波罗的海近海结构中可再生能源生产、二氧化碳和氢气储存的协同方案

Kazbulat Shogenov, Alla Shogenova
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引用次数: 0

摘要

二氧化碳捕集、运输、利用和封存(CCUS)是减缓气候变化的核心技术之一。在拉脱维亚海上E6构造不同隔室的寒武纪Deimena组砂岩中,首次提出了二氧化碳地质储存(CGS)、二氧化碳利用、不同环保可再生能源回收技术和地下氢气储存(UHS)的协同作用的新技术经济和技术生态概念,我们称之为地质动力银行(Geo-PB)。提出了E6地质构造能源与co2储运枢纽的五阶段循环经济概念。该工作流程具有技术生态、生态友好、自给自足、成本竞争力和经济可行性。它包括(1)船舶将二氧化碳运输到钻井平台,(2)CGS和co2羽地热技术(CPG)的二氧化碳注入,(3)h2生产,(4)Geo-PB,(5)由同一艘船将h2运输到客户。这个概念支持一个双赢的局面——技术与生态协同的创新元素在一个地点:(1)CGS, (2) CPG,(3)太阳能,(4)风能,(5)海流能源,(6)h2生产,(7)Geo-PB和(8)h2运输给消费者。拟议的循环是封闭的,展示了循环经济的原则,这将提高该概念的总效率。CGS和CPG计划位于E6地质构造的E6- a隔室,乐观估计平均CO 2储存容量为3.65 Mt, Geo-PB计划位于E6- b隔室,H 2储存容量为119 kt。波罗的海近海方案是雄心勃勃的和创新的,提议的新技术,与可再生能源(地热、太阳能、风能和海流)的协同作用,大的储存能力,包括二氧化碳的储存和利用,由来自爱沙尼亚、拉脱维亚和立陶宛的能源生产、水泥工业和生物排放的CCUS排放源集群捕获。该概念旨在通过避免向大气排放二氧化碳和实施循环经济原则来减少气候变化的人为影响。它将提高公众和政策制定者对新的地下二氧化碳和能源储存技术的接受程度。拟议的CGS和储能项目协同解决方案将使此类业务在经济上可行,并对投资者具有吸引力。我们的研究展示了一个新时代,下一代具有成本竞争力、自我支持的概念技术-生态的例子,这是存储概念与可再生能源结合使用循环经济方法可能产生的协同作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Synergy scenario for renewable energy production, CO2 and H2 storage in the Baltic offshore structure
CO 2 Capture, Transport, Use and Storage (CCUS) is one of the core technologies to mitigate climate change. New techno-economic and techno-ecological concept of a synergy of CO 2 geological storage (CGS), CO 2 use, hydrogen (H 2 ) production from different eco-friendly renewable energy recovery technologies and underground H 2 storage (UHS), which we call here Geological Power Bank (Geo-PB), in Cambrian Deimena Formation sandstones in different compartments of the E6 structure offshore Latvia is presented for the first time. A five-phase circular economy concept of E6 geological structure energy and CO 2 storage hub was developed in this study. The workflow is techno-ecological, eco-friendly, self-supporting, cost-competitive, and economically feasible. It consists of (1) CO 2 transport by ships to the rig , (2) CO 2 injection for CGS and CO 2 Plume Geothermal technology (CPG), (3) H 2 production, (4) Geo-PB, and (5) H 2 transport by the same ships to the customers. The concept is supporting a win 8 situation - innovative elements of techno-ecological synergy in one site: (1) CGS, (2) CPG, (3) solar energy, (4) wind energy, (5) sea currents energy, (6) H 2 production (7) Geo-PB and (8) H 2 transport to consumers. The proposed cycle is closed, demonstrating the principles of circular economy, which will increase the total efficiency of the concept. CGS and CPG are planned in the E6-A compartment of the E6 geological structure with an average CO 2 storage capacity of 365 Mt in an optimistic approach and Geo-PB is planned in E6-B with an H 2 storage capacity of 119 kt. The Baltic offshore scenario is ambitious and innovative, proposed new technologies, synergy with renewable energy (geothermal, solar, wind and sea current), large storage capacity, including CO 2 storage and use captured by a CCUS clusters of emission sources from energy production, cement industry and bio-emissions from Estonia, Latvia and Lithuania. The concept aimed to decrease the artificial impact of climate change by avoiding CO 2 emissions to the atmosphere and implementing circular economy principles. It will increase public and policymakers’ acceptance of new underground CO 2 and energy storage technologies. The proposed synergy solution for CGS and energy storage projects will make such a business economically feasible and attractive for investors. Our study demonstrates a new era, the next generation of cost-competitive, self-supporting conceptual techno-ecological examples of a possible synergy of storage concepts with renewable energies combined using circular economy approaches.
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