通过探索可再生能源和多部门氢需求的潜力,为低碳氢供应链的部署铺平道路:法国案例研究

IF 4.2 Q2 ENERGY & FUELS
Renato Luise , Annabelle Brisse , Catherine Azzaro-Pantel
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引用次数: 0

摘要

法国在其国家路线图中制定了雄心勃勃的制氢目标,计划到 2030 年安装至少 6.5 千兆瓦的电解槽,每年生产 70 万吨氢气。该国主要通过电解法生产可再生或低碳氢气。然而,该国在迅速扩大可再生能源基础设施方面面临重大障碍,可能需要考虑进口战略来解决潜在的短缺问题。要应对这些挑战,就需要调查用于生产电解氢的可再生能源是否会成为氢气应用的限制因素,并可能成为其市场整合的瓶颈。该方法综合了公共和私营部门的预测,以解决可再生和不可再生电力生产以及氢气需求增长所需的能源问题。所开发的方法包括估算法国到 2050 年的可再生能源供应量,并确定其中有多少能源可以分配给氢气生产,以确保氢气生产保持无碳和真正的可再生性。与许多采用一般方法的现有路线图不同,本研究的创新之处在于从地域角度出发,对氢气供需之间可能存在的不匹配进行了详细分析。电解槽有三种不同的电力来源,可以连接到电网,也可以直接连接到可再生发电厂:法国电网提供的低碳电力、太阳能和风能发电厂重新供电提供的可再生电力以及新安装的发电厂提供的可再生电力。预计总电力需求将从 2020 年的 475 太瓦时/年增加到 2050 年的 754 太瓦时/年,其中可再生能源的比例将从 2020 年的 19% 增加到 2050 年的 69%。该研究评估了两个关键领域对氢气的需求,一个是严重依赖氢气的工业领域,另一个是目前对氢气贡献较小的交通领域。预计氢气需求量将从 2025 年的每天近 310 千吨增加到 2050 年的每天超过 2650 千吨。考虑到生产每公斤氢气平均消耗 55 千瓦时电力,电解氢生产的总电力需求量预计将从 2025 年的 17 太瓦时/年增加到 2050 年的 146 太瓦时/年。为了防止可再生能源成为氢气市场一体化的瓶颈,并避免氢气进口的需要,必须将新安装电厂预计可再生能源产量的 5%-10%用于满足日益增长的氢气需求。这一结果是创建氢气供应链最佳设计模式的关键。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Paving the way for low-carbon hydrogen supply chain deployment by exploring the potential of renewable energies and multisectoral hydrogen demand: Case study of France

Paving the way for low-carbon hydrogen supply chain deployment by exploring the potential of renewable energies and multisectoral hydrogen demand: Case study of France

France has set ambitious targets for hydrogen production in its National Roadmap, aiming to install at least 6.5 GW of electrolyzer capacity and produce 700,000 tons of hydrogen annually by 2030. The country is focusing on producing renewable or low-carbon hydrogen primarily through electrolysis. However, it faces significant barriers in rapidly scaling up renewable energy infrastructure and may need to consider import strategies to address potential shortages. Addressing these challenges requires investigating whether the availability of renewable energy for the production of electrolytic hydrogen could become a limiting factor for hydrogen adoption and potentially act as a bottleneck in its market integration. The methodology merges forecasts from the public and private sectors to address both renewable and non-renewable electricity production and the energy needed for rising hydrogen demand. The approach developed involves estimating France’s renewable energy supply up to 2050 and determines how much of this energy can be allocated to hydrogen production to ensure it remains carbon-free and genuinely renewable. Unlike many existing roadmaps that take a more general approach, the innovative part of this study is developing a territorial perspective to conduct a detailed analysis of potential mismatches between hydrogen supply and demand.

Three distinct sources of electricity are considered for the electrolyzers, which could be connected to the grid or directly to renewable power plants: low-carbon electricity from the French grid, renewable electricity from re-powered solar and wind farms, and renewable electricity from newly installed power plants. Total electricity demand is projected to rise from 475 TWh/y in 2020 to 754 TWh/y in 2050, with the share of renewable energy increasing from 19% in 2020 to 69% in 2050.

The study evaluates the demand for hydrogen in two key sectors, industry, which is heavily dependent on hydrogen, and mobility, which currently has a more modest contribution. Hydrogen demand is expected to increase from nearly 310 ktons per day in 2025 to over 2650 ktons per day by 2050.

Given an average specific consumption of 55 kWh of electricity per kg of hydrogen produced, the total electricity demand for electrolytic hydrogen production is projected to grow from 17 TWh/year in 2025 to 146 TWh/year in 2050.

It can be concluded that allocating the entire anticipated production from re-powered solar and on-shore wind farms in the coming years will not be sufficient to meet the electricity demand required for electrolytic hydrogen production. To prevent renewable energy from becoming a bottleneck for hydrogen market integration and to avoid the need for hydrogen imports, it is crucial to allocate 5% to 10% of the projected renewable output from newly installed plants to address the increasing hydrogen demand. This result is key to creating an optimal design model for hydrogen supply chains.

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Renewable Energy Focus
Renewable Energy Focus Renewable Energy, Sustainability and the Environment
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