氟化物熔盐的制备及其应用进展
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  • 英文篇名:Advances in the preparation and application of fluoride molten salts
  • 作者:宗国强 ; 肖吉昌
  • 英文作者:ZONG Guoqiang;XIAO Jichang;Key Laboratory of Organofluorine Chemistry,Shanghai Institute of Organic Chemistry,University of Chinese Academy of Sciences,Chinese Academy of Sciences;
  • 关键词:氟化物熔盐 ; 熔盐堆 ; 冶金 ; 冷却剂 ; 电解质
  • 英文关键词:fluoride molten salt;;molten salt reactor;;metallurgy;;coolant;;electrolyte
  • 中文刊名:HGJZ
  • 英文刊名:Chemical Industry and Engineering Progress
  • 机构:中国科学院有机氟化学重点实验室中国科学院上海有机化学研究所中国科学院大学;
  • 出版日期:2018-07-05
  • 出版单位:化工进展
  • 年:2018
  • 期:v.37;No.322
  • 基金:中国科学院战略性先导科技专项(XDA02020105,XDA02020106);; 国家重点基础研究计划(2015CB931900);; 国家自然科学基金(21421002)项目
  • 语种:中文;
  • 页:HGJZ201807001
  • 页数:18
  • CN:07
  • ISSN:11-1954/TQ
  • 分类号:6-23
摘要
氟化物熔盐具有高温稳定性好、热导率高、比热容大、电化学窗口宽、饱和蒸汽压低和中子吸收截面小等一系列优点,是一种具有广阔应用前景的重要功能材料。本文介绍了氟化物熔盐的典型制备及净化方法(如真空除水法、氟氢化铵法、H_2-HF净化法、电化学净化法、添加还原剂法),分析了不同方法去除熔盐中杂质离子的作用机制和技术特点。总结了氟化物熔盐在核能、冶金、功能材料制备、先进储能介质、表面处理技术、电子化学品、精细化工及熔盐电池材料等领域的应用及最新进展。突出了氟化物熔盐作为核反应堆冷却剂、熔盐电解质、高温储能材料及反应介质等方面的应用优势。指出了氟化物熔盐在制备及应用过程中存在的问题及发展趋势,并就其发展前景进行了展望。文章指出开展氟化物熔盐制备与纯化机制研究、探索氟化物熔盐净化过程中杂质的存在形式与迁移规律、阐明氟化物熔盐制备与净化机理、发展新的熔盐净化方法以减小熔盐的腐蚀性和降低成本对熔盐的工业化生产和应用至关重要。
        Fluoride molten salt has many advantages,such as high temperature stability,high thermal conductivity,large heat capacity,wide electrochemical window,low saturated vapor pressure and small neutron absorption cross section. It is an important functional material which has found widespread applications. The typical preparation and purification methods of fluoride molten salt,including vacuum dehydration,fluorination using ammonium fluoride,H2-HF purification,electrochemical purification and reduction with metals,are introduced in detail. The mechanism and technical characteristics are analyzed for the different methods that are used to remove impure ions in molten salt. At the same time,the applications and progress of fluoride molten salts in nuclear energy,metallurgy,functional materials preparation,advanced energy storage medium,surface treatment technology,electronic chemicals,fine chemicals and molten salt battery materials are reviewed. The fluoride molten salts are mainly used as the nuclear reactor coolant,molten salt electrolyte,high temperature energy storage material and reaction medium. The existing problems in this area are also discussed. It is important to study and clarify the preparation and purification mechanism of fluoride molten salt,to explore the existence form and impurity migration nature in the process of fluoride purification,and to develop a new method for the purification of the molten salt to reduce its corrosion and cost.
引文
[1]谢刚.熔融盐理论与应用[M].北京:冶金工业出版社,1998.XIE G.Theory and application of molten salt[M].Beijing:Metallurgical Industry Press,1998.
    [2]张士宪,赵晓萍,李运刚.高温熔盐体系的应用及研究进展[J].电镀与精饰,2016,38(9):22-27.ZHANG S X,ZHAO X P,LI Y G.Application and researching progress of high temperature molten salt system[J].Plating and Finishing,2016,38(9):22-27.
    [3]张明杰,王兆文.熔盐电化学原理与应用[M].北京:化学工业出版社,2006.ZHANG M J,WANG Z W.Principle and application of molten salt electrochemistry.[M].Beijing:Chemical Industry Press,2006.
    [4]王为民,姚礼之,李路.氟的应用与元素氟的制取[J].有机氟工业,1998(3):38-44.WANG W M,YAO L Z,LI L.The application of fluorine and the preparation of element fluorine[J].Organo-fluorine Industry,1998(3):38-44.
    [5]GROULT H.Electrochemistry of fluorine production[J].Journal of Fluorine Chemistry,2003,119(2):173-189.
    [6]KHOKHLOV V,IGNATIEV V,AFONICHKIN V.Evaluating physical properties of molten salt reactor fluoride mixtures[J].Journal of Fluorine Chemistry,2009,130(1):30-37.
    [7]SERP J,ALLIBERT M,BENES O,et al.The molten salt reactor(MSR)in generation IV:overview and perspectives[J].Progress in Nuclear Energy,2014,77:308-319.
    [8]WILLIAMS D F,TOTH L M,CLARNO K T.Assessment of candidate molten salt coolants for the advanced high-temperature reactor(AHTR)[R].2006,ORNL/TM-2006/12,Oak Ridge National Laboratory.
    [9]WALDROP M M,Nuclear energy:radical reactors[J].Nature,2012,492:26-29.
    [10]FORSBERG C W,PETERSON P F,ZHAO H.High-temperature liquid-fluoride-salt closed-brayton-cycle solar power towers[J].Journal of Solar Energy Engineering,2007,129(2):141-146.
    [11]吴耀明,苏明忠,杜森林.熔融盐研究进展[J].化工进展,1995,14(5):5-7,28.WU Y M,SU M Z,DU S L.Status and development of molten salts[J].Chemical Industry and Engineering Progress,1995,14(5):5-7,28.
    [12]SHAFFER J H.Preparation and handling of salt mixtures for the molten salt reactor experiment[R].ORNL4616,1-45.
    [13]PENG H,SHEN M,ZUO,et al.Electrochemical technique for detecting the formation of uranium-containing precipitates in molten fluorides[J].Electrochimica Acta,2016,222:1528-1537.
    [14]KHOKHLOV V,KORZUN I,DOKUTOVICH V,et al.Heat capacity and thermal conductivity of molten ternary lithium,sodium,potassium,and zirconium fluorides mixtures[J].Journal of Nuclear Materials,2011,410(1):32-38.
