艾正涛博士的研究兴趣为健康建筑、建筑环境生物安全、人员暴露与防护、建筑智慧环控、建筑通风节能等。


本课题组每年招募数名硕士研究生，2名博士研究生，及博士后研究员，欢迎来信交流咨询。
博士后招聘公告详见：https://mp.weixin.qq.com/s/MoecYj39Y5ZfpU35mwomdg




基本信息
姓名：艾正涛
学位：博士
职称：教授、博士生导师
研究领域：建筑环境健康与安全
通讯地址：湖南省长沙市岳麓区麓山南路湖南大学土木工程学院，410082
邮箱：zhengtaoai@hnu.edu.cn
教育背景
2012.07 - 2015.05，香港理工大学屋宇设备工程系，博士

2008.09 - 2011.03，同济大学供热供燃气通风及空调工程系，硕士
2009.09 - 2010.08，香港理工大学屋宇设备工程系，硕士交流学习
2004.09 - 2008.06，西南交通大学建筑环境与设备工程系，学士
2008.02 - 2008.06，新加坡淡马锡理工学院燃料电池中心，本科交流学习
工作履历
2019.05 - 至今， 湖南大学建筑环境与能源工程系，教授、博士生导师、岳麓****
2016.10 - 2019.04， 丹麦技术大学国际室内环境与能源中心，欧盟玛丽居里研究员
2015.05 - 2016.10， 香港理工大学屋宇设备工程系，博士后研究员
2011.09 - 2012.05， 香港理工大学屋宇设备工程系，研究助理
学术兼职
[12] 湖南省政府发展研究中心湖南省研究智库成员
[11] 湖南省建设科技与建筑节能协会生态乡村建设专业委员会，秘书长
[10] 湖南大学学报（自然科学版）青年编委
[9] 国际期刊Energy and Built Environment助理编辑Assistant Editor
[8]国际室内空气品质与气候学会(ISIAQ)会员
[7] 国际建筑性能模拟学会(IBPSA)会员
[6] 环境科学学会室内环境与健康分会会员
[5] 建筑学会会员
[4]欧盟玛丽居里学委会(MCAA)会员
[3] Indoor Air、Healthy Buildings、华人能源与人工环境等国际会议学术委员会委员、会场主席
[2]比利时FWO等国家基金申请书国际通信评审人
[1]建筑环境健康与节能领域20余个SCI期刊及包括Indoor Air在内的多个国际会议审稿人
研究领域
针对健康与能源激烈对冲下的人居空间营造难题，课题组正开展健康建筑、建筑环境生物安全、人员暴露与防护、建筑智慧环控、建筑通风节能等研究，通过暖通学科与生物、流行病学、材料、控制学科的交叉融合，结合工程科学的“源头治理”和医学的“预防优先”思想和方法，探索机理、发展创新解决方法和技术，致力于提升建筑环境生物安全、人员防护能力、室外空气通风利用率以及应对公共卫生事件（突发疫情、生化袭击）和气候变化的环控韧性。



科研项目
[17] 国家海外人才计划青年项目，建筑环境生物安全与防护，2021年起，在研，主持
[16] 中国工程院战略研究与咨询项目，城市基础设施智能监控及管理战略体系研究，2021.01-2021.12，在研，参与
[15] 湖南大学土木工程学院高水平国（境）外****项目，加拿大Sherbrooke大学****，发展安全与节能的高层建筑通风系统，2021.01-2023.12，在研，主持
[14] 丹麦高等教育与科学部基金，Airborne transmission of infectious diseases: mechanism and ventilation intervention, 2021.01-2021.12，在研，参与
[13] 湖南省学位与研究生教育改革研究项目，“双一流”建设背景下土木类研究生国际联合培养模式探索与实践，2021.01-2022.12，在研，参与
[12] 国家自然科学青年基金(**)，短期事件中传染病空气传播规律及时均暴露剂量不确定性研究，2020-2022，在研，主持

