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奥地利制造业中基于技术的气候中和方案评估。

Assessment of technology-based options for climate neutrality in Austrian manufacturing industry.

作者信息

Nagovnak P, Schützenhofer C, Rahnama Mobarakeh M, Cvetkovska R, Stortecky S, Hainoun A, Alton V, Kienberger T

机构信息

Chair of Energy Network Technology, Montanuniversitaet Leoben, Franz-Josef Straße 18, A-8700, Leoben, Austria.

Austrian Institute of Technology, Giefinggasse 4, A-1210, Vienna, Austria.

出版信息

Heliyon. 2024 Feb 1;10(3):e25382. doi: 10.1016/j.heliyon.2024.e25382. eCollection 2024 Feb 15.

DOI:10.1016/j.heliyon.2024.e25382
PMID:38356513
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10864908/
Abstract

The goals set forth by the European Green Deal require extensive preparation and coordination of all stakeholders. As a valuable tool, energy scenarios can generate the necessary information for stakeholders to envision the right steps in preparing this transition. The manufacturing industries represent an especially important sector to investigate. They are responsible for both high energy consumption and GHG emission figures on the one hand side and provide great economic value for member countries on the other. We aim to provide a close investigation of all thirteen industrial subsectors that can be used as a solid information basis both for stakeholders within the manufacturing industries and policymakers. Our approach includes industrial production processes. We achieve this by considering both transformation processes, such as blast furnaces or industrial power plants, and final energy-application. In addition, both scope 1 and 2 emissions of manufacturing industry are assessed in an effort to transparently indicate the interdependencies of industrial decarbonisation efforts with the overall energy system. We propose the integration of a novel stakeholder-based scenario, that puts special emphasis on first-hand information on mid to long-term planning of key industrial representatives, thereby going beyond existing scenario narratives (e.g., scenarios according to the European Monitoring Mechanism). Thus, a balanced deep decarbonisation scenario using best-available technologies can be compared with existing industry plans. To address these points, we have chosen Austria as a case study. Results indicate that industry stakeholders are in general agreement on their subsector-specific technology deployment and already envision investments towards a low-carbon pathway for their respective subsectors. While today's manufacturing industries rely at large on a great diversity of (mostly fossil) energy carrier supply, deeply decarbonised manufacturing industries of the future may be based on the following main energy carriers; electricity, CO-neutral gases, and biomass. To mitigate emissions from geogenic sources, carbon capture technologies are needed. On the other hand, the synthesis of olefins in the chemical industry may provide a sink for CO assuming long-term use after production. In addition to the option of using it across subsectors, captured CO will have to be stored or sold to other economies. Comparison of the developed scenarios allows the identification of no-regret measures to enable climate neutrality by 2050 that should be deployed as soon as possible by push and pull incentives. The model results of the two transition scenarios show the need for technology promotion as well as infrastructure development needs and allow the identification of possible corridors, focal points, and fuel shifts - on the subsector level as well as in energy policy. Among others, the modelled magnitude of renewable energy consumption shows the need for swift expansion of existing national renewable energy potentials and energy infrastructure, especially for energy intensive industry regions. In light of the current energy consumption in other economic sectors (most notably in buildings or transport) and limited renewable potentials, large import shares of national gross domestic energy consumption are likely for Austria in the future.

摘要

欧洲绿色协议提出的目标需要所有利益相关者进行广泛的准备和协调。作为一种有价值的工具,能源情景可以为利益相关者生成必要的信息,以便他们设想在准备这一转型过程中采取的正确步骤。制造业是一个特别重要的调查领域。一方面,它们既负责高能耗和温室气体排放,另一方面又为成员国提供巨大的经济价值。我们旨在对所有13个工业子部门进行深入调查,这可为制造业内的利益相关者和政策制定者提供坚实的信息基础。我们的方法包括工业生产过程。我们通过考虑高炉或工业发电厂等转化过程以及最终能源应用来实现这一点。此外,还对制造业的范围1和范围2排放进行了评估,以透明地表明工业脱碳努力与整个能源系统之间的相互依存关系。我们建议整合一种基于利益相关者的新型情景,特别强调关键工业代表中长期规划的第一手信息,从而超越现有的情景描述(例如,根据欧洲监测机制的情景)。因此,可以将使用最佳可用技术的平衡深度脱碳情景与现有行业计划进行比较。为了解决这些问题,我们选择奥地利作为案例研究。结果表明,行业利益相关者总体上就其特定子部门的技术部署达成一致,并已经设想为各自子部门的低碳路径进行投资。虽然当今的制造业在很大程度上依赖于多种多样的(主要是化石)能源载体供应,但未来深度脱碳的制造业可能基于以下主要能源载体:电力、碳中和气体和生物质。为了减少地质源排放,需要碳捕获技术。另一方面,化学工业中烯烃的合成在生产后长期使用的情况下可能为二氧化碳提供一个汇。除了跨子部门使用的选择外,捕获的二氧化碳将必须储存或出售给其他经济体。对所开发情景的比较有助于确定无悔措施,以在2050年实现气候中和,应通过推拉激励措施尽快部署这些措施。两种转型情景的模型结果表明了技术推广以及基础设施发展的需求,并有助于确定可能的走廊、焦点和燃料转换——在子部门层面以及能源政策层面。其中,可再生能源消费的模拟规模表明,需要迅速扩大现有的国家可再生能源潜力和能源基础设施,特别是对于能源密集型产业地区。鉴于其他经济部门(最明显的是建筑或交通)目前的能源消耗以及有限的可再生能源潜力,未来奥地利国内能源消费的很大一部分可能需要进口。

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https://cdn.ncbi.nlm.nih.gov/pmc/blobs/0c4f/10864908/c99d77e8a760/gr6.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/0c4f/10864908/bb5f3ceb3024/fx1.jpg
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