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      KCI등재 SCIE SCOPUS

      Beryllium oxide utilized in nuclear reactors: Part I: Application history, thermal properties, mechanical properties, corrosion behavior and fabrication methods

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      https://www.riss.kr/link?id=A108368215

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      다국어 초록 (Multilingual Abstract)

      In recent years, beryllium oxide has been widely utilized in multiple compact nuclear reactors as the neutron moderator, the neutron reflector or the matrix material with dispersed nuclear fuels due to its prominent properties. In the past 70 years, beryllium oxide has been studied extensively, but rarely been systematically organized. This article provides a systematic review of the application history, thermal properties, mechanical properties, corrosion behavior and fabrication methods of beryllium oxide. Data from previous literature are extracted and sorted out, and all of these original data are attached as the supplementary material, so that subsequent researchers can utilize this paper as a database for beryllium oxide research in reactor design or simulation analysis, etc. In addition, this review article also attempts to point out the insufficiency of research on beryllium oxide, and the possible key research areas about beryllium oxide in the future.
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      In recent years, beryllium oxide has been widely utilized in multiple compact nuclear reactors as the neutron moderator, the neutron reflector or the matrix material with dispersed nuclear fuels due to its prominent properties. In the past 70 years, b...

      In recent years, beryllium oxide has been widely utilized in multiple compact nuclear reactors as the neutron moderator, the neutron reflector or the matrix material with dispersed nuclear fuels due to its prominent properties. In the past 70 years, beryllium oxide has been studied extensively, but rarely been systematically organized. This article provides a systematic review of the application history, thermal properties, mechanical properties, corrosion behavior and fabrication methods of beryllium oxide. Data from previous literature are extracted and sorted out, and all of these original data are attached as the supplementary material, so that subsequent researchers can utilize this paper as a database for beryllium oxide research in reactor design or simulation analysis, etc. In addition, this review article also attempts to point out the insufficiency of research on beryllium oxide, and the possible key research areas about beryllium oxide in the future.

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      참고문헌 (Reference)

      1 P. H. Horton, "Zirconium Hydride Reactor Control Reflector Systems: Summary Report" Atomics International Division 1972

      2 B. C. Hacker, "Whoever Heard of Nuclear Ramjets?" 1 : 85-98, 1995

      3 W. D. Manly, "Utilization of BeO in reactors" 14 : 3-18, 1964

      4 G. Vasudevamurthy, "Uranium carbide properties for advanced fuel modeling-A review" 558 : 153145-, 2022

      5 A. Bicevskis, "Thorium fuel cycle for a beryllium oxide pebble-bed reactor" 129-155, 1968

      6 A.C. Victor, "Thermodynamic properties of magnesium oxide and beryllium oxide from 298 to 1,200" 67 (67): 325-329, 1963

      7 R. W. Swindeman, "Thermal shock tests on beryllia" 14 : 404-415, 1964

      8 Y. M. Kozlovskii, "Thermal expansion of beryllium oxide in the temperature interval 20-1550"C" 52 (52): 536-540, 2014

      9 W. D. Kingery, "Thermal conductivity: XII, temperature dependence of conductivity for single-phase ceramics" 38 (38): 251-255, 1955

      10 M. McQuarrie, "Thermal conductivity: VII, analysis of variation of conductivity with temperature for Al2O3, BeO, and MgO" 37 (37): 91-95, 1954

      1 P. H. Horton, "Zirconium Hydride Reactor Control Reflector Systems: Summary Report" Atomics International Division 1972

      2 B. C. Hacker, "Whoever Heard of Nuclear Ramjets?" 1 : 85-98, 1995

      3 W. D. Manly, "Utilization of BeO in reactors" 14 : 3-18, 1964

      4 G. Vasudevamurthy, "Uranium carbide properties for advanced fuel modeling-A review" 558 : 153145-, 2022

      5 A. Bicevskis, "Thorium fuel cycle for a beryllium oxide pebble-bed reactor" 129-155, 1968

      6 A.C. Victor, "Thermodynamic properties of magnesium oxide and beryllium oxide from 298 to 1,200" 67 (67): 325-329, 1963

      7 R. W. Swindeman, "Thermal shock tests on beryllia" 14 : 404-415, 1964

      8 Y. M. Kozlovskii, "Thermal expansion of beryllium oxide in the temperature interval 20-1550"C" 52 (52): 536-540, 2014

      9 W. D. Kingery, "Thermal conductivity: XII, temperature dependence of conductivity for single-phase ceramics" 38 (38): 251-255, 1955

      10 M. McQuarrie, "Thermal conductivity: VII, analysis of variation of conductivity with temperature for Al2O3, BeO, and MgO" 37 (37): 91-95, 1954

      11 J. Francl, "Thermal conductivity: IV, apparatus for determining thermal conductivity by a comparative method" 37 (37): 80-84, 1954