    [15]宗国强,陈博,张龙,等.FLi Na K熔盐的制备[J].核技术,2014,37(5):050604-1-050604-6.ZONG G Q,CHEN B,ZHANG L,et al.Preparation of FLi Na K molten salt[J].Nuclear Techniques,2014,37(5):050604-1-050604-6.
    [16]程进辉,安学会,张鹏,等.FKZr的热物性及热稳定性研究[J].核技术,2014,37(9):090602-1-050602-4.CHENG J H,AN X H,ZHANG P,et al.Experimental investigation on the thermal physical properties and thermal stability of FKZr[J].Nuclear Techniques,2014,37(9):090602-1-050602-4.
    [17]王建东,张国欣,耿俊霞.含钍氟化物熔盐和/或含铀氟化物熔盐及制备方法:106653102A[P].2017-05-10.WANG J D,ZHANG G X,GENG J X.Thorium fluoride-containing molten salt and/or uranium fluoride-containing molten salt and preparation method thereof:CN106653102A[P].2017-05-10.
    [18]廖春发,汤浩,王旭,等.Na3Al F6-Al F3-Li F-Mg F2-Al2O3-Nd2O3-Cu O熔盐体系电导率的研究[J].稀有金属与硬质合金,2016,44(1):60-64.LIAO C F,TANG H,WANG X,et al.Study on electrical conductivity of Na3Al F6-Al F3-Li F-Mg F2-Al2O3-Nd2O3-Cu O molten salt system[J].Rare Metals and Cemented Carbides,2016,44(1):60-64.
    [19]LEE Y J,LEE T H,KIMA D Y,et al.Microstructural and corrosion characteristics of tantalum coatings prepared by molten salt electrodeposition[J].Surface&Coatings Technology,2013,235:819-826.
    [20]KONDO M,NAGASAKA T,TSISAR V.Corrosion of reduced activation ferritic martensitic steel JLF-1 in purified Flinak at static and flowing conditions[J].Fusion Engineering and Design,2010,85(7):1430-1436.
    [21]LOVERING D G,GALE R J.Molten salt techniques[M].New York:Plenum Press,1983.
    [22]AFONICHKIN V,BOVET A,SHISHKIN V.Salts purification and redox potential measurement for the molten Li F-Th F4-UF4mixture[C]//Proceedings of the First ACSEPT International Workshop Lisbon,Portugal,2010.
    [23]宗国强,陈博,高敏,等.FLi Na K熔盐中微量氧的测定[J].中国无机分析化学,2015,5(1):45-48.ZONG G Q,CHEN B,GAO M,et al.Determination of trace oxygen in FLi Na K molten salt[J].Chinese Journal of Inorganic Analytical Chemistry,2015,5(1):45-48.
    [24]ZONG G Q,CUI Z H,SUN X G,et al.One-step synthesis of high-purity Li2Be F4 molten salt[J].Journal of Fluorine Chemistry,2016,181:30-35.
    [25]GRIMES W R.Chemical research and development for molten-salt breeder reactors[R].ORNL-TM-1853,Oak Ridge National Laboratory,1967.
    [26]SMOLIK G,PAWELKO R,MORIMOTO Y,et al.Mobilization measurements from Flibe under argon and air flow[J].Journal of Nuclear Materials,2004,329-333:1322-1326.
    [27]ANDERL R A,FUKADA S,SMOLIK G R,et al.Deuterium/tritium behaviour in Flibe and Flibe-facing materials[J].Journal of Nuclear Materials,2004,329-333:1327-1331.
    [28]ZHENG G,HE L,CARPENTER D,et al.Corrosion-induced microstructural developments in 316 stainless steel during exposure to molten Li2Be F4(FLi Be)salt[J].Journal of Nuclear Materials,2016,482:147-155.
    [29]KONDO M,NAGASAKA T,XU Q,et al.Corrosion characteristics of reduced activation ferritic steel JLF-1(8.92Cr-2W)in molten salts Flibe and Flinak[J].Fusion Engineering and Design,2009,84:1081–1085.
    [30]OUYANG F Y,CHANG C H,YOU B C,et al.Effect of moisture on corrosion of Ni-based alloys in molten alkali fluoride FLi Na K salt environments[J].Journal of Nuclear Materials,2013,437:201-207.
    [31]ZONG G Q,ZHANG Z B,SUN J H,et al.Preparation of high-purity molten FLi Na K salt by the hydrofluorination process[J].Journal of Fluorine Chemistry,2017,197:134-141.
    [32]HOU J,YU G J,ZENG C L,et al.Effects of exposing duration on corrosion performance in weld joint of Ni-Mo-Cr alloy in FLi Na K molten salt[J].Journal of Fluorine Chemistry,2016,191:110-119.
    [33]左勇,谢宏伟,申淼,等.脱氧阳极、氟化物熔盐电解脱氧的装置及电解方法:103572318A[P].2014-02-12.ZUO Y,XIE H W,SHEN M,et al.Deoxidizing anode,apparatus and electrolysis method for fluoride molten salt electrolysis deoxidization:CN103572318A[P].2014-02-12.
    [34]黄卫,蒋锋,田丽芳,等.熔盐的电化学净化方法:106283112A[P].2017-01-04.HUANG W,JIANG F,TIAN L F,et al.Molten salt electrochemical purification method:106283112A[P].2017-01-04.
    [35]WANG H,LIU S,LI B,et al.Characterization and removal of oxygen ions in Li F-Na F-KF melt by electrochemical methods[J].Journal of Fluorine Chemistry,2015,175:28-31.
    [36]SHEN M,PENG H,GE M,et al.Use of square wave voltammeter for online monitoring of O2-concentration in molten fluorides at600 oC[J].Journal of Electroanalytical Chemistry,2015,748:34-39.
    [37]FELKER L K,TOTH L M.Fluorine gettering by activated charcoal in a radiation environment[J].Separation Science and Technology,1988,23:1959-1968.
    [38]XIE M,LI L,DING Y,et al.Study on the mechanism of deoxidization and purification for Li2Be F4 molten salt via graphite nanoparticles[J].Journal of Nuclear Materials,2017,487:317-322.
    [39]谢雷东,朱国平,张国欣,等.一种熔盐的脱氧方法及脱氧后的熔盐:106517097A[P].2017-03-22.XIE L D,ZHU G P,ZHANG G X,et al.Deoxidation method of molten salt and molten salt after deoxidation:CN106517097A[P].2017-03-22.