[11] 湖南大学科研启动基金，建筑环境健康与节能，2019起，在研，主持
[10] 国际能源署，IEQ-EBC ANNEX80，Resilient Cooling for Residential and Small Commercial Buildings, 2019-2023，在研，参与

[9] 丹麦Ramboll基金，Improved methodology for CO2 based design of building ventilation，2018-2020，在研，参与

[8] 丹麦技术大学和欧盟玛丽居里行动计划联合资助(FP7/2007-2013: No.609405), Dynamics and time scales of airborne transmission in indoor environments, 2016-2019, 已结题，主持

[7] 联合国食品和农业组织(FAO)，Community-level risks of aerosolized transmission of zoonotic HPAI H5N1 in farms and live bird markets (LBMs)，2015-2018，已结题，主研

[6] 香港-环境及自然保育基金(ECF 18/2014)，Envelope design to improve ventilation performance of residential buildings in dense urban environment，2015-2017，已结题，主研

[5] 香港-大学教育资助委员会(RGC-CRF: No. C5002-14GF)，Development of design methodologies for the improvement of wind and thermal comfort in the urban environment，2015-2018，已结题，主研

[4] 香港-环境及自然保育基金(ECF 23/2011)，Green features for sustainable daylighting design in buildings，2013-2015，已结题，主研

[3] 香港-环境及自然保育基金(ECF 23/2009)，Green features for improvement of air quality in buildings，2011-2013，已结题，主研