      12 M. Adams, "Thermal conductivity: III, prolate spheroidal envelope method" 37 (37): 74-79, 1954

      13 B. N. Rath, "Thermal conductivity of composites of beryllia and liythium titanate" 22 (22): 3455-3460, 2013

      14 A. G. Kharlamov, "Thermal conductivity of beryllium oxide in the 1000-2000"C Range" 15 (15): 1313-1315, 1963

      15 G. P. Akishin, "Thermal conductivity of beryllium oxide ceramic" 50 (50): 465-468, 2009

      16 M. Burk, "Thermal conductivity of beryllia ceramics from-200"C to 150"C" 46 (46): 150-151, 1963

      17 A. W. Pryor, "Thermal conductivity at low temperature of neutron-irradiated BeO" 14 : 208-219, 1964

      18 V. S. Kiiko, "Thermal conductivity and prospects for application of BeO ceramic in electronics" 71 (71): 387-391, 2015

      19 R. E. Taylor, "Thermal conductivity and expansion of beryllia at high temperatures" 45 (45): 74-78, 1962

      20 A. M. Perry, "Thermal breeder reactors" 22 : 317-354, 1972

      21 D. K. Mohapatra, "Theoretical and experimental investigations of reactor parameters in a U-233 fuelled research reactor" 31 (31): 197-212, 2004

      22 K. K. Kelley, "The specific heats at low temperatures of beryllium oxide and beryllium orthosilicate(phenacite)" 61 (61): 1217-1218, 1939

      23 H. Kronberger, "The role of dispersed fuels in the future development of the advanced gas-cooled reactor" 14 : 41-48, 1964

      24 W. A. Young, "The reactions of water vapor with beryllia and beryllia-alumina compounds" 64 : 1003-1006, 1960

      25 L. I. Grossweiner, "The reaction of beryllium oxide with water vapor" 74 (74): 2701-2704, 1952

      26 B. R. Steele, "The preparation and characterisation of ceramic grade BeO" 14 : 310-314, 1964

      27 B. Bellamy, "The lattice parameter and density of beryllium oxide determined by precise X-ray methods" 6 (6): 1-4, 1962

      28 M. J. Bannister, "The kinetics of sintering and grain growth of beryllia" 14 : 315-321, 1964

      29 W. I. Stuart, "The high temperature reaction between beryllia and water vapour" 14 : 417-424, 1964

      30 M. T. Simnad, "The early history of high-temperature helium gas-cooled nuclear power reactors" 16 (16): 25-32, 1991

      31 J. Bardsley, "The development of a technique for extrusion and sintering of beryllia" 14 : 368-377, 1964

      32 D. K. Smith, "The crystal structure of beta beryllia" 14 : 237-238, 1964

      33 L. W. Mckeehan, "The crystal structure of beryllium and of beryllium oxide" 8 (8): 270-274, 1922

      34 W. K. Ergen, "The aircraft reactor experimentphysics" 2 (2): 826-840, 1957

      35 E. S. Bettis, "The aircraft reactor experiment-operation" 2 (2): 841-853, 1957

      36 H.C. Urey, "The Heavy Water-Slurry Pile" Columbia University 1943

      37 W. C. Moore, "The Experimental Beryllium Oxide Reactor. Maritime Gas-Cooled Reactor Program" General Atomic Division, General Dynamic Corporation 2172-, 1961

      38 H. A. Wriedt, "The Be-O(Beryllium-Oxygen)system" 6 : 553-558, 1985

      39 W. H. Roberts, "The Australian high temperature gas-cooled reactor feasibility study" 14 : 29-40, 1964

      40 M. B. Bebek, "Temperature dependence of phonon-defect interactions : phonon scattering vs. phonon trapping" 6 : 32150-, 2016

