School of Mechanical Engineering
Professor
国家储能技术产教融合创新平台常务副主任
022-27406842
kjiao@tju.edu.cn
Tianjin University,135 Yaguan Rd, Jinnan District, Tianjin, China, 300350
Kui Jiao is currently a chair professor at the State Key Laboratory of Engines and the executive deputy director of the National Industry-Education Platform of Energy Storage, at Tianjin University, China. He received his PhD degree in mechanical engineering from the University of Waterloo, Canada, in 2011. His research interest includes fuel cell, electrolysis cell, battery, thermoelectric generator, turbocharger compressor, combustion engine and other energy conversion technologies. He has published several books and more than 200 papers in highly reputed international journals, including Nature. He served as the Chair for several international conferences such as International Conference on Energy and AI. He was granted the “National Natural Science Foundation of China— Outstanding Youth Foundation” and the “UK Royal Society—Advanced Newton Fellowship.” He has led more than 30 national and industrial projects and provided modeling and design services in the development of fuel cell engines for several major fuel cell manufacturers such as FAW, SAIC Motor, Bosch and Weichai Power. He serves as the founding editor of Energy and AI, associate editor of International Journal of Green Energy, and specialty chief editor of Frontiers in Energy Research. He is the chair of the Energy Storage Division of the International Association for Green Energy, and Fellows of the Royal Society of Chemistry (FRSC) and the Institution of Engineering and Technology (FIET).
- Doctoral degree| University of Waterloo, Canada| Mechanical Engineering| 2011
- Master’s Degree| Windsor University, Canada| Mechanical Engineering | 2007
- Bachelor’s Degree| Windsor University, Canada| Mechanical Engineering| 2005
- Energy storage, conversion, and ultization in fuel cells, electrolysis cells, lithium-ion battery, thermoelectric generator, internal combustion engines, gas turbines, and other devices
- Papers
- [1] 1. K Jiao*, J Xuan, Q Du, Z Bao, B Xie, B Wang, Y Zhao, L Fan, H Wang, Z Hou*, S Huo, Nigel P. Brandon, Y Yin, Michael D. Guiver*. Designing the next generation of proton-exchange membrane fuel cells. Nature 595, 361-369 (2021).
- [2] 2. D Jin*, K Jiao*. Charging Infrastructure Intellectualization and Future of Different Automotive Powertrains. Joule 4, 1626–1636 (2020).
-
- [3] 3. G Zhang, Z Qu*, W Tao, X Wang, L Wu, S Wu, X Xie, C Tongsh, W Huo, Z Bao, K Jiao*, Y Wang*. Porous Flow Field for Next-Generation Proton Exchange Membrane Fuel Cells: Materials, Characterization, Design, and Challenges. Chemical Reviews 123, 989-1039 (2020).
- [4] 4. L Fan, H Deng, Y Zhang, Q Du, Dennis Y. C. Leung, Y Wang, K Jiao*. Towards ultralow platinum loading proton exchange membrane fuel cells. Energy & Environmental Science 16, 1466-1479 (2023).
- [5] 5. Z Niu, Valerie J. Pinfield, B Wu, H Wang, K Jiao*, Dennis Y.C. Leung*, J Xuan*. Towards the digitalization of porous energy materials: evolution of digital approaches for microstructural design. Energy & Environmental Science 14, 2549-2576 (2021).
- [6] 6. Y Luo, K Jiao*. Cold start of proton exchange membrane fuel cell. Progress in Energy and Combustion Science 64, 29-61 (2018).
- [7] 7. K Jiao, X Li*. Water transport in polymer electrolyte membrane fuel cells. Progress in Energy and Combustion Science 37, 221-291 (2011).
- [8] 8. Y Wang, C Wu, S Zhao, Z Guo, M Han, T Zhao, B Zu, Q Du*, M Ni*, K Jiao*. Boosting the performance and durability of heterogeneous electrodes for solid oxide electrochemical cells utilizing a data-driven powder-to-power framework. Science Bulletin 68, 516-527 (2023).
- [9] 9. Z Bao, B Xie, W Li, S Zhong, L Fan, C Tongsh, F Gao*, Q Du, Mohamed Benbouzid, K Jiao*. High-consistency proton exchange membrane fuel cells enabled by oxygen-electron mixed-pathway electrodes via digitalization design. Science Bulletin 68, 266-275 (2023).
- [10] 10. W Huo, P Wu, B Xie, Q Du, J Liang, Z Qin, G Zhang, I Sarani, W Xu, B Liu, B Wang, Y Yin, J Lin, K Jiao*. Elucidating non-uniform assembling effect in large-scale PEM fuel cell by coupling mechanics and performance models. Energy Conversion and Management 277, 116668 (2023).
- [11] 11. X Zhang, B Wang*, Y Xu, L Wu, F Zhang, S He, X Zhang*, K Jiao*. Effects of different loading strategies on the dynamic response and multi-physics fields distribution of PEMEC stack. Fuel 332, 126090 (2023).
