余庆华

基本情况

姓名：余庆华

出生年月：1987年8月

职称：教授

导师类别：博士生导师、硕士生导师

主要研究方向：动力电池及热管理、整车热管理、液流电池、储热

工作单位：汽车工程学院

邮箱：qhyu@whut.edu.cn

教育背景

2009.09-2014.06 西安交通大学，动力工程及工程热物理，工学博士

2005.09-2009.07 西安交通大学，制冷与低温工程，工学学士

工作经历

2021.04-至今，  武汉理工大学，汽车工程学院，教授

2019.11-2021.03，香港理工大学，可再生能源研究室，研究助理教授

2016.06-2019.10，英国伯明翰大学，伯明翰储能中心，博士后研究员

2015.06-2016.05，武汉大学，动力与机械学院，讲师

2014.07-2015.05，中船重工719所，蒸汽动力实验室，工程师

奖励情况

[1]   湖北省科技进步奖三等奖，2025

[2]   第四届中国研究生“双碳”创新与创意大赛二等奖，2025

[3]   武汉理工大学汽车工程学院青年教师教学竞赛二等奖，2024

[4]   湖北省科技经济融合学会优秀项目二等奖，2023

[5]   第三届武汉理工大学教师教学创新大赛二等奖，2023

[6]   湖北省高层次人才，2022

[7]   武汉理工大学研究生能源装备大赛三等奖，2022

[8]   中国制冷学会优秀论文奖，2018

[9]   Outstanding Contribution in Reviewing，2018

[10]市创新创业大赛二等奖，2018

[11]优秀博士毕业生，2014

[12]博士研究生国家奖学金，2013

[13]夏安世教授奖学金，2009

学术兼职情况

湖北省科学技术厅权威专家库入库专家

武汉市新能源汽车产业协会专家库专家

科研项目情况

[1]   2023.07-2026.06，热泵辅助跨季节水体储热供热系统运行特性与优化研究，湖北省自然科学基金联合基金重点项目，主持

[2]   2022.01-2026.12，湖北省高层次人才启动资金项目，主持

[3]   2021.01-2023.12，锂电池热失控预警及自动灭火系统研究开发，湖北省重点研发计划，联合单位主持

[4]   2025.01-2028.12，无溶剂碳纳米流体流变机理及传热机制研究，国家自然科学基金联合基金项目，参与

[5]   2017.01-2019.12，组合动态磁场作用下硅熔体定向凝固的热质输运机理研究，国家自然科学基金青年项目，主持

[6]   2016.01-2017.12，基于压电材料的合成射流强化传热特性研究，湖北省自然科学基金青年项目，主持

[7]   2023.09-2026-06，动力电池低温快速加热技术，电动汽车产业联盟委托课题，主持

[8]   2025.10-2027.12，车载储热/蓄冷材料及装置研发，企业委托项目，主持

[9]   2025.07-2025.12，高温环境特种车辆热管理系统设计与仿真，企业委托项目，主持

[10]2024.09-2026.10，光储充一体化充电站配置优化方法研究，企业委托项目，主持

[11]2023.09-2025.09，储冷装备关键技术研发，企业委托项目，主持

[12]2023.10-2025.10，冷板散热性能分析和流道结构设计研发，企业委托项目，主持

[13]2022.09-2023.09，装配式能源岛仿真模拟分析，企业委托项目，主持

[14]2022.01-2022.12，氢-电-热多源混合动力系统设计及能量管理，中央高校基本业务专项资金，主持

[15]2020.01-2022.12，A novel indirect evaporative cooler for enhanced energy recovery in central air-conditioning systems，香港研究资助局，主要参与

[16]2015.10~2019.9，Cryogenic-temperature cold storage using microencapsulated phase change materials in slurries, 英国工程和物理科学研究理事会EPSRC，主要参与

[17]2016.03~2019.02，Adsorption cooling-energy conversion with encapsulated sorbents，英国工程和物理科学研究理事会EPSRC，主要参与

代表性学术成果

学术论文(*为通讯作者)：

[1] Yang J, Yu Q*, Chen S, Sun B, Li B. A flow field with superior rib-under mass transfer: Dual-boost for thermally regenerative flow battery output and thermoelectric conversion efficiency. Energy. 2026;344:140156.

[2] Yu Y, Yu Q*, Luo R, Chen S, Yang J, Yan F. Study on the relationship between lifetime and flow channel in proton exchange membrane fuel cells. Renew Energy. 2026;256:124057.

[3] Yu Y, Yu Q*, Luo R, Chen S, Yang J, Yan F. Study on the relationship between lifespan of proton exchange membrane fuel cells and sine wave flow channels. Energy. 2026;344:139935.

[4] Sun B, Yu Q*, Wang R, Jia N, Wang L. Regulation mechanism of thermal stratification in a single-tank sensible heat storage system using density-matched particles. Appl Therm Eng 2026;285:129262.