    [40]CALDERONI P,SHARPE P,NISHIMURA H,et al.Control of molten salt corrosion of fusion structural materials by metallic beryllium[J].Journal of Nuclear Materials,2009,386-388:1102-1106.
    [41]GREEN G L,HUNT J B,SUTULA R A.Purification of FLINAK with bromine pentafluoride[J].Journal of Inorganic and Nuclear Chemistry,1973,35(12):4305-4307.
    [42]DELPECH S,CABET C,SLIM C,et al.Molten fluorides for nuclear applications[J].Materials Today,2010,13(5):34-41.
    [43]SALANNE M,SIMON C,TURQ P,et al.Heat-transport properties of molten fluorides:determination from first-principles[J].Journal of Fluorine Chemistry,2009,130(1):38-44.
    [44]EMME E M,Aeronautics and astronautics:an american chronology of science and technology in the exploration of space[R].Washington D C,1915—1960:49-63.
    [45]ERGEN W K,CALLIHAN A D,MILLS C B.The aircraft reactor experiment-physics[J].Nuclear Science and Engineering,1957,2:826-840.
    [46]INGERSOLL D T,et al.Status of pre-conceptual design of the advanced high temperature reactor(AHTR)(ORNL/TM-2004/104)[R].Tennessee:ORNL,2004.
    [47]ROBERTSON R C.Conceptual design study of a single-fluid molten-salt breeder reactor(ORNL-4541)[R].Tennessee:ORNL,1971.
    [48]江绵恒,徐洪杰,戴志敏.未来先进核裂变能-TMSR核能系统[J].中国科学院院刊,2012,27(3):366-374.JIANG M H,XU H J,DAI Z M.Advanced fission energy program-TMSR nuclear energy system[J].Bulletin of Chinese Academy of Sciences,2012,27(3):366-374.
    [49]DEGTYAREV A,MYASNIKOV A,PONOMAREV L.Molten salt fast reactor with U-Pu fuel cycle[J].Progress in Nuclear Energy,2015,82:33-36.
    [50]莱斯利·C·德万,马克·马西.熔盐反应堆:105684090A[P].2016-06-15.DEWAN L C,MASSIE M.Molten salt reactor:CN105684090A[P].2016-06-15.
    [51]吴宗鑫,张作义.先进核能系统和高温气冷堆[M].北京:清华大学出版社,2004.WU Z X,ZHANG Z Y.Advanced nuclear energy systems and high temperature gas cooled reactors[M].Beijing:Tsinghua University Press,2004.
    [52]BAUMER R,KALINOWSKI I,ROHLER E,et al.Construction and operating experience with the 300-MW THTR nuclear power plant[J].Nuclear Engineering and Design,1990,121:155-166.
    [53]VICTOR I,OLGA F,IVAN G,et al.Progress in development of Li,Be,Na/F molten salt actinide recycler&transmuter Concept[C]//Proceedings of ICAPP 2007.Nice,France:ICAPP,2007.
    [54]MATHIEU L,HEUER D,BRISSOT R,et al.The thorium molten salt reactor:moving on from the MSBR[J].Progress in Nuclear Energy,2006,48:664-679.
    [55]WILSON T R.Molten salt fission reactor:US20150243376A1[P].2015-08-27.
    [56]汪洋,唐忠锋,谢雷东,等.高温氟化盐对熔盐堆用材料的腐蚀行为研究进展[J].化学通报,2013,76(4):307-312.WANG Y,TANG Z F,XIE L D,et al.The research progress of corrosion behavior of materials for molten salt reactors in high temperature molten fluorides[J].Chemistry Bulletin,2013,76(4):307-312.
    [57]LI X L,HE S M,ZHOU X T,et al.High-temperature corrosion behavior of Ni-16Mo-7Cr-4Fe superalloy containing yttrium in molten Li F-Na F-KF salt[J].Journal of Nuclear Materials,2015,464:342-345.
    [58]HE Z,GAO L,QI W,et al.Molten FLi Na K salt infiltration into degassed nuclear graphite under inert gas pressure[J].Carbon,2015,84:511-518.
    [59]LIU L,ZHANG D,LU Q,et al.Preliminary neutronic and thermal-hydraulic analysis of a 2 MW thorium-based molten salt reactor with solid fuel,progress in nuclear energy[J].Progress in Nuclear Energy,2016,86:1-10.
    [60]YE X X,AI H,GUO Z,et al.The high-temperature corrosion of hastelloy N alloy(UNS N10003)in molten fluoride salts analysed by STXM,XAS,XRD,SEM,EPMA,TEM/EDS[J].Corrosion Science,2016,106:249-259.
    [61]周金豪,孙波,长锋,等.熔盐冷冻壁厚度测量方法[J].化工进展,2016,35(8):2373-2380.ZHOU J H,SUN B,SHE C F,et al.Experimental study on the thickness detection of molten salt frozen-wall[J].Chemical Industry and Engineering Progress,2016,35(8):2373-2380.
    [62]赵素芳,汪洋,孙华,等.一种含铬的缓蚀熔盐及其制备工艺:106590547A[P].2017-04-26.ZHAO S F,WANG Y,SUN H,et al.Molten salt containing chromium with corrosion inhibition and its preparation method:CN106590547A[P].2017-04-26.
    [63]IGNATIEV V,SURENKOV A.Alloys compatibility in molten salt fluorides:kurchatov Institute related experience[J].Journal of Nuclear Materials,2013,441(1/2/3):592-603.
    [64]PAVLIK V,KONTRIK M,BOCA M.Corrosion behavior of Incoloy 800H/HT in the fluoride molten salt FLi Na K+MFx(MFx=Cr F3,Fe F2,Fe F3 and Ni F2)[J].New Journal of Chemistry,2015,39:9841-9847.
    [65]WANG Y,TANG Z F,FU Y,et al.Corrosion behavior of Zr C-Si C composite ceramics in Li F-Na F-KF molten salt at high temperatures[J].Ceramics International,2015,41:12996-13005.
    [66]ZHU H,HOLMES R,HANLEY T,et al.Effects of bubbles on high-temperature corrosion of helium ion-irradiated Ni-based alloy in fluoride molten salt[J].Corrosion Science,2017,125:184-193.
    [67]WANG Y,LIU H J,YU,G.et al.Electrochemical study of the corrosion of a Ni-based alloy GH3535 in molten(Li,Na,K)F at700°C[J].Journal of Fluorine Chemistry,2015,178:14-22.
