各种可再生气体的潜力和成本:到2050年奥地利能源系统的案例研究

IF 1.2 Q4 ENGINEERING, ENVIRONMENTAL Detritus Pub Date : 2021-09-30 DOI:10.31025/2611-4135/2021.15121
D. Rosenfeld, J. Lindorfer, Hans Böhm, A. Zauner, Karin Fazeni-Fraisl
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引用次数: 1

摘要

该分析估计了有机废料的厌氧转化和生物质气化产生的可再生气体的技术潜力,以及奥地利的电能转化为天然气(H2和基于可再生电力的合成天然气),以及它们的大致能源生产成本。此外,它还概述了工厂建设的理论扩展方案,旨在到2050年充分利用所有技术潜力。总体结果,如理论上的优次顺序所示,是根据技术和资源的潜力和成本对其进行排名,从最便宜的开始,到最昂贵的结束。研究结果表明,到2050年,可再生甲烷的潜力约为每年58太瓦时。最大的潜力来自生物质气化(每年~49TWh),而厌氧消化(每年~6TWh)和沼气升级产生的绿色二氧化碳发电(每年~3TWh)的技术潜力要低得多。为了充分利用这些潜力,在全面扩张的情况下,到2050年将建造870座生物质气化厂、259座厌氧消化器和163座发电厂。从成本角度来看,在扩展场景中,所有技术的特定能源成本都将降低。这种成本下降对于生物质气化来说并不显著,仅为约0.1欧元/千瓦时,导致成本在10.7至9.0欧元/千瓦小时之间,具体取决于年份和燃料。然而,对于厌氧消化,成本显著下降,从7.9欧元/千瓦时降至5.6欧元/千瓦小时。电力转天然气的意义更为重大,2030年至2050年期间,电力从10.8欧元/千瓦时降至5.1欧元/千瓦小时。
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Potentials and Costs of various Renewable Gases: A Case Study for the Austrian Energy System by 2050
This analysis estimates the technically available potentials of renewable gases from anaerobic conversion and biomass gasification of organic waste materials, as well as power-to-gas (H2 and synthetic natural gas based on renewable electricity) for Austria, as well as their approximate energy production costs. Furthermore, it outlines a theoretical expansion scenario for plant erection aimed at fully using all technical potentials by 2050. The overall result, illustrated as a theoretical merit order, is a ranking of technologies and resources by their potential and cost, starting with the least expensive and ending with the most expensive. The findings point to a renewable methane potential of about 58 TWh per year by 2050. The highest potential originates from biomass gasification (~49 TWh per year), while anaerobic digestion (~6 TWh per year) and the power-to-gas of green CO2 from biogas upgrading (~3 TWh per year) demonstrate a much lower technical potential. To fully use these potentials, 870 biomass gasification plants, 259 anaerobic digesters, and 163 power-to-gas plants to be built by 2050 in the full expansion scenario. From the cost perspective, all technologies are expected to experience decreasing specific energy costs in the expansion scenario. This cost decrease is not significant for biomass gasification, at only about 0.1 €-cent/kWh, resulting in a cost range between 10.7 and 9.0 €-cent/kWh depending on the year and fuel. However, for anaerobic digestion, the cost decrease is significant, with a reduction from 7.9 to 5.6 €-cent/kWh. It is even more significant for power-to-gas, with a reduction from 10.8 to 5.1 €-cent/kWh between 2030 and 2050.
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来源期刊
Detritus
Detritus ENGINEERING, ENVIRONMENTAL-
CiteScore
3.30
自引率
23.50%
发文量
45
审稿时长
15 weeks
期刊最新文献
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