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1.上海大学 上海 200444;
2.中国科学院上海应用物理研究所 嘉定园区 上海 201800
吴攀,男,1990年出生,2012年毕业于南华大学,现为硕士研究生,研究方向为反应堆中子物理计算
陈金根,E-mail:chenjg@sinap.ac.cn
收稿日期:2016-01-12,
录用日期:2016-03-22,
纸质出版日期:2016-01-25
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吴攀, 蔡翔舟, 余呈刚, 等. 氢化锆慢化熔盐堆钍铀转换性能初步分析[J]. 核技术, 2016,39(5):050605
Pan WU, Xiangzhou CAI, Chenggang YU, et al. Preliminary analysis of Th-U conversion performance in a ZrH-moderated molten salt reactor[J]. Nuclear techniques, 2016, 39(5): 050605
吴攀, 蔡翔舟, 余呈刚, 等. 氢化锆慢化熔盐堆钍铀转换性能初步分析[J]. 核技术, 2016,39(5):050605 DOI: 10.11889/j.0253-3219.2016.hjs.39.050605.
Pan WU, Xiangzhou CAI, Chenggang YU, et al. Preliminary analysis of Th-U conversion performance in a ZrH-moderated molten salt reactor[J]. Nuclear techniques, 2016, 39(5): 050605 DOI: 10.11889/j.0253-3219.2016.hjs.39.050605.
中子能谱对钍基燃料在熔盐堆中的利用效率及温度反馈系数等安全问题有较大影响
所以对熔盐堆新型慢化剂的研究具有重要意义。本工作基于SCALE6计算程序
对不同几何栅元结构的氢化锆栅元组件在熔盐堆的物理性能进行了研究
分别计算了中子能谱、钍铀转换比、
233
U浓度、总温度反馈系数以及燃耗等中子物理参量。结果表明
减小六边形栅元对边距或者增加熔盐占栅元体积比可以增加钍铀转换比和改善温度反应性系数;当加入的氢化锆慢化剂体积份额为0.1时就可以将熔盐堆
233
U初始浓度降低到2.5×10
-2
以内;氢化锆慢化熔盐堆在超热谱条件下
其
233
U初装载量和超铀核素产量较小
同时堆芯较为紧凑。
Background:
2
The neutron spectrum plays an important role in thorium-based fuel utilization efficiency and temperature feedback coefficient concerning reactor operation safety
so it is very important to study the new moderator material used in molten salt reactor(MSR).
Purpose:
2
This study aims to analyze the thorium-uranium conversion performance of a ZrH-moderated molten salt reactor and analyze the feasibility of ZrH as moderator in molten salt reactor.
Methods:
2
SCALE program is used to calculate neutron spectrum
thorium uranium conversion ratio
233
U concentration
total temperature feedback coefficient and burnup calculation with different lattice parameters.
Results:
2
The thorium uranium conversion ratio and total temperature feedback coefficient can be improved significantly by reducing lattice size or increasing salt volume ratio; the initial
233
U concentration for start reactor can be easily controlled under 2.5×10
-2
when the volume share of added ZrH is 0.1.
Conclusion:
2
Compared to the graphite-moderated MSR
ZrH-moderated MSR reduces initial
233
U inventory and transuraniums(TRUs) production
and makes its core more compact.
U.S. Department of Energy. . A technology roadmap for generation IV nuclear energy systems . USA:Nuclear Energy Research Advisory Committee and the Generation IV International Forum , 2002 .
Serp J , Allibreat M , Benes O , . The molten salt reactor(MSR) in generation IV:overview and perspectives . Progress in Nuclear Energy , 2014 . 77 308 - 319 .
Delpech S , Merle-lucott E , Heuber D , . Reactor physic and reprocessing scheme for innovative molten salt reactor system . Journal of Fluorine Chemistry , 2009 . 130 ( 1 ): 11 - 17 .
Nuttin A , Heuer D , Billebaud A , . Potential of thorium molten salt reactor:detailed calculations and concept evolutions view of a large nuclear energy production . Progress in Nuclear Energy , 2005 . 46 ( 1 ): 77 - 99 .
Merle-lucott E , Heuer D , Allibert M , . Optimization and simplification of the concept of non-moderated thorium molten salt reactor . International Conference on the Physics of Reactors, PHYSOR-2008, Interlaken, Switzerland , 2008 .
Zou C Y , Cai X Z , Jiang D Z , . Optimization of temperature coefficient and breeding ratio for a graphite-moderated molten salt reactor . Nuclear Engineering and Design , 2015 . 281 114 - 120 .
Nagy K , Kloosterman J , Lathouwers D , . The effects of core zoning on the graphite lifespan and breeding gain of a moderated molten salt reactor . Annals of Nuclear Energy , 2012 . 43 19 - 25 .
Kazarnikov V V , Primakov N G , Rudenko V A . Effect of neutron irradiation on the microstructure of zirconium hydride . International Association for Hydrogen Energy , 1997 . 22 ( 2-3 ): 169 - 173 .
Olander D , Greespan E , Garkisch H D . Uranium-zirconium hydride fuel properties . Nuclear Engineering and Design , 2009 . 239 ( 8 ): 1406 - 1424 .
Transatomic Power . Technical white paper . 2015 .
Huangs J , Tsuchiya B , Konashi K , . Estimation of hydrogen redistribution in zirconium hydride under temperature gradient . Journal of Nuclear Science and Technology , 2000 . 37 ( 10 ): 887 - 892 .
Cockeram D J . SANP 2, 8, and 10 A reactor programs progress report . Progress in Astronautics and Rocketry , 1966 . 16 393 - 415 .
Kuznetsov V A , Gryaznov G M , Artyukhov P M , . Development and construction of the thermionic nuclear power installation "Topaz" . Sovient Atomic Energy , 1974 . 36 ( 6 ): 577 - 585 .
Generic procedures for response to a nuclear or radiological emergency at triga research reactors . USA:International Atomic Energy Agency , 2011 .
Kreprl J , Hombourger B , Fiorina C , . Fuel cycle advantages and dynamics features of liquid fueled MSR . Annals of Nuclear Energy , 2014 . 64 380 - 397 .
Merle-lucott E , Heuer D , Allibert M , . Launching the thorium fuel cycle with the molten salt fast reactor . Proceedings of the 2011 International Congress on Advances in Nuclear Power Plants, Nice, France , 2011 .
SCALE:a modular code system for performing standardized computer analysis for licensing evaluations . ORNL/TM-2005/39, Version 5, Vols I-Ⅲ, April , 2005 .
Yu C G , Li X X , Cai X Z , . Analysis of minor actinides transmutation for a molten salt fast reactor . Annals of Nuclear Energy , 2015 . 85 597 - 604 .
Mathieu L , Heuer D , Merle-lucott E , . Possible configurations for the thorium molten salt reactor and advantages of the fast non-moderated version . Nuclear Science and Engineering , 2009 . 161 ( 1 ): 78 - 89 .
Chvala O . MSR lattice optimization for economic salts with LEU fuel . Proceedings of the 2014 International Congress on Advances in Nuclear Power Plants, Charlotte, USA , 2014 .
Hill R N , Taiwo T A . Transmutaion impacts of Generation-IV nuclear energy systems . ANS Topical Meeting on Reactor Physics, PHYSOR-2006, Vancouver BC, Canada , 2006 .
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