    [68]WANG P,ZHANG C,XIA J,et al.Stability of calcia-stabilized zirconia in fluoride molten salts under different voltage[J].Journal of the Ceramic Society of Japan,2015,123:389-393.
    [69]廖映华,云虹,王春.乏燃料后处理技术研究现状[J].四川化工,2012,15(4):12-15.LIAO Y H,YUN H,WANG C.A survey of research on reprocessing technology of spent nuclear fuel’s[J].Sichuan Chemical Industry,2012,15(4):12-15.
    [70]王有群,何辉,林如山,等.无机氯化物熔盐在乏燃料干法后处理中的应用进展[J].无机盐工业,2016,48(8):1-5.WANG Y Q,HE H,LIN R S,et al.Application progress of inorganic molten chlorides in dry reprocessing of spent fuel[J].Inorganic Chemicals Industry,2016,48(8):1-5.
    [71]UHLIR J,MARECEK M,TULACKOVA R,et al.Development of fluoride reprocessing technologies devoted to molten-salt reactor systems[C]//Global 2007:Advanced Nuclear Fuel Cycles and Systems.Boise,United States,2007:1490-1496.
    [72]LEE J H,KANG Y H,HWANG S C,et al.Separation characteristics of a spent fuel surrogate in the molten salt electrorefining process[J].Journal of Materials Processing Technology,2007,189:268-272.
    [73]SOUCEK P,LISY F,TULACKOVA R,et al.Development of electrochemical separation methods in molten Li F-Na F-KF for the molten salt reactor fuel cycle[J].Journal of Nuclear Science and Technology,2005,42(12):1017-1024.
    [74]CHAMELOT P,MASSOT L,HAMEL C,et al.Feasibility of the electrochemical way in molten fluorides for separating thorium and lanthanides and extracting lanthanides from the solvent[J].Journal of Nuclear Materials,2007,360(1):64-74.
    [75]HERRMANN S D.Molten salt extraction of transuranic and reactive fission products from used uranium oxide fuel:US8734738B1[P].2014-05-27.
    [76]林如山,何辉,叶国安,等.氟盐体系Ce(Ⅲ)的电化学行为研究[C]//全国核化学与放射化学学术讨论会,2012.LIN R S,HE H,YE G A,et al.Study on electrochemical behavior of Ce(III)in fluorine salt system[C]//National Symposium on Nuclear Chemistry and Radiochemistry,2012.
    [77]龙德武,黄卫,蒋锋,等.干法后处理中的熔盐电化学技术[C]//全国核化学与放射化学学术讨论会,2012.LONG D W,HUANG W,JIANG F,et al.Molten salt electrochemical technology in dry reprocessing of spent fuel[C]//National Symposium on Nuclear Chemistry and Radiochemistry,2012.
    [78]TAKASAWA Y,ONOUE T,HOSHINO Y,et al.Improvement of current efficiency in electrowinning uranium metal in molten fluorides[J].Denki Kagaku,1999,67(6):718-721.
    [79]ALANGI N,MUKHERJEE J,GANTAYET L M.Solubility of uranium oxide in molten salt electrolysis bath of Li-Ba F2 with La F3additive[J].Journal of Nuclear Materials,2016,470:90-96.
    [80]刘刈,王长水,曹龙浩,等.氟化物熔盐中铀离子的电化学行为研究[J].化学通报,2013,76(11):1049-1052.LIU Y,WANG C S,CAO L H,et al.The electrochemical behavior of uranium ions in Lif-Naf molten salts[J].Chemistry Bulletin,2013,76(11):1049-1052.
    [81]谢宏伟,王锦霞,翟玉春,等.低温熔盐铝电解的研究进展[J].材料导报,2009,23(9):13-18.XIE H W,WANG J X,ZHAI Y C,et al.Research on low temperature aluminium electrolysis in molten salts[J].Materials Reviews,2009,23(9):13-18.
    [82]杨绮琴,段淑贞.熔盐电化学的新进展[J].电化学,2001,7(1):10-17.YANG Q Q,DUAN S Z.The new developments of molten salt electrochemistry[J].Electrochemistry,2001,7(1):10-17.
    [83]GOUPIL G,HELLE S,DAVIS B.et al.Anodic behavior of mechanically alloyed Cu-Ni-Fe and Cu-Ni-Fe-O electrodes for aluminum electrolysis in low-temperature KF-Al F3 electrolyte[J].Electrochimica Acta,2013,112:176-182.
    [84]马秀芳,李德祥,陈建设,等.Na3Al F6-Al F3-Li F-Ca F2系熔体的等溶初晶温度和等溶变温密度[J].中国有色金属学报,2000,10(1):109-112.MA X F,LI D X,CHEN J S,et al.Initial crystallization temperature and density at nonequal temperature of Na3Al F6-Al F3-Li F-Ca F2 system under isosolubity of alumina[J].The Chinese Journal of Nonferrous Metals,2000,10(1):109-112.
    [85]SHARMA R A.Method for producing aluminum metal from aluminum trichloride,US 6066247A[P].2000-05-23.
    [86]LA CAMERA A F,TOMASWICK K M,RAY S P,et al.Process and apparatus for low temperature electrolysis of oxides,US5279715 A[P].1994-01-18.
    [87]THONSTAD J,et al.Alternative electrolyte compositions for aluminum electrolysis[J].Trans.Inst.Min.Metall.Sect.C:Miner Process Extr.Metal,2005,114(3):C188.
    [88]KAN H,WANG Z W,SHI Z N,et al.Liquidus temperature,density and electrical conductivity of low temperature electrolyte for aluminum electrolysis[C]//Light Metals 2007.Warrendale:Minerals,Metals&Materials Soc,2007:531.
    [89]王兆文,石忠宁,高炳亮,等.一种高电导率铝电解用低温电解质及其使用方法:101386996[P].2009-03-18.WANG Z W,SHI Z N,GAO B L,et al.High conductivity electrolyte and the use method for low temperature aluminum electrolysis:CN101386996[P].2009-03-18.
    [90]杨少华.以Mg O为原料熔盐电解法制备Mg-Al合金的研究[D].沈阳:东北大学,2008.YANG S H.Study on preparation Al-Mg alloy by molten salt electrolysis method from magnesium oxide[D].Shenyang:Northeastern University,2008.
    [91]张明杰,李金丽,梁家骁.熔盐电解法生产Al-Sc合金[J].东北大学学报(自然科学版),2003,24(4):358-360.ZHANG M J,LI J L,LIANG J X.Preparation of Al-Sc alloys by molten salt electrolysis[J].Journal of Northeastern University(Natural Science),2003,24(4):358-360.
