可再生能源
储能
废物管理
资本成本
环境科学
氢气储存
电
环境工程
工程类
氢
化学
电气工程
功率(物理)
物理
量子力学
有机化学
作者
William C. Leighty,John H. Holbrook
标识
DOI:10.1115/power2013-98294
摘要
Electricity from diverse renewable energy (RE) resources may be converted to gaseous hydrogen (GH2) and anhydrous ammonia (NH3) carbon-free fuels and stored at < $1.00 / KWh capital cost in large, solution-mined salt caverns for GH2 and in large, refrigerated, “atmospheric” liquid surface tanks as NH3. This stored chemical energy is gathered and transmitted and distributed via continental-scale underground pipeline systems and converted to useful work, at residential to industrial scales, via combined-heat-and-power (CHP) plants, via direct space heating and cooling, and as transportation fuels. We thus solve RE’s severe transmission, storage, and integration problems via complete, optimized, systems design — from photons and moving air and water molecules to delivered energy services. We need to supply all energy, not just electricity, from diverse renewable energy (RE) resources, both distributed and centralized, where the world’s richest RE resources — of large geographic extent and high intensity — are stranded: far from end-users with inadequate or nonexistent gathering and transmission systems to deliver the energy. Electricity systems may be suboptimal, technically and economically, at such large scale. Electricity energy storage cannot affordably firm large, intermittent renewables at annual scale, while carbon-free GH2 and liquid NH3 fuels can: GH2 in large solution-mined salt caverns, NH3 in steel surface tanks, both pressurized and refrigerated.
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