可再生能源
化石燃料
制氢
电力转天然气
工艺工程
氢燃料
氢
环境科学
灵活性(工程)
氢经济
可调度发电
氢气储存
电网储能
电
发电
化学能
比例(比率)
热电联产
电解水
电解
废物管理
化学
分布式发电
工程类
电气工程
功率(物理)
物理
物理化学
有机化学
数学
电极
统计
电解质
量子力学
作者
Bryan S. Pivovar,Neha Rustagi,Sunita Satyapal
出处
期刊:The Electrochemical Society interface
[The Electrochemical Society]
日期:2018-01-01
卷期号:27 (1): 47-52
被引量:251
摘要
Much of hydrogen's value to the energy-system lies in its ability to be cleanly and efficiently converted between chemical and electrical energy, while also possessing the high energy density and long-term storage potential of chemical bonds. For these reasons, hydrogen's importance is expected to grow substantially in the coming decades, providing cross-sector and cross-temporal impact through clean, efficient processes. Many of these processes are electrochemical in nature, such as electrolysis of water and electricity production using fuel cells. Hydrogen also offers significant flexibility in how it can integrate into the energy system as a function of scale (from W to GWs), source (fossil fuels, nuclear, biomass, solar, wind, thermal), and end use (grid, buildings, industry, transportation). This flexibility, along with the ability to be used as a dispatchable load or power generation source, allows hydrogen and hydrogen-based processes to couple with the overall energy system in an integrated or hybridized fashion, offering dramatic system optimization potential. However, achieving the scale necessary to have impact – the vision 'Hydrogen at Scale' (H2@Scale)" still has research challenges, many of which center around electrochemistry.
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