    [92]田忠良,赖延清,杨树,等.一种制备铝-钪合金的熔盐电解方法:104746106A[P].2015-07-01.TIAN Z L,LAI Y Q,YANG S,et al.Method for preparing aluminum-scandium intermediate alloy by molten salt electrolysis:CN104746106A[P].2015-07-01.
    [93]张小联,郑鑫,王虹.一种液态阴极熔盐电解法制备铝钐中间合金的方法:104775137A[P].2015-07-15.ZHANG X L,ZHENG X,WANG H.Method for preparing aluminum samarium master alloy by liquid cathode molten salt electrolysis process:CN104775137A[P].2015-07-15.
    [94]胡建锋,徐璟玉,熊斌,等.熔盐电解提纯多晶硅的研究进展[J].有色金属工程,2011(3):38-40.HU J F,XU J Y,XIONG B,et al.Research progress of molten salt electrolytic purification polysilicon[J].Nonferrous Metals,2011(3):38-40.
    [95]蔡宗英,张莉霞,李运刚.电沉积硅技术的历史和发展趋势[J].湿法冶金,2004,23(4):188-190.CAI Z Y,ZHANG L X,LI Y G.History and development direction of silicon electrodeposition[J].Hydrometallurgy of China,2004,23(4):188-190.
    [96]STUBERGH J R,LIU Z.Preparation of pure silicon by electrowinning in a bytownite-crylite melt[J].Metallurgical and Materials Transactions B,1996,27B:895-899.
    [97]OLSON J M,CARLETON K L.A semipermeable a node for silicon electrorefining[J].Journal of The Electrochemical Society,1981,128(12):2698-2699.
    [98]SHARMA I G,MUKHERJEE T K.A study on purification of metallurgical grade silicon by molten salt electrorefining[J].Metallurgical Transactions B,1986,17B:395-397.
    [99]BIEBER A L,MASSOT L,GIBILARO M,et al.Silicon electrodeposition in molten fluorides[J].Electrochimica Acta,2012,62:282-289.
    [100]SAKANAKA Y,GOTO T.Electrodeposition of Si film on Ag substrate in molten Li F-Na F-KF directly dissolving Si O2[J].Electrochimica Acta,2015,164:139-142.
    [101]RYU H Y,AN Y S,JANG B Y,et al.Formation of high purity Si nanofiber from metallurgical grade Si by molten salt electrorefining[J].Materials Chemistry and Physics,2012,137:160-168.
    [102]HAARBERG G M,FAMIYEH L,MARTINEZ A M,et al.Electrodeposition of silicon from fluoride melts[J].Electrochimica Acta,2013,100:226-228.
    [103]MASSOT L,BIEBER A L,GIBILARO M,et al.Silicon recovery from silicon-iron alloys by electrorefining in molten fluorides[J].Electrochimica Acta,2013,96:97-102.
    [104]邹祥宇,谢宏伟,翟玉春,等.熔盐电解精炼制备太阳能级多晶硅[J].东北大学学报(自然科学版),2012,33(12):1741-1744.ZOU X Y,XIE H W,ZHAI Y C,et al.Preparation of solar grade silicon by electrorefining[J].Journal of Northeastern University(Natural Science),2012,33(12):1741-1744.
    [105]贾明,田忠良,赖延清,等.电解精炼制备太阳级硅杂质研究[J].物理学报,2010,59(3):1938-1945.JIA M,TIAN Z L,LAI Y Q,et al.Study on the removal of impurities in silicon by electrorefining[J].Acta Physica Sinica,2010,59(3):1938-1945.
    [106]贾明,赖延清,田忠良,等.Na3Al F6-Li F熔盐体系中硅的电沉积行为[J].物理化学学报,2011,27(5):1108-1115.JIA M,LAI Y Q,TIAN Z L,et al.Electrodeposition behavior of silicon from Na3Al F6-Li F melts[J].Acta Phys.-Chim.Sin.,2011,27(5):1108-1115.
    [107]OISHI T,KOYAMA K,TANAKA M.Electrorefining of silicon using molten salt and liquid alloy electrodes[J].Journal of The Electrochemical Society,2016,163(14):E385-E389.
    [108]张志宏,梁行方,琚建勇,等.我国氟盐体系氧化钕电解制备金属钕技术现状及进展[J].有色冶炼,2001,30(2):23-26.ZHANG Z H,LIANG X F,JU J Y,et al.Present situation and latest progress of process for producing metallic Neodymium by electrolysis of neodymium oxide with fluoride salts[J].Non-Ferrous Smelting,2001,30(2):23-26.
    [109]陈国华,曹永存,刘玉宝,等.熔盐电解法制备镨钕钆合金的研究[J].中国稀土学报,2015,33(2):206-210.CHEN G H,CAO Y C,LIU Y B,et al.Preparation of Pr-Nd-Gd alloys by molten salt electrolysis[J].Journal of the Chinese Society of Rare Earths,2015,33(2):206-210.
    [110]焦士琢,吴迪武,牛树生,等.一种连续电解生产金属钕及钕铁合金的槽型结构:85100748[P].1986-07-02.JIAO S Z,WU D W,NIU S S,et al.An electrolysis trough structure for continuous production of metal Nd and Nd-Fe alloy:CN85100748[P].1986-07-02.
    [111]庞思明,颜世宏,李宗安,等.我国熔盐电解法制备稀土金属及其合金工艺技术进展[J].稀有金属,2011,35(3):440-450.PANG S M,YAN S H,LI Z A,et al.Development on molten salt electrolytic methods and technology for preparing rare earth metals and alloys in China[J].Chinese Journal of Rare Metals,2011,35(3):440-450.
    [112]郭探,王世栋,叶秀深,等.熔盐电解法制备稀土合金研究进展[J].中国科学(化学),2012,42(9):1328-1336.GUO T,WANG S D,YE X S,et al.Research progress in the preparation of rare earth alloys by molten salt electrolysis method[J].SCIENTIA SINICA(Chimica),2012,42(9):1328-1336.
    [113]陈国华,王小青,刘玉宝,等.熔盐电解法制备镨钕镝合金的研究[J].稀土,2015,36(1):80-84.CHEN G H,WANG X Q,LIU Y B,et al.Preparation of Pr-Nd-Dy alloys by molten salt electrolysis[J].Chinese Rare Earths,2015,36(1):80-84.
    [114]王健,华中胜,马欢,等.熔盐电解法制备稀土镁合金的研究进展[J].稀土,2017,38(2):100-113.WANG J,HUA Z S,MA H,et al.Research progress on preparation of rare earth magnesium alloys by molten salt electrolysis[J].Chinese Rare Earths,2017,38(2):100-113.
