Dawn of clean energy: Enhanced heat transfer, radiative cooling, and firecracker-style controlled nuclear fusion power generation system

Weimin Yang, Enxiang Zhang, Jiuzhou Zhao, Yifan Zhao, Kangkang Tang, Yan Cui, Xianyu Luo, Zhen Zhang, Chengjun Li, Fenghua Zhang, Xiaodong Gao
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引用次数: 0

Abstract

Global climate change has become a major environmental threat and development challenge facing humanity. Controllable nuclear fusion is a globally recognized ideal solution for clean energy, but its required high-energy triggering conditions and intense energy release prevent existing technologies from achieving safe, stable, and long-term continuous operation. Here, inspired by the traditional Chinese firecrackers, we propose a pulsed fusion reaction flywheel energy storage multi-reactor relay operation to drive the steam turbine to continuously and stably generate electricity for a long period of time; meanwhile, to install cleaning rotors in the cooling medium pipeline to enhance heat exchange, and to apply radiative cooling technology on the surface of the cooling tower to improve cooling efficiency and to reduce energy consumption, thereby improving system safety and overall energy efficiency. Proposing the combination of original technologies at both the hot end and the cold end of the system, we strive to open up a new way for controllable nuclear fusion power generation.
清洁能源的曙光:强化传热、辐射冷却和爆竹式可控核聚变发电系统
全球气候变化已成为人类面临的重大环境威胁和发展挑战。可控核聚变是全球公认的清洁能源理想解决方案,但其所需的高能触发条件和强烈的能量释放使现有技术无法实现安全、稳定和长期连续运行。在此,受中国传统鞭炮的启发,我们提出了脉冲聚变反应飞轮储能多堆接力运行,驱动汽轮机长时间连续稳定发电;同时,在冷却介质管道中安装清洗转子,加强热交换,在冷却塔表面采用辐射冷却技术,提高冷却效率,降低能耗,从而提高系统安全性和整体能效。提出将系统热端和冷端独创技术相结合,努力开辟可控核聚变发电新途径。
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