出生年月：

职称：

党政职务：

研究方向：

通讯地址：

电子邮箱：

教育背景：

1. 1993-1997 东南大学，本科 生产过程自动化；

2. 1997-2003 东南大学，直博生 热能工程；

3. 2004-2005 上海理工大学 博士后 热能工程；

工作履历：

学术兼职：

1. 上海市制冷学会会员；

2. 上海市工程热物理学会会员；

研究领域：

1.区域供热/供冷；

2.楼宇中央空调水系统；

3.城市燃气输配系统；

4.电力输配系统；

5.多能耦合综合能源系统；

6.能源互联网理论与应用。

在研项目 ：

十三五国家科技重点支撑项目,既有居住建筑公共设施功能提升关键技术研究（2017YFC0702907）

十三五国家科技重点支撑项目,城市市政管网运行安全保障技术研究(2016YFC0802406)

学术成果与奖励：

1. 建立了新的区域供热、供冷系统的稳态模型和非稳态模型；所提出的模型可适用于3维立体拓扑结构的热网；
2. 建立了楼宇内空调水系统的稳态模型和非稳态模型；
3. 建立了含疏水量数值计算的蒸汽输配两相流稳态和非稳态模型；
4. 完成了流体网络全工况模拟的求解器软件；
5. 建立了一种基于“能源总线”的区域能源规划方法；
6. 建立了一种基于云计算和模型预测的分布式变频水泵的调频控制方法；
7. 建立了一次热网智慧运行的仿真软件；
8. 建立了基于“大数据”和“5G通信”的城市燃气管网输配仿真软件。

论文：

[0]. H. Wang, D. Chen, G. Yuan, X. Ma, X. Dai. Morphological characteristics of waste polyethylene/polypropylene plastics during pyrolysis and representative morphological signal characterizing pyrolysis stages. Waste Management 33 (2013) 327-339.

[1]. Hai Wang, Haiying Wang, Tong Zhu, Wanli Deng. A novel model for steam transportation considering drainage loss in pipeline networks. Applied Energy 188 (2017) 178-189.

[2]. Hai Wang, Haiying Wang, Tong Zhu. A new hydraulic regulation method on district heating system with distributed variable-speed pumps. Energy Conversion and Management 147 (2017) 174-189.

[3]. Hai Wang, Haiying Wang, Zhou Haijian, Tong Zhu. Optimization modeling for smart operation of multi-source district heating with distributed variable-speed pumps. Energy 138 (2017) 1247-1262.

[4]. Hai Wang, Haiying Wang, Haijian Zhou, Tong Zhu. Modeling and optimization for hydraulic performance design in multisource district heating with fluctuating renewables. Energy Conversion and Management 156 (2018) 113-129.

[5]. Hai WANG, Hai-ying WANG, Tong ZHU, Nai-ping GAO. Evaluation on energy performance in a low temperature district heating system integrated with Organic Rankine Cycle in North China. Journal of Zhejiang University: Science A, (Appl Phys & Eng) 2018 19(6):461-478.

[6]. Hai Wang, Hua Meng, Tong Zhu. New model for onsite heat loss state estimation of general district heating network with hourly measurements. Energy Conversion and Management. 157 (2018) 71-85.

[7]. Hai Wang, Hua Meng. Improved thermal transient modeling with new 3-order numerical solution for a district heating network with consideration of the pipe wall's thermal inertia. Energy 160 (2018) 171-183.

[8]. Liuchen Liu, Tong Zhu, Yu Pan, Hai Wang. Multiple energy complementation based on distributed energy systems – Case study of Chongming county, China. Applied Energy 192 (2017) 329-336.

[9]. L.J. Yin, D.Z. Chen, H. Wang, X.B. Ma, G.M. Zhou. Simulation of an innovative reactor for waste plastics pyrolysis. Chemical Engineering Journal 237 (2014) 229-235.

[10]. Qiongmin Cao, Guoan Yuan, Lijie Yin, Dezhen Chen, Pinjing He, Hai Wang. Morphological characteristics of polyvinyl chloride (PVC) dechlorination during pyrolysis process: Influence of PVC content and heating rate. Waste Management 58 (2016) 241-249.

[11]. Hai Wang, Hua Meng, Weiding Long. A District Energy Planning Method with Mutual Interconnection and Interchange of Thermal Grids. Procedia Engineering 205 (2017) 1412–1419.

[12]. Wang Hai, Liu Xiaojing , Zhou Weiguo. Transient flow simulation of municipal gas pipelines and networks using semi implicit finite volume method. 2011 SREE Conference on Engineering Modelling and Simulation (CEMS 2011). Procedia Engineering 12 (2011) 217–223.

[13]. Wang Hai, Chen Dezhen, Wang Zhonghui, Zhou Gongming. Waste plastic pyroysis process control method based on Morphological characteristics. 2011 IEEE Power Engineering and Automation Conference (PEAM 2011), p 248-51, 2011.

[14]. 王海，王海鹰，朱彤，周海珠. 基于面向对象方法的多源环状管网水力计算. 计算物理, 2012, Vol.29, NO.5. 713-720.

[15]. 王海，王海鹰，周海珠.多热源环状管网的面向对象水力计算方法. 浙江大学学报（工学版），2012, Vol.46, NO.10. 1900-1909.

[15]. 王海,王海鹰,周伟国,周海珠. 供热管网中管段阻力系数的辨识方法.计算物理, 2013, Vol.30, NO.3. 423-432.

[16]. 王海,王海鹰,朱彤. 一种新的分布式水泵供热布置方案分析. 土木建筑与环境工程. 2013, Vol.35, NO.5. 98-105.

[17]. 王海,周海舰,王海鹰. 多热源环状供热系统中分布式水泵的调频方法. 区域供热. 2016, NO.5. 17-24.

[18]. 王海,周海舰,朱彤. 新一代节能供热网络的立体拓扑结构建模. 暖通空调. 2017, Vol.47, NO.8. 138-144.