吉普斯兰的可再生甲烷存储,用于峰值和备用电源

A. Ghayur, V. Verheyen
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引用次数: 4

摘要

通过采用可再生能源缓解气候变化以及澳大利亚吉普斯兰盆地天然气储量的枯竭,给澳大利亚能源部门带来了不安全因素。需要采取紧急措施来避免未来的电网故障。本研究提出生物甲烷(CH4)地下储存,以满足高峰和备用电力需求。吉普斯兰的枯竭气藏和煤层是这种储存的候选者。在本研究中,对一个将废弃生物质转化为甲烷并将其储存在枯竭气藏中以满足高峰/备用电力需求的设施进行了建模和模拟。在该模型中,200 t/d的生物质厌氧消化成甲烷。尽管这是可行的,但与储存相结合时规模相对较小,该设施每年产生14000吨(2000万立方米)甲烷,足以通过燃料电池产生超过80000兆瓦时的电力需求。这些结果证明了生物可再生能源在大规模电力需求方面的潜力。
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Renewable methane storage in Gippsland for peak and backup power
Climate Change mitigation by adopting renewable energies and the depleting gas reservoirs of Australia's Gippsland Basin have introduced insecurity in the Australian energy sector. Urgent measures are needed to avoid future grid failures. This study proposes underground storage of bio-methane (CH4) to meet peak and backup power demands. The depleted gas reservoirs and coal seams of Gippsland are candidates for such a storage. In this study, a facility converting waste biomass into methane and storing it in depleted gas reservoir for meeting peak/backup electricity demand is modelled and simulated. In the model, 200 t/d of biomass is anaerobically digested into methane. Despite this practicable yet relatively small scale when combined with storage, the facility generates 14,000 t (20 million m3) of methane per year, enough to generate over 80,000 MWh of electricity on demand via fuel cells. These results demonstrate the potential for bio-renewables contributing to large scale power demand.
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