张存满教授为新能源汽车工程中心副主任，燃料电池复合电源研究所所长。燃料电池复合电源研究所下属三个研究室，其中，氢能研究室团队包括：同济大学汽车学院吕洪副教授、薛明喆副教授、耿振助理教授、金黎明助理教授；此外，与本校机械与能源学院、航空航天与力学学院、材料学院相关教授、副教授，形成多学科交叉的技术联合攻关组；与国家电网、国家能源集团、国电投、华能、隆基股份、长城汽车等单位资深专家，形成企业导师、联合攻关机制；与美国通用汽车全球研发中心、密歇根大学、加州大学、加拿大滑铁卢大学、西安交大、天津大学等国内外科研机构知名学者，形成学术兼职、培育创新机制。

近5年承担的纵/横向项目/课题/子课题总经费超8000万元，科研仪器设备原值超过3亿元，可引领科研方向，保障创新产出，引导人才发展。

【部分代表性科研项目】

1、科技部国家重点研发计划项目，“液氢加氢站关键装备研制与安全性研究”（经费6000万元），2022.12-2025.12，项目负责人。

2、科技部国家重点研发计划项目子课题，“高效紧凑型碱性水电解制氢技术”（经费150万元），2022.12-2025.11，负责人。

3、科技部国家重点研发计划项目子课题，“碱性电解槽智能化与状态评估技术研究”（经费100万元），2019.05-2022.05，负责人。

4、国家863计划项目，“基于可再生能源制/储氢70MPa加氢站系统研制及示范” （经费2880万元），2012.12-2015.12，项目负责人。

5、国家863计划项目，“风电直接制氢及燃料电池发电系统技术”（经费1950万元），2014.01-2016.12，项目负责人。

6、东风汽车集团项目，“增程式燃料电池汽车委托开发”（经费1000万元），2020.01-2021.10，项目负责人。

7、中海油集团项目，“海上制氢工艺技术研究”（经费126万元），2020.12-2021.10，项目负责人。

8、国家电网集团项目，“氢电耦合系统技术研究”（经费500万元），2021.01-2023.06，项目负责人。

[1] Multi-stage porous nickel-iron oxide electrode for highcurrent alkaline water electrolysis, Advanced Functional Materials, 2023,2214792.

[2] Power evolution of fuel cell stack driven by anodegas diffusion layer degradation, Applied Energy, 2022, 313: 118858.

[3] Investigation of the thermal responses under gaschannel and land inside proton exchange membrane fuel cell with assemblypressure, Applied Energy, 2022, 308: 118377.

[4] Durability degradation mechanism and consistencyanalysis for proton exchange membrane fuel cell stack, Applied Energy, 2022,314: 119020.

[5] Over-potential tailored thin and dense lithium carbonategrowth in solid electrolyte interphase for advanced lithium ion batteries, AdvancedEnergy Materials, 2022, 12(15): 2103402.

[6] Enhanced mass transfer and proton conduction ofcathode catalyst layer for proton exchange membrane fuel cell through fillingpolyhedral oligomeric silsesquioxane, Journal of Power Sources, 2021, 487:229413.

[7] Failure behavior of gas diffusion layer in protonexchange membrane fuel cells, Journal of Power Sources, 2021, 515: 230655.

[8] Failure of cathode gas diffusion layer in 1 kW fuelcell stack under new European driving cycle, Applied Energy, 2021, 303: 117688.

[9] Research progress of heat transfer inside protonexchange membrane fuel cells, Journal of Power Sources, 2021, 492: 229613.

[10] Graph theory model and mechanism analysis of carbonfiber paper conductivity in fuel cell based on physical structure, Journal ofPower Sources, 2021, 491: 229546.

[11] Numerical analysis of static and dynamic heat transferbehaviors inside proton exchange membrane fuel cell, Journal of Power Sources,2021, 488: 229419.

[12] A novel approach based on semi-empirical model fordegradation prediction of fuel cells, Journal of Power Sources, 2021, 488:229435.

[13] Deep learning based prognostic framework towardsproton exchange membrane fuel cell for automotive application, Applied Energy,2021, 281: 115937.

[14] Pre-lithiation strategies for next‐generation practical lithium‐ion batteries, Advanced Science,2021, 8(12): 2005031.

[15] The controllable design of catalyst inks to enhancePEMFC performance: A review, Electrochemical Energy Reviews, 2021, 4(1):67-100.

[16] Metallically conductive TiB2 as a multi-functionalseparator modifier for improved lithium sulfur batteries, Journal of PowerSources, 2020, 448: 227336.

[17] Stainless steel bipolar plates for proton exchangemembrane fuel cells: Materials, flow channel design and forming processes, Journalof Power Sources, 2020, 451: 227783.

[18] Surface modification of Li-rich Mn-based layeredoxide cathodes: challenges, materials, methods, and characterization, AdvancedEnergy Materials, 2020, 10(41): 2002506.

[19] Target-oriented electrode constructions towardultra-fast and ultra-stable all-graphene lithium-ion capacitors, Energy StorageMaterials, 2019, 23: 409-417.

[20] A universal matching approach for high power-densityand high cycling-stability lithium ion capacitor, Journal of Power Sources,2019, 441: 227211.

[21] From rotating disk electrode to single cell:exploration of PtNi/C octahedral nanocrystal as practical proton exchangemembrane fuel cell cathode catalyst, Journal of Power Sources, 2018, 406:118-127.

[22] Electrode materials, electrolytes, and challengesin nonaqueous lithium-ion capacitors, Advanced Materials, 2018, 30(17): 1705670.

[23] Activated carbon from biomass transfer for high-energydensity Lithium-ion supercapacitors, Advanced Energy Materials, 2016, 6(18):1600802.

[24] Nitrogen-doped activated carbon for a high energyhybrid supercapacitor, Energy & Environmental Science, 2016, 9(1): 102-106.

[25] Highly active carbon-supported Pt nanoparticlesmodified and dealloyed with Co for the oxygen reduction reaction, Journal ofPower Sources, 2014, 270: 201-207.