美国和加拿大的可持续能源工业系统展示了太阳能到x的价值

IF 2.5 3区 工程技术 Q3 ENERGY & FUELS
Gabriel Lopez;Arman Aghahosseini;Dmitrii Bogdanov;Rasul Satymov;Ayobami Solomon Oyewo;Christian Breyer
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引用次数: 0

摘要

太阳能光伏发电(PV)的显著增长推动了向高度可持续能源工业系统的过渡。尽管美国和加拿大的目标是到2050年实现净零排放,但化石燃料仍然主导着能源工业系统。根据政府的预测,将能源和非能源需求的完全去化石化与一切照旧的情况进行比较,开发和分析了过渡途径。研究结果表明,向100%可再生能源过渡对所有行业都有好处,因为太阳能光伏发电产生的过剩低成本电力可用于电力到x解决方案,以生产基于电力的燃料、化学品和材料。到2050年,电力部门将只消耗20%的发电量,其余的将用于供热、运输和工业部门。因此,随着总发电量从2020年的4394太瓦时增加到2050年的20795太瓦时,系统中所有一次能源的86%来自可再生电力。太阳能光伏发电占总发电量的78%,装机容量10.6太瓦。全面的能源工业部门转型将导致平准化电力成本(LCOE)和最终能源平准化成本(LCOFE)的降低。LCOE将从2020年的72欧元/兆瓦时大幅下降到2050年的25欧元/兆瓦时,LCOFE将从目前的50欧元/兆瓦时下降到2050年的41欧元/兆瓦时。太阳能光伏发电和柔性电解之间强大的运营协同作用,为实现净零排放的气候目标提供了一条过渡途径,证明了Power-to-X经济的可行性。太阳能光伏的高份额表明了太阳能到x经济的特征。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Sustainable Energy Industry Systems in the United States and Canada Demonstrating the Value of Solar-to-X
The transition to highly sustainable energy industry systems is being driven by significant growth in solar photovoltaics (PV). Despite targets to reach net-zero emissions by 2050, fossil fuels still dominate the energy industry systems in the USA and Canada. Transition pathways are developed and analyzed comparing a complete defossilization of both energy and nonenergy demands with business-as-usual conditions based on government projections. The results demonstrate the benefits of transitioning to 100% renewable energy for all sectors, as excess low-cost electricity from solar PV can be used for power-to-X solutions to produce electricity-based fuels, chemicals, and materials. By 2050, the power sector will only consume 20% of generated electricity, with the remaining used to electrify the heat, transport, and industry sectors. Thus, 86% of all primary energy in the system comes from renewable electricity, as total electricity generation increases from 4394 TWh in 2020 to 20 795 TWh in 2050. Solar PV reaches 78% of all electricity generation, leading to 10.6 TW of installed capacity. The full energy industry sector transition leads to reductions in both levelized cost of electricity (LCOE) and levelized cost of final energy (LCOFE). The LCOE sees massive reductions from 72 €/MWh in 2020 to 25 €/MWh in 2050, and the LCOFE decreases from the current 50 to 41 €/MWh in 2050. The strong operational synergies between solar PV and flexible electrolysis enable a transition pathway that demonstrates the viability of a Power-to-X Economy in achieving climate targets of net-zero emissions. The high share of solar PV indicates a Solar-to-X Economy characteristic.
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来源期刊
IEEE Journal of Photovoltaics
IEEE Journal of Photovoltaics ENERGY & FUELS-MATERIALS SCIENCE, MULTIDISCIPLINARY
CiteScore
7.00
自引率
10.00%
发文量
206
期刊介绍: The IEEE Journal of Photovoltaics is a peer-reviewed, archival publication reporting original and significant research results that advance the field of photovoltaics (PV). The PV field is diverse in its science base ranging from semiconductor and PV device physics to optics and the materials sciences. The journal publishes articles that connect this science base to PV science and technology. The intent is to publish original research results that are of primary interest to the photovoltaic specialist. The scope of the IEEE J. Photovoltaics incorporates: fundamentals and new concepts of PV conversion, including those based on nanostructured materials, low-dimensional physics, multiple charge generation, up/down converters, thermophotovoltaics, hot-carrier effects, plasmonics, metamorphic materials, luminescent concentrators, and rectennas; Si-based PV, including new cell designs, crystalline and non-crystalline Si, passivation, characterization and Si crystal growth; polycrystalline, amorphous and crystalline thin-film solar cell materials, including PV structures and solar cells based on II-VI, chalcopyrite, Si and other thin film absorbers; III-V PV materials, heterostructures, multijunction devices and concentrator PV; optics for light trapping, reflection control and concentration; organic PV including polymer, hybrid and dye sensitized solar cells; space PV including cell materials and PV devices, defects and reliability, environmental effects and protective materials; PV modeling and characterization methods; and other aspects of PV, including modules, power conditioning, inverters, balance-of-systems components, monitoring, analyses and simulations, and supporting PV module standards and measurements. Tutorial and review papers on these subjects are also published and occasionally special issues are published to treat particular areas in more depth and breadth.
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