- [12] 12. F Zhang, B Wang, Z Gong, X Zhang, Z Qin, K Jiao*. Development of photovoltaic-electrolyzer-fuel cell system for hydrogen production and power generation. Energy 263, 125566 (2023).
- [13] 13. W Li, Q Du*, G Guo, C Wu, K Jiao*. Enhanced electrochemical and thermal behavior of lithium-ion batteries with ultrathick electrodes via oriented pores. Applied Thermal Engineering 228, 120555 (2023).
- [14] 14. B Wang, M Ni*, S Zhang, Z Liu, S Jiang, L Zhang, F Zhou*, K Jiao*. Two-phase analytical modeling and intelligence parameter estimation of proton exchange membrane electrolyzer for hydrogen production. Renewable Energy 211, 202-213 (2023).
- [15] 15. B Wang, M Ni, K Jiao*. Green ammonia as a fuel. Science Bulletin 67, 1530-1534 (2022).
- [16] 16. C Wu, Y Wang, Y Hou, X Li, Z Peng, Q Du*, M Ni*, K Jiao*. Reconstruction and optimization of LSCF cathode microstructure based on Kinetic Monte Carlo method and Lattice Boltzmann method. Chemical Engineering Journal 436, 132144 (2022).
- [17] 17. J Wang, B Wang, C Tongsh, T Miao, P Cheng, Z Wang, Q Du, K Jiao*. Combining proton and anion exchange membrane fuel cells for enhancing the overall performance and self-humidification. Chemical Engineering Journal 428, 131696 (2022).
- [18] 18. W Li, Z Bao, Q Du*, Y Xu, K Jiao*. Open-Source CFD Elucidating Mechanism of 3D Pillar Electrode in Improving All-Solid-State Battery Performance. Advanced Science 9, 2105454 (2022).
- [19] 19. J Liang, L Fan, T Miao, X Xie, Z Wang, X Chen, Z Gong, H Zhai, K Jiao*. Cold start mode classification based on the water state for proton exchange membrane fuel cells. Journal of Materials Chemistry A 10, 20254-20264 (2022).
- [20] 20. Z Qin, W Huo, Z Bao, C Tongsh, B Wang, Q Du*, K Jiao*. Alternating Flow Field Design Improves the Performance of Proton Exchange Membrane Fuel Cells. Advanced Science 10, 2205305 (2022).
- [21] 21. Y Wang, C Wu, S Zhao, Z Guo, B Zu, M Han, Q Du*, M Ni*, K Jiao*. Assessing performance degradation induced by thermal cycling in solid oxide cells. Energy Conversion and Management 270, 116239 (2022).
- [22] 22. B Xie, M Ni, G Zhang, X Sheng, H Tang, Y Xu, G Zhai, K Jiao*. Validation methodology for PEM fuel cell three-dimensional simulation. International Journal of Heat and Mass Transfer 189, 122705 (2022).
- [23] 23. Z Gong, B Wang, K Wu, T Miao, K Yang, S Zhai, R Ma, F Gao, K Jiao*. A 1+1-D Multiphase Proton Exchange Membrane Fuel Cell Model for Real-Time Simulation. IEEE Transactions on Transportation Electrification 8, 2928-2944 (2022).
- [24] 24. X Li, Y Hou, C Wu, Q Du, K Jiao*. Interlink among catalyst loading, transport and performance of proton exchange membrane fuel cells: a pore-scale study. Nanoscale Horizons 7, 255-266 (2022).
- [25] 25. Z Gong, B Wang, Y Xu, M Ni, Q Gao, Z Hou, J Cai, X Gu, X Yuan, K Jiao*. Adaptive optimization strategy of air supply for automotive polymer electrolyte membrane fuel cell in life cycle, Applied Energy 325, 119839 (2022).
- [26] 26. L Fan, Y Wang*, K Jiao*. Enhancing oxygen transport in the ionomer film on platinum catalyst using ionic liquid additives. Fundamental Research 2, 230-236 (2022).
- [27] 27. Y Zhang, L Fan, J Wang, H Deng, W Shi, Q Du, Z Hou, K Jiao*. Enhanced oxygen transport in ionomer films on platinum electrodes via a local electric field. Journal of Materials Chemistry A 10, 21102-21111 (2022).
- [28] 28. Y Wang, C Wu, S Zhao, J Wang, B Zu, M Han, Q Du*, M Ni*, K Jiao*. Coupling deep learning and multi-objective genetic algorithms to achieve high performance and durability of direct internal reforming solid oxide fuel cell. Applied Energy 315, 119046 (2022).
- [29] 29. Z Bao, Y Li, X Zhou, F Gao, Q Du∗, K Jiao*. Transport properties of gas diffusion layer of proton exchange membrane fuel cells: Effects of compression. International Journal of Heat and Mass Transfer 178, 121608 (2021).
