学者库个人论文详览:https://thurid.lib.tsinghua.edu.cn/scholar/655736
代表性国际期刊论文
[1] Huang, M., Chi, Y., Wan, Y., Liu, C., Lin, J., Tao, H. B., Liu, W., & Zheng, N. Holistic strategies for scaling water electrolysis. Nature Chemical Engineering, 2026.
[2] Li, J., Lin, J., Wang, J., Lu, X., Nielsen, C. P., McElroy, M. B., Song, Y., Song, J., Lyu, X., Yu, M., Wu, S., & Yu, Z. Redesigning electrification of China’s ammonia and methanol industry to balance decarbonization with power system security. Nature Energy, 2025, 10(6): 762–773.
[3] Power controller design for electrolysis systems with DC/DC interface supporting fast dynamic operation: A model-based and experimental study. Applied Energy, 2025, 378: 124848.
[4] Optimal Sizing and Pricing of Grid-Connected Renewable Power to Ammonia Systems Considering the Limited Flexibility of Ammonia Synthesis. IEEE Transactions on Power Systems, 2024, 39(5): 6372-6385.
[5] Two-layer energy management strategy for grid-integrated multi-stack power-to-hydrogen station. Applied Energy, 2024, 367: 123413.
[6] Thermal modeling and controller design of an alkaline electrolysis system under dynamic operating conditions. Applied Energy, 2023, 332: 120551.
[7] Channel design optimization of alkaline electrolysis stacks considering the trade-off between current efficiency and pressure drop. Journal of Power Sources, 2023, 579: 233222.
[8] Design of the PID temperature controller for an alkaline electrolysis system with time delays. International Journal of Hydrogen Energy, 2023, 48(50): 19008-19021.
[9] Multi-timescale Trading Strategy for Renewable Power to Ammonia Virtual Power Plant in the Electricity, Hydrogen, and Ammonia Markets. IEEE Transactions on Energy Markets, Policy and Regulation, 2023, 1(4): 322-335.
[10] Pressure control strategy to extend the loading range of an alkaline electrolysis system. International Journal of Hydrogen Energy, 2021, 46(73): 35997-36011.
[11] Operation optimization of Power to Hydrogen and Heat (P2HH) in ADN coordinated with the district heating network. IEEE Transactions on Sustainable Energy, 2019, 10(4): 1672-1683.
代表性中文期刊论文
[12] 可再生能源电制氢合成氨系统的并/离网运行方式与经济性分析. 中国电机工程学报, 2024, 44(01): 117-127.
[13] 面向新能源规模化消纳的绿氢化工技术研究现状与关键支撑技术展望. 中国电机工程学报, 2023, 43(18): 6934-6955.
专著与教材
[1]《可再生能源制氢产业技术路线图》. 北京:中国科学技术出版社,2024.
[2]《新能源电力系统随机过程分析与控制》. 北京:科学出版社,2020.
[3]《能源互联网发展研究》. 北京:清华大学出版社,2017.
代表性授权发明专利
[2] 林今,李汶颖,高丹慧,李航. 一种碱性电解槽的宽范围稳动态性能测试系统及运行方法. 中国发明专利,授权号:CN116516415B,授权日期:2025.03.25.
[3] 林今,吴思睿,张信真. 电制氢合成氨系统的预测方法及相关装置. 中国发明专利,授权号:CN115117935B,授权日期:2024.10.25.
[4] 林今,余志鹏,张信真. 电制氢合成氨方法及系统. 中国发明专利,授权号:CN115117936B,授权日期:2024.10.22.
[5] 张信真,林今,李汶颖,胡强. 电解水制氢加氢站热管理系统. 中国发明专利,授权号:CN112944206B,授权日期:2024.10.22.
[1] 张信真,林今,唐明,李汶颖. 一种电解槽阵列系统与电解水系统控制方法. 中国发明专利,授权号:CN114086204B,授权日期:2025.04.01.
[6] 林今,沙廉栋. 碱性电解水制氢系统、其氧气除杂保护装置及保护方法. 中国发明专利,授权号:CN115140712B,授权日期:2024.08.13.
[7] 林今,戚若玫. 电制氢余热利用装置和方法. 中国发明专利,授权号:CN114087904B,授权日期:2024.06.25.
[8] 林今,程祥,戚若玫. 控制风光水发电和电制氢联合参与二次调频的方法、装置. 中国发明专利,授权号:CN114530866B,授权日期:2024.05.28.
[9] 林今,戚若玫. 电制氢系统温度预测控制方法及装置. 中国发明专利,授权号:CN113930805B,授权日期:2022.09.09.
[10] 张信真,林今,李汶颖,唐明,李航,王剑. 电池储能和制氢设备联合调频测试方法、装置和中控系统. 中国发明专利,授权号:CN112366728B,授权日期:2022.02.01.
标准及其他成果
[1] 《电解水制氢系统功率波动适应性测试方法》. GB/T 46104-2025.
[2] 《可再生能源电力制氢工程可行性研究报告编制规程》. NB/T 11896-2025.
[3] 《分布式氢燃料电池储能电站设计规范》. T/CEPPEA 5086-2025.
[4] 《水电解制氢整流电源技术规范》. T/CES 226-2023.
[5] 《质量分级及“领跑者”评价要求 碱性水电解制氢装备》. T/CSTE 0356-2023.
[6] 《工业水电解制氢系统运行管理导则—压力型碱性水电解》. T/CECA-G 0255-2023.
[7] 《低温水电解制氢系统稳暂态运行性能指标及测试方法》. T/CECA-G 0188-2022.