    [115]STEFANIDAKI E,HASIOTIS C,KONTOYANNIS C.Electrodeposition of neodymium from Li F-Nd F3-Nd2O3melts[J].Electrochimica Acta,2001,46:2665-2670.
    [116]陈德宏,颜世宏,李宗安,等.Nd F3-Li F-Nd2O3熔盐体系中下阴极电解金属钕研究[J].中国稀土学报,2009,27(2):302-305.CHEN D H,YAN S H,LI Z A,et al.Liquid-cathode cell for neodymium electrolysis in Nd F3-Li F-Nd2O3 molten salt[J].Journal of the Chinese Rare Earth Society,2009,27(2):302-305.
    [117]廖春发,罗林生,王旭,等.熔盐电解制备铝钕中间合金及其机理[J].中国有色金属学报,2015,25(12):3523-3529.LIAO C F,LUO L S,WANG X,et al.Preparation for Al-Nd intermediate alloy by molten-salt electrolysis method and its mechanism[J].The Chinese Journal of Nonferrous Metals,2015,25(12):3523-3529.
    [118]YANG S,YANG F,LIAO C,et al.Electrodeposition of magnesium-yttrium alloys by molten salt electrolysis[J].Journal of Rare Earths,2010,28:385-388.
    [119]彭光怀,郭雪锋,邱承洲,等.氟化物熔盐共电沉积制备Gd-Mg中间合金研究[J].昆明理工大学学报(理工版),2010,35(2):16-19,26.PENG G H,GUO X F,QIU C Z,et al.Preparation of Gd-Mg master alloy by co-electrodeposition method in fluoride molten salt[J].Journal of Kunming University of Science and Technology(Science and Technology),2010,35(2):16-19,26.
    [120]张小联,彭光怀,郭雪峰,等.氟化物熔盐共电沉积制备Gd-Zr-Mg合金的研究[J].有色金属科学与工程,2011,2(4):1-3,11.ZHANG X L,PENG G H,GUO X F,et al.Gd-Zr-Mg master alloy production by co-electrodeposition in fluoride molten salt[J].Nonferrous Metals Science and Engineering,2011,2(4):1-3,11.
    [121]王小青,陈国华,侯复生,等.一种熔盐电解制备稀土镝合金的方法:103924265A[P].2014-07-16.WANG X Q,CHEN G H,HOU F S,et al.Production of rare earth-dysprosium alloy by molten salt electrolysis:CN103924265A[P].2014-07-16.
    [122]蔺继荣,赵良忠,韩福军.熔盐电解法生产镝铁合金工艺及设备:1827860A[P].2006-09-06.LIN J R,ZHAO L Z,HAN F J.Process and apparatus for production of Dy-Fe alloy by molten salt electrolysis:CN1827860A[P].2006-09-06.
    [123]颜世宏,李宗安,李振海,等.一种熔盐电解制备钆铁合金的方法:101200806A[P].2008-06-18.YAN S H,LI Z A,LI Z H,et al.Manufacture of Gd-Fe alloy by molten salt electrolysis:CN101200806A[P].2008-06-18.
    [124]张小联,彭光怀,胡珊玲,等.氟化体系共电沉积制备Gd-Mg中间合金的方法:101117723A[P].2008-02-06.ZHANG X L,PENG G H,HU S L,et al.Manufacture of Gd-Mg master alloy by coelectrodeposition in fluoride molten salt:CN101117723A[P].2008-02-06.
    [125]张志宏,陈国华,于兵,等.一种共沉积法制备稀土钆合金的方法:103924266A[P].2014-07-16.ZHANG Z H,CHEN G H,YU B,et al.Production of rare earth-gadolinium alloy by codeposition in molten salt bath:CN103924266A[P].2014-07-16.
    [126]焦芸芬,王旭,廖春发,等.稀土改性制备铜-铝-稀土中间合金熔盐电解方法及合金:105177632A[P].2015-12-23.JIAO Y F,WANG X,LIAO C F,et al.Molten salt electrolysis method for preparation of copper-aluminum-rare earth intermediate alloy with rare earth modification and alloy:CN105177632A[P].2015-12-23.
    [127]刘庆生,钟春明,张丹城.一种钕铁硼油泥废料电解制备钕铁硼合金:106319575A[P].2017-01-11.LIU Q S,ZHONG C M,ZHANG D C.Method for preparation of Nd Fe B alloy via electrolysis of neodymium-iron-boron oily sludge waste:CN106319575A[P].2017-01-11.
    [128]彭光怀,杜西龙,郭华彬.一种稀土镁镍基储氢合金电解共析合金化方法:104131315A[P].2014-11-05.PENG G H,DU X L,GUO H B.Electrolysis co-precipitation alloying method of rare earth-magnesium-nickel-based hydrogen-storage alloy:CN104131315A[P].2014-11-05.
    [129]曹永存,张志宏,陈国华,等.一种制备稀土镁合金的方法及稀土钇钕镁合金:105624737A[P].2016-06-01.CAO Y C,ZHANG Z H,CHEN G H,et al.Method for preparing yttrium neodymium magnesium rare earth alloy:CN105624737A[P].2016-06-01.
    [130]赵二雄,王小青,刘玉宝,等.一种熔盐电解制备镨钕镝铽四元合金的方法:105603461A[P].2016-05-25.ZHAO E X,WANG X Q,LIU Y B,et al.Preparation method of praseodymium-neodymium-dysprosium-terbium quaternary alloy by molten salt electrolysis:CN105603461A[P].2016-05-25.
    [131]张密林,韩伟,秦文竺.一种熔盐电解分离氧化镨和氧化镝的方法:102134728A[P].2011-07-27.ZHANG M L,HAN W,QIN W Z.Method for separating praseodymium oxide and dysprosium oxide by molten salt electrolysis:CN102134728A[P].2011-07-27.
    [132]李梅,刘垚臣,张密林,等.熔盐体系中电解制备耐热镁铝钕合金的方法:103132108A[P].2013-06-05.LI M,LIU Y C,ZHANG M L,et al.Manufacture of heat-resisting magnesium-aluminum-neodymium alloy by electrolysis in molten salt system:CN103132108A[P].2013-06-05.
    [133]张密林,韩伟,田阳,等.一种镁锂-铈镧合金及其熔盐电解法制备方法:101302594A[P].2008-11-12.ZHANG M L,HAN W,TIAN Y,et al.Molten salt electrolysis method for preparing Mg-Li-Ce-La alloy:CN101302594A[P].2008-11-12.