[2] 香港理工大学基金(PolyU: GU841)，Prediction of flow-generated noise produced by in-duct rigid spoilers using Computational Fluid Dynamics，2011-2013，已结题，主研
[1] 香港理工大学基金(PolyU: SURF No. 1-ZV4S)，Development of designed features for sustainable green buildings，2009-2012，已结题，主研
学术成果
主持/参与中国、欧盟及香港地区资助的科研项目近20项，发表SCI学术论文40余篇，受邀撰写英文书籍2章，授权国家发明专利1项，软件著作权2项，参加国际国内学术会议并做报告30余次，在国内外高校和国际学术会议研讨会做邀请报告近20次。代表性成果如下：
A.呼吸道传染病交叉感染机理与防控
[11] S. Zhang,Z.T. Ai*, Z. Lin*, 2021. Novel demand-controlled optimization of constant-air-volume mechanical ventilation for indoor air quality, durability and energy saving, Applied Energy, In press.
[10] S. Zhang,Z.T. Ai, Z. Lin, 2021. Occupancy-aided ventilation for both airborne infection risk control and work productivity, Building and Environment, 188, 107506.
[9] A.K. Melikov,Z.T. Ai*, D.G. Markov, 2020. Intermittent occupancy combined with ventilation: an efficient strategy for the reduction of airborne transmission indoors, Science of the Total Environment, 744, 140908.
[8]Z.T. Ai*, C.M. Mak, N.P. Gao, J.L. Niu, 2020, Tracer gas is a suitable surrogate of exhaled droplet nuclei for studying airborne transmission in the built environment. Building Simulation, In press.
[7]Z.T. Ai*, T. Huang, A.K. Melikov, 2019, Airborne transmission of exhaled droplet nuclei between occupants in a room with horizontal air distribution. Building and Environment, Accepted.
[6]Z.T. Ai*, K. Hashimoto, A.K. Melikov, 2019, Influence of pulmonary ventilation rate and breathing cycle period on the risk of cross-infection. Indoor Air, Accepted.
[5]Z.T. Ai*,K. Hashimoto, A.K. Melikov, 2019. Airborne transmission between room occupants during short-term events: measurement and evaluation. Indoor Air, 29(2019), 563-576.
[4]Z.T. Ai*,A.K. Melikov, 2018. Airborne spread of expiratory droplet nuclei between the occupants of indoor environments: a review. Indoor Air, 28(4), 500-524.
[3]Z.T. Ai, C.M. Mak, 2016. Large eddy simulation of wind-induced interunit dispersion around multistory buildings. Indoor Air, 26:259-273.
[2]Z.T. Ai, C.M. Mak, 2014. A study of interunit dispersion around multistory buildings with single-sided ventilation under different wind directions. Atmospheric Environment 88, 1-13.
[1]Z.T. Ai, C.M. Mak, J.L. Niu, 2013. Numerical investigation of wind-induced airflow and interunit dispersion characteristics in multistory residential buildings. Indoor Air 23, 417-429.
B. 建筑通风及建筑空气动力学
[7]Z.T. Ai, C.M. Mak, 2018. Wind-induced single-sided natural ventilation in buildings near a long street canyon: CFD evaluation of street configuration and envelope design. Journal of Wind Engineering and Industrial Aerodynamics, 172, 96-106.
[6]Z.T. Ai, C.M. Mak, 2016. Short-term mechanical ventilation of air-conditioned residential buildings: A general design framework and guidelines. Building and Environment, 108, 12-22.
[5]Z.T. Ai, C.M. Mak, D.J. Cui, P. Xue, 2016. Ventilation of air-conditioned residential buildings: A case study in Hong Kong. Energy and Buildings 127, 116-127.
[4]Z.T. Ai, C.M. Mak, 2015. From street canyon microclimate to indoor environmental quality in naturally ventilated urban buildings: Issues and possibilities for improvement. Building and Environment 94, 489-503.
[3]Z.T. Ai, C.M. Mak, D.J. Cui, 2015. On-site measurements of ventilation performance and indoor air quality in naturally ventilated high-rise residential buildings in Hong Kong. Indoor and Built Environment 24(2), 214-224.
[2]Z.T. Ai, C.M. Mak, 2014. Analysis of fluctuating characteristics of wind-induced airflow through a single opening using LES modeling and the tracer gas technique. Building and Environment 80, 249-258.
[1]Z.T. Ai, C.M. Mak, 2014. Determination of single-sided ventilation rates in multistory buildings: Evaluation of methods. Energy and Buildings 69, 292-300.
C.计算流体力学CFD应用及基础问题
[6] Y.W. Dai, C.M. Mak,Z.T. Ai, 2019. Flow and dispersion in coupled outdoor and indoor environments: issue of Reynolds number independence. Building and Environment, 150, 119-134.
[5]Z.T. Ai, C.M. Mak, 2017. CFD simulation of flow in a long street canyon under a perpendicular wind direction: Evaluation of three computational settings. Building and Environment, 114, 293-306.
[4]Z.T. Ai, C.M. Mak, 2015. Large-eddy simulation of flow and dispersion around an isolated building: Analysis of influencing factors. Computers and Fluids 118, 89-100.
[3]Z.T. Ai, C.M. Mak, 2014. Potential of using reduced-scale models in CFD simulations in saving numerical resources: Theoretical analysis and case study for flow around an isolated building. Journal of Wind Engineering and Industrial Aerodynamics 134, 25-29.
[2]Z.T. Ai, C.M. Mak, 2014. Modelling of coupled urban wind flow and indoor air flow on a high-density near-wall mesh: sensitivity analyses and case study for single-sided ventilation. Environmental Modelling and Software 60, 57-68.
[1]Z.T. Ai, C.M. Mak, 2013. CFD simulation of flow and dispersion around an isolated building: Effect of inhomogeneous ABL and near-wall treatment. Atmospheric Environment 77, 568-578.


D.专利软著
[2] 宋鸽，艾正涛，张国强，唐磊，2020，建筑通风冷却潜力计算软件.

[1] 艾正涛，邢超杰，刘政轩，2020，一种医用可佩戴式防护口鼻的微型气幕系统.
奖励与荣誉
[1] 欧盟研资局玛丽居里****，2016
[2]湖南大学岳麓****，2019
[3]湖南大学新入职教师讲课比赛三等奖，2019
[4]国家海外人才计划青年项目，2020