首页> 外文期刊>Transactions of the American nuclear society >FEASIBILITY OF COLLIDING BEAM FUSION-CATALYZED FAST FISSION CHAIN REACTOR WITH DIRECT CONVERSION OF ENERGY OF FISSION FRAGMENTS INTO ELECTRICITY AND SUPPRESSED PLUTONIUM PRODUCTION
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FEASIBILITY OF COLLIDING BEAM FUSION-CATALYZED FAST FISSION CHAIN REACTOR WITH DIRECT CONVERSION OF ENERGY OF FISSION FRAGMENTS INTO ELECTRICITY AND SUPPRESSED PLUTONIUM PRODUCTION

机译:直接将裂变碎片的能量转化为电能并抑制生产的束流熔合催化裂变链式反应器的可行性

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摘要

While many issues were left moot of this SUMMARY, our conceptual physics quest provides ballpark numbers of the power density that might be produced: 100 - 1,000 MW/m~3, in a disk shaped cylinder or cell, with obvious ecological advantages over DT fusion reactors for which (ⅰ) direct conversion is unthinkable and (ⅱ) thermal conversion of 14 MeV is an order of magnitude more cumbersome than that of fission reactors (ⅲ) 20 - fold energy release per reaction and (ⅳ) cost of T fuel per energy produced is 100 times that of fission. This offers a reasonable incentive to conduct a simulation and engineering study. Compared to the Migma Ⅳ described here, 1. Strong focusing confinement should replace the weak focusing to gain the usual factor of 100-1000 in stored ion density; and confinement time; 2. Stabilization by driven oscillations of electron cloud should include new development that took place in the field of election cloud stabilization of colliding beams; 3. Study of extraction of the electrically charged fission fragments and fusion products is required to determine conversion efficiency; 4. Design study of a multi cylinder fission engine by stacking cells.
机译:尽管本概述中有许多问题尚待解决,但我们的概念物理学探索提供了可能产生的功率密度的基本数字:100-1,000 MW / m〜3,在圆盘形圆柱体或电池中,具有比DT融合明显的生态优势(ⅰ)难以想象的直接转化和(and)14 MeV的热转化比裂变反应堆麻烦一个数量级(ⅲ)每个反应释放20倍的能量和(ⅳ)每个裂变燃料的成本产生的能量是裂变的100倍。这为进行模拟和工程研究提供了合理的动力。与此处描述的MigmaⅣ相比,1.强聚焦限制应代替弱聚焦,以使存储离子密度通常达到100-1000。和分娩时间; 2.通过电子云的驱动振荡进行的稳定化应包括碰撞束电子云稳定化领域发生的新发展; 3.需要研究带电裂变碎片和聚变产物的提取,以确定转化效率; 4.通过堆叠电池的多缸裂变发动机的设计研究。

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