers(WCs)varies between the street canyon structures under different TTF conditions.WCs can lead to at least 30.6%reduction in leeward overall average IF_p()in the shallow,regular,step-up,and step-down street canyons,as well as 12.8%-78.4%decrease in windwardowing to the WCs in the regular,deep,step-up,and step-down street canyons. | Zhengtong Li Tianhao Shi Yongjia Wu Hao Zhang Yu-Hsuan Juan Tingzhen Ming Nan Zhou | 2020 | Energy and Built Environment2020，1，3： | 0 |
| 7 | The effect of noise barriers on viaducts on pollutant dispersion in complex street canyons显示文摘The noise reduction effect of noise barriers has been extensively studied,but the effect on pollutant dispersion remains unclear.A computational fluid dynamics(CFD)simulation is conducted to investigate the effects of different heights,lengths,and types of noise barriers and different wind speeds on pollutant dispersion in street canyons with viaducts.The field synergy theory of the convective mass transfer process is used for quantitative analysis of pollutant dispersion in street canyons.The results show that as the height and length of the noise barrier increase,the pollutant dispersion capacity decreases.As the wind speed increases,the rate of decrease in the average CO concentration declines.The effect of the wind speed on the synergistic improvement of the speed and concentration gradient vectors differs for different types of noise barriers.The performance follows the order:fully-closed noise barrier>left noise barrier>right noise barrier>semi-closed noise barrier.The different noise barrier types significantly impact the flow field and pollutant dispersion and reduce the CO concentration to varying degrees,except for the fully-closed type.The average CO concentration in the pedestrian breathing zone is reduced by a maximum of 55.85%on the leeward side and by 53%on the windward side,indicating that an appropriate noise barrier on the viaduct reduces noise pollution and improves the air quality in street canyons,especially in the pedestrian breathing zone. | Tingzhen Ming Fangyan He Yongjia Wu Tianhao Shi Changrong Su Caixia Wang Zhengtong Li Wei Chen Renaud de Richter | 2023 | Energy and Built Environment2023，4，5： | 0 |
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