A D-3He fusion reactor for the mitigation of global warming

E. Mazzucato
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Abstract

Since a fusion reactor using the Deuterium-Tritium fuel cycle cannot be a source of clean energy because of the deleterious effects of energetic neutrons carrying 80% of the energy output, and it is very doubtful that it will be able to achieve Tritium self-sufficiency because of an extremely problematic and still unproven breeding procedure, this paper proposes a new reactor scheme capable of confining hot and dense plasmas using the Deuterium – Helium-3 fuel cycle. Such a reactor must be considered a source of clean energy because of its very low level of neutrons production, and its fuel is available in large quantity since we can get the needed Deuterium from seawater and likewise Helium-3 from the moon, as it was found from the samples of lunar soil brought back by the astronauts of the Apollo Mission. The proposed reactor consists of two 100 m long cylindrical plasmas, connected by semicircular sections to form a racetrack configuration. It should be capable of producing from 16 to 20 GW of fusion power when operating with an electron density of 3 × 1020 m−3, a magnetic field of 10 T and average temperatures from 40 to 45 keV. Out of this power, up to 10 GW will be used for replacing the loss of electron energy from bremsstrahlung radiation, with a consequent reduction in the reactor power output. However, such a loss could be mitigated by a partial recovery of the energy plasma radiation.

用于减缓全球变暖的D-3He聚变反应堆
由于携带80%能量输出的高能中子的有害影响,使用氘-氚燃料循环的聚变反应堆不能成为清洁能源,并且由于一种极其有问题且尚未经证实的育种程序,它能否实现氚自给自足是非常值得怀疑的,本文提出了一种新的反应堆方案,该方案能够使用氘-氦-3燃料循环来限制高温和致密的等离子体。这种反应堆必须被视为清洁能源,因为它的中子生产水平非常低,而且它的燃料是大量可用的,因为我们可以从海水中获得所需的氘,同样也可以从月球中获得氦-3,因为它是从阿波罗任务宇航员带回的月球土壤样本中发现的。拟建的反应堆由两个100米长的圆柱形等离子体组成,由半圆部分连接,形成跑道结构。当电子密度为3时,它应该能够产生16至20吉瓦的聚变功率 × 1020 m−3,磁场为10 T,平均温度为40至45 keV。其中,高达10吉瓦的功率将用于弥补韧致辐射造成的电子能量损失,从而降低反应堆功率输出。然而,这种损失可以通过能量等离子体辐射的部分恢复来减轻。
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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