[5] He Z, Shi L*, Yu Q*, Li S, Yang J, Shu G. Performance analysis and optimization of thermally regenerative electrochemically cycled flow battery for low-temperature thermal energy collection. Journal of Energy Storage. 2026;148:119963.

[6] 李承晨, 余庆华*, 代慧涛, 贾娜, 王琳, 孙彬博. 基于SrBr2·6H2O的封闭式热化学反应器储/放能特性模拟研究. 储能科学与技术. 2025;14:3319-3329.

[7] Yu Q*, Ao R, Wang B, Li H. Performance analysis of a multi-channel membrane reactor for solar thermochemical ammonia decomposition. Appl Therm Eng 2025;280:128142.

[8] Yang J, Yu Q*, Ye W, Yu Y, Chen S. Performance analysis of PCM-based lithium-ion battery module thermal management system under mechanical vibration. Alexandria Engineering Journal. 2025;113:205-217.

[9] Yang J, Yu Q*, Lei Y, Chen S, Yu Y, Yan F. Effects of novel nonlinear flow channels inspired by classical mathematical function on the output performance and low-grade heat recovery efficiency of thermally regenerative ammonia-based flow battery. Appl Energy 2025;391:125917.

[10] Yang J, Yu Q*, Lei Y, Chen S, Yu Y, Yan F. Enhancing output performance and thermoelectric conversion efficiency in thermal regeneration ammonia-based flow battery through a novel W-like flow channel. International Journal of Hydrogen Energy. 2025;102:1193-1209.

[11] Yang J, Yu Q*, Chen S, Yu Y, Yan F, Li Y. Analysis of output performance and low-grade heat recovery efficiency in thermal regeneration ammonia-based flow battery under various flow fields. International Journal of Hydrogen Energy. 2025;156:150280.

[12] Yang J, Yu Q*, Chen S, Yan F, Jin Y. Performance enhancement of thermally regenerative flow battery by a novel design coupling Venturi-effect-inducing structure with nature-inspired flow distributors. Energy. 2025;337:138597.

[13] Wang B, Yu Q, Han Y, Yan F. Research on improving the low-temperature performance of lithium-ion battery based on electromagnetic induction heating method. Appl Therm Eng 2025;281:128547.

[14] Sun B, Yu Q*, Jia N, Wang L, Li C, Li Y. Reactive force field development and molecular dynamics simulation for thermochemical energy storage process based on potassium carbonate sesquihydrate. Comput Mater Sci 2025;260:114201.

[15] Li C, Yu Q*, Sun B, Li H, Li Y. Analysis of low-temperature thermochemical heat transformer system based on hydrated salt: Dynamic modelling and performance evaluation. Journal of Energy Storage. 2025;117:116166.

[16] 黄珂睿, 鲁锐华, 余庆华*, 李致远, 颜伏伍. 动力电池低温热管理系统评价技术研究. 汽车工程学报. 2024;14:479-490.

[17] 李致远, 鲁锐华, 余庆华*, 颜伏伍. 动力电池热失控特征及防控技术研究分析. 汽车工程. 2024;46:139-150.

[18] 彭钰祥, 余庆华*, 敖瑞, 颜伏伍. 燃料电池废热驱动弹热制冷装置性能分析. 汽车工程. 2024;46:662-668.

[19] Yu Y, Yu Q* Luo R, Chen S, Yang J, Yan F. Deep learning with dual-stage attention mechanism for interpretable prediction of proton exchange membrane fuel cell performance degradation. International Journal of Hydrogen Energy. 2024;58:902-911.

[20] Yu Y, Yu Q*, Luo R, Chen S, Yang J, Yan F. A predictive framework for PEMFC dynamic load performance degradation based on feature parameter analysis. International Journal of Hydrogen Energy. 2024;71:1090-1103.

[21] Yu Y, Yu Q*, Luo R, Chen S, Yang J, Yan F. Degradation and polarization curve prediction of proton exchange membrane fuel cells: An interpretable model perspective. Appl Energy 2024;365:123289.

[22] Yu Q*, Sun B, Li C, Yan F, Li Y. Analysis of heat charging and release processes in cascade phase change materials energy storage floor heating systems: Performance evaluation. Journal of Energy Storage. 2024;78:110020.

[23] Yu Q*, Ao R, Yan F, Liu X, Li Y. Numerical analysis on ammonia decomposition for hydrogen production in a membrane reactor assisted by a parabolic trough solar collector. Renew Energy. 2024;225:120302.

[24] Yang J, Yu Q*, Lei Y, Chen S, Yu Y, Yan F. A novel flow channel inspired by classical mathematical function: Enhancing output performance and low-grade heat recovery efficiency of thermal regeneration ammonia-based flow battery. Energy. 2024;313:133946.