- [30] 30. C Cheng, Z Yang, Z Liu, C Tongsh, G Zhang, B Xie, S He, K Jiao*. Numerical investigation on the feasibility of metal foam as flow field in alkaline anion exchange membrane fuel cell. Applied Energy 302, 117555 (2021).
- [31] 31. Y Hou, Sebastian Prass, X Li, Q Du*, K Jiao*, Nada Zamel*. Pore-scale modeling of anode catalyst layer tolerance upon hydrogen sulfide exposure in PEMFC. Electrocatalysis 12(4), 403-414 (2021).
- [32] 32. L Fan, Y Wang*, K Jiao*. Oxygen transport routes in ionomer film on polyhedral platinum nanoparticles. ACS Nano 14, 17487-17495 (2020).
- [33] 33. B Xie, G Zhang, Y Jiang, R Wang, X Sheng, F Xi, Z Zhao, W Chen, Y Zhu, Y Wang, H Wang, K Jiao*. “3D+1D” modeling approach toward large-scale PEM fuel cell simulation and partitioned optimization study on flow field. eTransportation 6, 100090 (2020).
- [34] 34. B Wang, G Zhang, H Wang, J Xuan*, K Jiao*. Multi-physics-resolved digital twin of proton exchange membrane fuel cells with a data-driven surrogate model. Energy and AI 1, 100004 (2020).
- [35] 35. Y Wang, Y Du, M Ni, R Zhan, Qing Du*, K Jiao*. Three-dimensional modeling of flow field optimization for co-electrolysis solid oxide electrolysis cell. Applied Thermal Engineering 172, 114959 (2020).
- [36] 36. Z Yang, Qing Du*, Z Jia, C Yang, J Xuan, K Jiao*. A comprehensive proton exchange membrane fuel cell system model integrating various auxiliary subsystems. Applied Energy 256, 113959 (2019).
- [37] 37. Z Bao, Z Niu, K Jiao*. Analysis of single-and two-phase flow characteristics of 3-D fine mesh flow field of proton exchange membrane fuel cells. Journal of Power Sources 438, 226995 (2019).
- [38] 38. S Huo, Nathanial James Cooper, Travis Lee Smith, Jae Wan Park*, K Jiao*. Experimental investigation on PEM fuel cell cold start behavior containing porous metal foam as cathode flow distributor. Applied Energy 203, 101-114 (2017).
- [39] 39. Z Niu, H Diao, S Yu, K Jiao*, Q Du, G Shu. Investigation and design optimization of exhaust-based thermoelectric generator system for internal combustion engine. Energy Conversion and Management 85: 85-101 (2014).
- [40] 40. D Wang, N Zamel, K Jiao*, Y Zhou, S Yu, Q Du, Y Yin. Life cycle analysis of internal combustion engine, electric and fuel cell vehicles for China. Energy 59: 402-412 (2013).
- Books
- [1] 1.焦魁,张国宾,杜青,樊林浩,焦道宽,武承如,王博文. 多物理场传热传质基础与建模实例. 天津大学出版社 (2022).
- [2] 2.K Jiao, B Wang, Q Du, Y Wang, G Zhang, Z Yang, H Deng, and X Xie. Water and Thermal Management of Proton Exchange Membrane Fuel Cells. Elsevier (2021).
- Patents
- [1] 1. 焦魁,谢彪;建立质子交换膜燃料电池催化层结块模型的方法,2023-04-18,中国,ZL201910521383.X
- [2] 2. 焦魁,宫智超,王博文;基于随机优化算法的燃料电池与空压机匹配建模方法,2022-09-30,中国,ZL202210058602.7
-
- [3] 3. 焦魁,程超超,王博文,刘智;基于渗透率差异化的金属泡沫不含气体扩散层的燃料电池,2022-07-12,中国,ZL20201516626.X
- [4] 4. 焦魁,蒋杨;质子交换膜燃料电池准二维模型建立方法,2022-05-27,中国,ZL20191062441.4
- [5] 5. 焦魁,张国宾,谢彪;质子交换膜燃料电池全电池三维两相模型建立方法,2022-05-20,中国,ZL20181053093.6
- [6] 6. 焦魁,宫智超,王博文,吴康成;质子交换膜燃料电池瞬态实时模型的建立方法,2022-05-20,中国,ZL202011517759.9
- [7] 7. 焦魁,王博文;质子交换膜燃料电池阴极流场板,2022-02-18,中国,ZL201910316351.6
- [8] 8. 焦魁,杨子俊,杨子荣,王博文;燃料电池系统中氢气循环泵瞬态建模方法,2021-12-24,中国,ZL202110514510.0
- [9] 9. 焦魁,樊林浩,牛志强;质子交换膜燃料电池分体式阴极流道的优化结构,2020-03-31,中国,ZL201710858723.9
- [10] 10. 焦魁,牛志强,樊林浩;质子交换膜燃料电池整体式阴极流道的优化结构,2020-03-31,中国,ZL201710858978.5