An Advanced Energy System Using a Small Fast Reactor as an Energy Source

Y. Kato, Y. Muto, T. Ishizuka, N. Nikitin, M. Utamura
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Abstract

An advanced energy system has been proposed that involves a supercritical carbon dioxide gas turbine fast reactor (S-CO2 FR) as a dispersed energy source, a new waste-heat recovery system from the FR, and a bioconversion system using the recovered waste heat. The FR with S-CO2 gas turbine achieves higher cycle efficiency than conventional sodium-cooled FRs with steam turbines, eliminating problems of conventional FRs related to safety, plant maintenance, and construction costs. The S-CO2 FR consumes minor actinide elements produced in light water reactors as fuel, thereby reducing long-lived radioactive wastes and environmental loads imparted by long-term geological disposal. The recovered waste heat is used for methane and methanol production through fermentation of human and animal wastes in cities and farms. The methane and methanol are easily transported and can accommodate demand changes; they are useful as fuel of fuel cells, automobiles, and gas turbine power plants. The total energy utilization efficiency in electricity and heat is estimated to be higher than 85%, contributing to saving of energy resources and reduction of greenhouse-gas emissions. Consumption of the waste products of cities and farms for production of methane and methanol fosters a recycling society. Compact and high-performance microchannel heat exchangers are used in the S-CO2 FR, the new waste-heat recovery system and the fermentation system.
以小型快堆为能源的先进能源系统
提出了一种先进的能源系统,包括超临界二氧化碳燃气轮机快堆(S-CO2 FR)作为分散能源,一个新的余热回收系统,以及一个利用回收的余热进行生物转化的系统。采用S-CO2燃气轮机的核电厂比采用蒸汽轮机的传统钠冷核电厂具有更高的循环效率,消除了传统核电厂在安全、工厂维护和建设成本方面的问题。S-CO2反应器消耗轻水反应堆产生的少量锕系元素作为燃料,从而减少了长期放射性废物和长期地质处置所带来的环境负荷。回收的余热通过城市和农场的人类和动物粪便发酵用于甲烷和甲醇生产。甲烷和甲醇运输方便,可适应需求变化;它们可以用作燃料电池、汽车和燃气涡轮发电厂的燃料。预计电、热总能源利用效率在85%以上,有利于节约能源和减少温室气体排放。利用城市和农场的废物生产甲烷和甲醇,促进了一个循环型社会。紧凑和高性能的微通道热交换器用于S-CO2 FR,新的废热回收系统和发酵系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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