    [134]张密林,李梅,赵全友,等.锂镁钬合金、锂镁钬合金的熔盐电解制备方法及装置:101302593A[P].2008-11-12.ZHANG M L,LI M,ZHAO Q Y,et al.Molten salt electrolysis method and apparatus for preparing Mg-Li-Ho alloy:CN101302593A[P].2008-11-12.
    [135]姜银举,邓永春.稀土氧化物熔盐电解过程HF气体生成与回收的探讨[J].稀土,2016,37(2):149-151.JIANG Y J,DENG Y C.Study on the formation and recovery of HF gas during the fused-salt electrolysis of rare earth oxide[J].Chinese Rare Earths,2016,37(2):149-151.
    [136]ZHU X,SUN S,LU S,et al.Surface tension of light rare earth fluoride molten salts electrolytesystem[J].Thermochimica Acta,2016,636:42-47.
    [137]王旭,廖春发,罗林生.Nd2O3对Al F3-(Na/Li)F-Al2O3熔体性质及结构的影响研究[J].稀土,2017,38(5):1-7.WANG X,LIAO C F,LUO L S.The investigation of the influence of Nd2O3 on properties and structure of Al F3-(Na/Li)F-Al2O3molten salt[J].Chinese Rare Earths,2017,38(5):1-7.
    [138]MELLORS G W,SENDEROFF S.Coherent coatings of refractory metal[J].Science,1966,153(3473):1475-1481.
    [139]段淑贞,招光文.难熔金属的熔盐电镀[J].稀有金属,1987,11(5):376-383.DUAN S Z,ZHAO G W.Molten salt plating of refractory metals[J].Chinese Journal of Rare Metals,1987,11(5):376-383.
    [140]李青.熔融盐电沉积金属及合金[J].电镀与精饰,1998,20(2):26-29.LI Q.Metal and alloy production by electrodeposition in molten salt[J].Plating and Finishing,1998,20(2):26-29.
    [141]叶尚云,李国勋.锆的熔盐电镀[J].电镀与精饰,1989,11(4):22-25.YE S Y,LI G X.Molten salt plating of zirconium[J].Plating and Finishing,1989,11(4):22-25.
    [142]CAPSIMALIS G P,CHEN E S,PETERSON R E.On the electrodeposition and characterization of niobium from fused fluoride electrolytes[J].Journal of Applied Electrochemistry,1987,17:253-260.
    [143]GROULT H,BARHOUN A,BRIOT E,et al.Electrodeposition of Zr on graphite in molten fluorides[J].Journal of Fluorine Chemistry,2011,132:1122-1126.
    [144]向茂乔,张迎春,江凡,等.熔盐电解制备锆镀层的研究进展[J].稀有金属,2016,40(6):620-625.XIANG M Q,ZHANG Y C,JIANG F,et al.Progress in electrodesposition of zirconium coating from molten salts[J].Chinese Journal of Rare Metals,2016,40(6):620-625.
    [145]GIBILARO M,MASSOT L,CHAMELOT P,et al.Investigation of Zr(Ⅳ)in Li F-Ca F2:Stability with oxide ions and electroreductionpathway on inert and reactive electrodes[J].Electrochimica Acta,2013,95:185-191.
    [146]ROBIN A,RIBEIRO R B.Pulse electrodeposition of titanium on carbon steel in the Li F-Na F-KF eutectic melt[J].Journal of Applied Electrochemistry,2000,30(2):239-246.
    [147]KARELIN A I,KARELIN V A,ABUBEKEROV R A.Electrochemical manufacture of high-purity titanium powder from synthetic Ti F4 with high-purity chemical compounds as byproducts:WO 2005056844 A1[P].2005-06-23.
    [148]王博,赵旭,赵浩志.Sr F2-Na F熔盐体系电解制备金属钛的研究[J].山西冶金,2016,39(2):1-4.WANG B,ZHAO X,ZHAO H Z.Study on preparation of titanium by electrolysis of Sr F2-Na Fmolten salt system[J].Shanxi Metallurgy,2016,39(2):1-4.
    [149]LI J,LI B.Electrochemical reduction and electrocrystallization process of Ti(Ⅳ)in the Li F-Na F-KF-K2Ti F6 molten salt[J].Rare Metal Materials and Engineering,2007,36(1):15-19.
    [150]霍东兴,梁精龙,李慧,等.电沉积法制备钛金属镀层研究进展[J].热加工工艺,2017,46(2):16-19.HUO D X,LIANG J L,LI H,et al.Research progress on preparation of titanium metal coatingby electrodeposition method[J].Hot Working Technology,2017,46(2):16-19.
    [151]CHRISTENSEN J,CHRISTENSEN E.A process for electrochemical deposition of tantalum and an article having a surface modification,WO2002068729A1[P].2002-09-06.
    [152]LEE Y J,LEE T H,NERSISYAN H H,et al.Characterization of Ta-W alloy films deposited by molten salt multi-anode reactive alloy coating(MARC)method[J].Int.Journal of Refractory Metals and Hard Materials,2015,53:23-31.
    [153]王升,熊党生,李建亮,等.熔盐电镀钽及其耐磨损烧蚀性能[J].中国表面工程,2015,28(2):101-107.WANG S,XIONG D S,LI J L,et al.Wear and erosion resistance properties of electroplating Ta coating in molten salt[J].China Surface Engineering,2015,28(2):101-107.
    [154]HURST W D,CAUTHREN G E.Turbine engine component with a diffused chromium layer electrolytically deposited from molten salt,US20160024679A1[P].2016-01-28.
    [155]NITTA K,MAJIMA M,INAZAWA S.Molten salt bath,method for preparing the same,and tungsten film,US20100243456A1[P].2010-09-30.
    [156]韩庆,于恒渊,刘奎仁,等.一种氟化物熔盐体系中热还原制备金属钒的方法:105018970A[P].2015-11-04.HAN Q,YU H Y,LIU K R,et al.Method for preparing metallic vanadium from fluoride molten salt system by thermoelectric reduction:CN105018970A[P].2015-11-04.
    [157]叶章根,陈松,李文良,等.熔盐电解精炼铪的研究[J].稀有金属,2012,36(5):791-798.YE Z G,CHEN S,LI W L,et al.Electro-refining of hafnium in KCl-Na Cl-K2Hf F6 molten salt[J].Chinese Journal of Rare Metals,2012,36(5):791-798.
