Can a hierarchical ordering of alternative technological concepts for decarbonizing industrial energy systems minimize mitigation costs?

G. Oluleye, Doss Bishay, Baptiste Kas
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Abstract

Integration of alternative technological concepts such as switching to alternative fuels, advanced energy efficiency, and carbon capture and storage in existing industrial energy systems can prove highly effective at minimizing emissions; however, their adoption is low since solutions using these concepts raise costs considerably. The hypothesis of this work is a hierarchical combination of these concepts can reduce mitigation cost. To this end a mixed method approach is applied combining energy simulation with a novel Mixed Integer Linear Programming model developed to explore 48 alternative solutions to make industrial energy systems more sustainable. The method was applied to the most common industrial energy systems configurations. Results show that the added cost of integrating alternative technological concepts are lowered when energy efficiency via direct heat recovery is explored first in an optimization-based hierarchy of options. The hierarchy is advanced energy efficiency before fuel and technology switching or integrating carbon capture and storage. This means process integration can pay for steeper reductions in carbon emissions. Integrating alternative technological concepts optimally and hierarchically reduced emissions by 61%, and costs by 55.7% compared to a partial integration for a heat-only business-as-usual industrial energy systems. Even though switching to an alternative fuel (blue hydrogen) reduces carbon emissions by 72%, costs increase by at least 3% compared to a system using fuel gas and fuel oil. A hierarchical integration of blue hydrogen reduces cost by 47% and carbon emissions by 88.7%. Partial integration of carbon capture and storage reduces carbon emissions by 36% but costs increase by 89%, with full integration using optimization and the hierarchy costs only increase by 6.3%. Therefore, the cost-effectiveness of integrating alternative technological concepts is highly influenced by the hierarchy which seeks to minimize demand for energy from industrial processes first, then increase the supply efficiency of industrial energy systems, and before switching to alternative fuels and technologies. Graphical Abstract
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对工业能源系统脱碳的替代技术概念进行等级排序,能否将减排成本降至最低?
在现有工业能源系统中整合替代技术概念,如改用替代燃料、先进能源效率和碳捕获和储存,可证明对尽量减少排放非常有效;然而,它们的采用率很低,因为使用这些概念的解决方案会大大增加成本。本工作的假设是这些概念的分层组合可以降低缓解成本。为此,采用混合方法方法,将能源模拟与一种新的混合整数线性规划模型相结合,探索48种替代解决方案,使工业能源系统更具可持续性。该方法适用于最常见的工业能源系统配置。结果表明,在基于优化的选择层次中,首先探索通过直接热回收的能源效率,可以降低整合替代技术概念的附加成本。等级是在燃料和技术转换或整合碳捕获和储存之前的先进能源效率。这意味着流程整合可以为碳排放的大幅减少买单。与部分整合仅供热的常规工业能源系统相比,优化和分层整合替代技术概念可减少61%的排放量,降低55.7%的成本。尽管改用替代燃料(蓝色氢)可以减少72%的碳排放,但与使用燃气和燃油的系统相比,成本至少增加了3%。蓝色氢的分层整合可降低47%的成本和88.7%的碳排放。碳捕获和封存的部分整合减少了36%的碳排放,但成本增加了89%,而使用优化和层次结构的完全整合只增加了6.3%。因此,整合替代技术概念的成本效益受到层次结构的高度影响,层次结构首先寻求从工业过程中减少对能源的需求,然后提高工业能源系统的供应效率,然后再转向替代燃料和技术。图形抽象
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