[25] Yang J, Yu Q*, Chen S, Yan F, Yu Y. Analysis of discharge performance and thermo-electric conversion efficiency in thermally regenerative ammonia-based flow battery with foam copper electrode. Energy Convers Manage 2024;311:118523.

[26] He Z, Yu Q*, Ye J, Yan F, Li Y. Optimization of plate-fin heat exchanger performance for heat dissipation of thermoelectric cooler. Case Studies in Thermal Engineering. 2024;53:103953.

[27] Fan L, Yu Q*, Yu G, Yan F, Liu X. Numerical study on convective heat transfer characteristics of supercritical nitrogen in a helical cruciform tube. Appl Therm Eng 2024;243:122573.

[28] Yang J, Yu Q*, Chen S, Luo M, Du W, Yu Y, Wu Y, Zhou W, Zhou Z. Effect of mechanical vibration on thermal performance of PCM-fin structure Li-ion battery thermal management system under high-rate discharge and high-temperature environment. Int J Heat Mass Transf. 2023;217:124722.

[29] Yu Q*, Chen X, Yang H. Research progress on utilization of phase change materials in photovoltaic/thermal systems: A critical review. Renew Sust Energ Rev. 2021;149:111313.

[30] Yu Q*, Romagnoli A, Yang R, Xie D, Liu C, Ding Y, Li Y. Numerical study on energy and exergy performances of a microencapsulated phase change material slurry based photovoltaic/thermal module. Energy Convers Manage 2019;183:708-720.

[31] Yu Q*, Mei Z, Bai M, Xie D, Ding Y, Li Y. Cooling performance improvement of impingement hybrid synthetic jets in a confined space with the aid of a fluid diode. Appl Therm Eng 2019;157:113749.

[32] Yu Q*, Jiang Z, Cong L, Lu T, Suleiman B, Leng G, Wu Z, Ding Y, Li Y. A novel low-temperature fabrication approach of composite phase change materials for high temperature thermal energy storage. Appl Energy 2019;237:367-377.

发明专利：

[1] 余庆华,刘与周,王振宇,金世征,白坷强,蒲虹钧,颜伏伍. 基于可变几何涡轮的混动汽车废气能量回收装置及方法,2025,专利号：ZL202310660053.5。 (授权)

[2] 余庆华,颜伏伍,彭钰祥. 低噪声氨氢电驱动系统,2024,专利号：ZL202310127554.7。（授权）

[3] 余庆华,敖瑞,颜伏伍.驱动电机的氢-电-热多源混合动力系统,2025,专利号：ZL202211188680.5。（授权）

[4] 余庆华,赵鹏程,史凯旋.一种基于相变微胶囊液浆储冷装置的冷却系统及其运行方法, 2019,专利号: ZL201710600876.3。（授权）

[5] Yongliang Li, Yulong Ding, Qinghua Yu, Shangfeng Du. Thermal management, 2020, 专利号: WO2020/084280A1。（国际专利授权）

[6] 余庆华,屈震东,张智博,谢小烨,陈颖宇,张晨杰. 一种半浸没与全浸没可切换的电池热管理系统,2025,专利号：CN202511012801.4。（公开）

[7] 余庆华,李致远,颜伏伍,黄珂睿,康健强. 一种低温工况下动力电池快速加热电路及控制方法,2024,专利号：CN202311708639.0。（公开）

[8] 余庆华,张晨杰,杨致,郝家乐,丁乐章,余泽阳. 一种废气余热余湿回收利用装置,2025,专利号：CN202510004909.2。（公开）

[9] 余庆华,王瑞敏,孙彬博,李承晨,黎昊为. 基于光伏直驱的跨季节水体储热供热系统及方法,2025,专利号：CN202510117220.0。（公开）

[10] 吕栋梁,孙志超,王波帆,余庆华,赵志伟. 耦合宽温域与热管理的光储充一体化控制方法及系统,2025,专利号：CN202510742416.9。（公开）

[11] 余庆华,李致远,黄珂睿,何梓楦,颜伏伍. 一种电池热管理与热失控抑制一体化装置及控制方法,2023,专利号：CN202311215429.8。（公开）

著作：

[1] Qinghua Yu, Tongtong Zhang, Xiaodong Peng, Lige Tong, Li Wang, Xiaohui She, Yongliang Li, Haisheng Chen, Yulong Ding*. Cryogenic energy storage and its integration with nuclear power generation for load shift, Charpter 8 In Storage and Hybridization of Nuclear Energy, Elsevier, Online (2018). [Book Chapter]

[2] Yongliang Li; Qinghua Yu ; Adriano Sciacovelli ; Ren Yang ; Jian Xu ; Tiejun Lu. Applications of Thermal Energy Storage through Integration, Chapter 13 in Thermal Energy Storage: Materials, Devices, Systems and Applications, Royal Society of Chemistry, Online (2021). [Book Chapter]