    [158]朱鸿民,孙宁磊,张曦,等.活泼金属基合金的制备方法:101440508A[P].2009-05-27.ZHU H M,SUN N L,ZHANG X,et al.Method for preparing active metal-based alloy by molten salt electrolysis codeposition:CN101440508A[P].2009-05-27.
    [159]高炳亮,王兆文,石忠宁,等.熔盐电解制备镁锂合金的方法:101698951A[P].2010-04-28.GAO B L,WANG Z W,SHI Z N,et al.Manufacture of magnesium lithium alloy by molten salt electrolysis:CN101698951A[P].2010-04-28.
    [160]GU Y,LIU J,QU S,et al.Electrodeposition of alloys and compounds from high-temperature molten salts[J].Journal of Alloys and Compounds,2017,690:228-238.
    [161]SIMKA W,PUSZCZYK D,NAWRAT G.Electrodeposition of metals from non-aqueous solutions[J].Electrochimica Acta,2009,54:5307-5319.
    [162]STUBERGH J R.Process for preparing silicon carbide and optionally aluminum and silumin(aluminum-silicon alloy):WO2002072920A1[P].2002-09-19.
    [163]许二超,王周福,王玺堂,等.原位反应烧结制备熔盐/尖晶石复合高温相变储能材料的研究[J].武汉科技大学学报,2010,33(3):273-276.XU E C,WANG Z F,WANG X T,et al.Molten salt/spinel-based composite phase change heat storage materials prepared by in-situ reaction[J].Journal of Wuhan University of Science and Technology,2010,33(3):273-276.
    [164]GU S I,SHIN H S,HONG Y W,et al.Molten salt synthesis of La0.8Sr0.2Mn O3 powders for SOFC cathode electrode[J].Metals and Materials International,2012,18(4):723-726.
    [165]LI Z S,ZHANG S W,LEE W E.Molten salt synthesis of La Al O3powder at low temperatures[J].Journal of the European Ceramic Society,2007,27:3201-3205.
    [166]ZHANG J,LI W,JIA Q L,et al.Molten salt assisted synthesis of3C-Si C nanowire and its photoluminescence properties[J].Ceramics International,2015,41:12614-12620.
    [167]HUANG Z,LI F L,JIAO C P,et al.Molten salt synthesis of La2Zr2O7 ultrafine powders[J].Ceramics International,2016,42:6221-6227.
    [168]马兵,王巍,孟雨佳,等.KMn F3的熔盐法合成及掺铕体系的发光性质[J].高等学校化学学报,2013,34(12):2686-2690.MA B,WANG W,MENG Y J,et al.Molten salt synthesis of KMn F3and luminescent property of KMn F3:Eu[J].Chemical Journal of Chinese Universities,2013,34(12):2686-2690.
    [169]高啟,江伟辉,刘健敏,等.熔盐法制备氧化锆纳米棒[J].无机化学学报,2017,33(9):1555-1560.GAO Q W,JIANG W H,LIU J M,et al.Preparation of zirconia nanorods by molten salt method[J].Chinese Journal of Inorganic Chemistry,2017,33(9):1555-1560.
    [170]汪洋,赵素芳,程进辉,等.熔盐基碳纳米流体及其制备方法:106957636A[P].2017-07-18.WANG Y,ZHAO S F,CHENG J H,et al.Molten salt-based carbon nanofluid and preparation method thereof:CN106957636A[P].2017-07-18.
    [171]MASOUDIFAR S,BAVAND-VANDCHALI M,GOLESTANIFARD F,et al.Molten salt synthesis of a Si C coating on graphite flakes for application in refractory castables[J].Ceramics International,2016,42:11951-11957.
    [172]俞国军,孙华,侯娟,等.一种覆有金属碳化物涂层的碳基材料及其制备方法:105439642A[P].2016-03-30.YU G J,SUN H,HOU J,et al.Carbon-based material coated with metal carbide coating and preparation method thereof:CN105439642A[P].2016-03-30.
    [173]侯娟,俞国军,苏兴治,等.一种覆有碳化物涂层的金属基材料及制备方法:106995910A[P].2017-08-01.HOU J,YU G J,SU X Z,et al.Metal-based material coated with carbide coating and preparation method:CN106995910A[P].2017-08-01.
    [174]BRITCHI M,BRANZEI M,GHEORGHE D.Hardening of copper surfaces by beryllium diffusion[J].International Journal of Materials&Product Technology,2002,17(8):659-671.
    [175]八尾章史,德永敦之.氟气生成装置:102713011A[P].2012-10-03.YAO A,ATSUSHI T.Fluorine gas generating apparatus:CN102713011A[P].2012-10-03.
    [176]杜森林,苏洪,赵连山,等.中温电解制F2过程中Mg添加剂对阳极极化的影响[J].原子能科学技术,1995,29(6):534-538.DU S L,SU H Y,ZHAO L S,et al.Effect of magnesium additive on the anode polarization in electrolysis of KF·2HF melt[J].Atomic Energy Science and Technology,1995,29(6):534-538.
    [177]陈鸿昌,含氟特种气体及电子化学品市场与竞争力分析[J].化工生产与技术,2010,17(5):1-8.CHEN H C.Competitive strength and market analysis of electronic chemicals and special gas containing fluorine(to be continued)[J].Chemical Production and Technology,2010,17(5):1-8.
    [178]MASSET P,SCHOEFFERT S,POINSO J Y,et al.Li F-Li Cl-Li I vs.Li F-Li Br-KBr as molten salt electrolyte in thermal batteries[J].Journal of Electrochemistry Society,2005,152(2):A405-A410.
    [179]FUJIWARA S,INABA M,TASAKA A.New molten salt systems for high-temperature molten salt batteries:Li F-Li Cl-Li Br-based quaternary systems[J].Journal of Power Sources,2010,195:7691-7700.
    [180]BRISCOE J D,CASTRO G L,EMBREY J,et al.Anodes for lithium/transition metal fluoride molten salt thermal batteries:US6346349B1[P].2002-02-12.
    [181]KEARNEY D,HERRMANN U,NAVA P,et al.Assessment of a molten salt heat transfer fluid in a parabolic trough solar field[J].J.Sol.Energy Eng.Trans-ASME,2003,125:170-176.
    [182]邢玉明,崔海亭,袁修干.高温熔盐相变蓄热系统的数值模拟[J].北京航空航天大学学报,2002,28(3):295-297.XING Y M,CUI H T,YUAN X G.Numerical simulations of high temperature molten salt phase change heat storage system[J].Journal of Beijing University of Aeronautics and Astronautics,2002,28(3):295-297.

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