[1] IAEA.IAEA基本安全原则:安全基本法则第SF-1号[S].维也纳:IAEA,2007. [2] 国家核安全局.核动力厂设计安全规定:HAF 102—2016[S].2016. [3] IAEA.Radiation protection aspects of design for Nuclear power plants[S].IAEA Safety Guide No.NS-G-1.13.Vienna:IAEA,2005. [4] 潘自强.辐射防护最优化——当前辐射防护研究的主要课题[J].辐射防护,1986,6(5):331-337. PAN Ziqiang.Optimization of radiation protection—A principle subject of research in the field of radiation protection at present[J].Radiation Protection,1986,6(5):331-337. [5] 核工业标准化研究所.电离辐射防护与辐射源安全基本标准:GB 18871—2002[S].北京:中国标准出版社,2002. [6] 环境保护部.核动力厂环境辐射防护规定:GB 6249—2011[S].北京:中国环境科学出版社,2011. [7] 许明霞.压水堆一回路冷却剂活化腐蚀产物钴银锑[J].核安全,2012,(1):1-8. XU Mingxia.Major activated corrosion products cobalt,silver and antimony in the primary coolant of PWR power station[J].Nuclear Safety,2012,(1):1-8. [8] 英国经济合作与发展组织.新核电站设计的职业辐射防护原则和准则[M].许昌恒等译.北京:中国原子能出版社,2012. [9] NRC.Occupational radiation dose assessment in light-water reactor power plants design stage man-rem Estimates:RG8.19[S].U.S.NRC,1979. [10] 王晓亮,郑平辉,郑伟,等.华龙一号核电厂公众辐射剂量优化设计目标值研究[J].辐射防护,2019,39(3):177-182. WANG Xiaoliang,ZHENG Pinghui,ZHENG Wei,et al.Optimization study on the design objective of public radiation dose for HPR1000 nuclear power plants[J].Radiaton Protection,2019,39(3):177-182. [11] US NRC.Domestic licensing of production and utilization facilities:10 CFR PART 50[S]. [12] EUR.European utility requirements for lwr nuclear power plants-Revision D[R]. [13] NNL.NNL-13668 Issue 2:Parameters applied to the assessment of radiological environmental impact[R].2016, [14] 中国核电工程有限公司.福建福清核电厂5、6号机组环境影响报告书D版(建造阶段)[R].2015. [15] 刘新华,方岚,祝兆文,等.压水堆核电厂正常运行裂变产物源项框架研究[J].辐射防护,2015,35(3):129-135. LIU Xinhua,FANG Lan,ZHU Zhaowen,et al.A study on framework of fission product source terms for PWR plants under normal operation[J].Radiation Protection,2015,35(3):129-135. [16] 王晓亮,等.ACP1000排放源项计算与运行经验反馈的对比分析研究[J],核工程研究与设计,2014,6:268-281. [17] 赵博,王晓亮,等.新建核电厂(华龙一号) 运行的环境影响评估[J],辐射防护,2015,35(S1):5-11. |