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Spatially-resolved analysis of the challenges and opportunities of Power-to-Gas (PtG) in Baden-Wiirttemberg until 2040

机译:在2040年之前解决了Baden-Wiirtttemberg的电力到气体(PTG)挑战和机遇的空间解决分析

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The increasing penetration of renewable energies will make new storage technologies indispensable in the future. Power-to-Gas (PtG) is one long-term storage technology that exploits the existing gas infrastructure. However, this technology faces technical, economic, environmental challenges and questions. This contribution presents the final results of a large research project, which attempted to address and provide answers to some of these questions for Baden-Wiirttemberg (south west Germany). Three energy scenarios out to 2040 were defined, one oriented towards the Integrated Energy and Climate Protection Concept of the Federal State Government and two alternatives. Timely-resolved load profiles for gas and electricity for 2015, 2020, 2030 and 2040 have been generated at the level of individual municipalities. The profiles include residential and industrial electrical load, gas required for heating (conventional and current-controlled CHP), as well as gas and electricity demand for mobility. The installation of rooftop PV-plants and wind power plants is projected based on bottom up cost-potential analyses which account for some social acceptance barriers. Residential load profiles are derived for each municipality. In times with negative residual load, the PtG technology could be used to convert electricity into hydrogen or methane. The detailed analysis of four structurally-different model regions delivered quite different results. While in large cities, no negative residual load is likely due to the continuously high demand and strong networks, rural areas with high potentials for renewables could encounter several thousand hours of negative residual load. A cost-effective operation of PtG would only be possible under favorable conditions, including high full load hours, a strong reduction in costs and a technical improvement of efficiency. Whilst these conditions are not expected to appear in the short to mid-term but may occur in the long term in energy systems with very high shares of renewable energy sources.
机译:可再生能源的普遍性普及将使未来不可或缺的新存储技术。电力 - 天然气(PTG)是一种利用现有气体基础设施的一种长期存储技术。然而,这项技术面临技术,经济,环境挑战和问题。这一贡献提出了一项大型研究项目的最终结果,该项目试图解决并向巴登 - Wiirttemberg(德国西南)的一些问题提供答案。为2040年的三种能量情景被定义,一个面向联邦政府政府的综合能源和气候保护概念和两个替代方案。为2015,2020,2030和2040年的天然气和电力的及时解决的负载型材已经在各个城市的水平上产生。曲线包括住宅和工业电负载,加热所需的气体(常规和电流控制的CHP)以及用于移动性的气体和电力需求。屋顶PV-植物和风力发电厂的安装是基于自下而上的成本潜在分析来预测,该分析占一些社会验收障碍。为每个市政府派生住宅负载型材。在负残留载荷的时间内,PTG技术可用于将电力转化为氢气或甲烷。对四种结构不同模型区域的详细分析相当不同的结果。在大城市中,没有负剩余负荷可能是由于不断高的需求和强大的网络,可再生能源潜力的高潜力可能会遇到几千小时的负剩余负荷。 PTG的经济有效运行只能在有利的条件下,包括高满载时间,成本的强大降低以及效率的技术提高。虽然这些条件不会在短期内出现在短期内,但可能在能量系统中长期出现,其具有非常高的可再生能源股份。

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