      41 J. B. Conway, "Techniques for measuring localized corrosion rates of beryllium oxide" 14 : 425-433, 1964

      42 J. W. Hadley, "TORY II-A: A Nuclear Ramjet Test Reactor" Lawrence Radiation Laboratory, University of California 1959

      43 F. Daniels, "Suggestions for a High-Temperature Pebble Pile" Oak Ridge National Laboratory 2172-, 1944

      44 J. C. King, "Submersion-subcritical safe space(S4)reactor" 236 (236): 1759-1777, 2006

      45 T. E. Clare, "Studies in the cold pressing and sintering of beryllia" 14 : 359-367, 1964

      46 M. K. Ferber, "Static fatigue behavior of polycrystalline beryllia" 73 (73): 2038-2046, 1990

      47 E. S. Lukin, "Some thermomechanical properties of pure oxide ceramics" 4 : 347-352, 1963

      48 I. Y. Guzman, "Some properties of porous ceramics made of beryllium oxide" 3 : 347-351, 1962

      49 J. J. Gangler, "Some physical properties of eight refractory oxides and carbides" 33 : 367-374, 1950

      50 J. Lillie, "Some Properties of Beryllium Oxide" Lawrence Radiation Laboratory 2172-, 1961

      51 J. D. Patterson, "Solid-State Physics: Introduction to the Theory" Springer International Publishing AG 2018

      52 J. J. Quinn, "Solid State Physics: Principles and Modern Applications" Springer 1007-, 2009

      53 D. T. Livey, "Sintering and densification studies on BeO powders" 14 : 285-293, 1964

      54 C. Garcia, "Sintering and Thermal Behavior of Uranium Dioxide in Beryllium Oxide Matrix" Texas A & M University 2014

      55 M. J. Bannister, "Sinterability studies on various BeO powders" 14 : 303-309, 1964

      56 V. K. Mehta, "Selection of a space reactor moderator using lessons learned from SNAP and ANP programs" 2019

      57 D.J. Cockeram, "SNAP 2, 8, and 10A Reactor Programs Progress Report   Presented at the AIAA Third Biennial Aerospace Power Systems Conference, Philadelphia, Pa., September 1-4, 1964 (not preprinted). This work was performed under Atomic Energy Commission Contract AT(11-1)-GEN-8." Elsevier 393-415, 1966

      58 S. Usha, "Research reactor KAMINI" Elsevier BV 236 (236): 872-880, 2006

      59 L. R. Hafstad, "Reactors" 184 (184): 43-51, 1951

      60 B. Vrillon, "Proust, Space Nuclear Power Studies in France-A New Concept of Particle Bed Reactor" CEA Centre d'Etudes Nucleaires de Saclay 1988

      61 A.J. Rothman, "Properties of BeO Ceramics and Their Application in a Nuclear Propulsion System (Pluto)" Lawrence Radiation Laboratory, University of California 1962

      62 C. Hyde, "Preparation of Dense Beryllium Oxide" Battelle Memorial Institute 1955

      63 B. A. Chandler, "Physical Properties of Sintered BeO as Influenced by Microstructure" General Electric 1963

      64 C. S. Handwerk, "Optimized core design of a supercritical carbon dioxide-cooled fast reactor" 164 (164): 320-336, 2008

      65 D. P. H. Hasselman, "On porosity dependence of elastic moduli of polycrystalline refractory materials" 45 (45): 452-453, 1962

      66 D. Buden, "Nuclear Reactors for Space Electric Power" Los Alamos Scientific Laboratory 2172-, 1978

      67 G. A. Slack, "Nonmetallic crystals with high thermal conductivity" 34 (34): 321-335, 1973

      68 C. B. Sawyer, "Newer developments in beryllium" 30 (30): 501-505, 1938

      69 K. A. Trickett, "Maritime Gas-Cooled Reactor Program. A Review of the Maritime Gas-Cooled Reactor Program" General Atomic Division, General Dynamic Corporation 2172-, 1961

      70 D. T. Livey, "Magnesia, Alumina, Beryllia Ceramics: Fabrication, Characterization and Properties: High Temperature Oxides Part III" Academic Press Inc. 1-52, 1970

      71 D.F. Putnam, "MGCR-Carbon Dioxide Cycle Studies" General Atomic Division, General Dynamic Corporation 1958

      72 R. Sanchez, "Kilowatt reactor using stirling TechnologY(KRUSTY)component-critical experiments" 206 : 56-67, 2020

      73 P. McClure, "KiloPower Space Reactor Concept-Reactor Materials Study" Los Alamos National Laboratory 2014

      74 S. Dawahra, "Investigation of BeO as a reflector for the low power research reactor" 81 : 1-5, 2015

      75 D.M. Camarano, "Increase of thermal conductivity of uranium dioxide nuclear fuel pellets with beryllium oxide addition" 2016

      76 S. C. Carniglia, "Hot pressing for nuclear applications of BeO; process, product, and properties" 14 : 378-394, 1964

      77 S. C. Carniglia, "Hot pressing for nuclear applications of BeO; process, product and properties" 14 : 378-394, 1964

      78 W. L. Barmore, "High-temperature plastic deformation of polycrystalline beryllium oxide" 48 (48): 499-505, 1965

      79 W. L. Barmore, "High-temperature creep and dislocation etch pits in polycrystalline beryllium oxide" 50 (50): 316-320, 1967

      80 I. V. Dulera, "High temperature reactors" 383 (383): 183-188, 2008

      81 R. Chang, "High temperature creep and anelastic phenomena in polycrystalline refractory oxides" 1 (1): 174-181, 1959

      82 M.J. Naramore, "High Thermal Conductivity UO2-BeO Nulcear Fuel: Neutronic Performance Assessments and Overview of Fabrication" Texas A & M University 2010

      83 I. Pioro, "Generation IV nuclear reactors as a basis for future electricity production in the world" 818-830, 2013

      84 Y. N. Makurin, "Firstprinciple quantum-chemical calculations of several thermomechanical parameters of beryllium ceramics" 47 (47): 310-313, 2006

      85 K. D. Reeve, "Fabrication and structure of beryllium oxide-based fuels" 14 : 435-443, 1964

      86 S. C. Carniglia, "Fabrication and properties of dense beryllium oxide" 4 (4): 165-176, 1961

      87 R. J. Brown, "Fabrication and properties of commercial beryllia ceramics for nuclear application" 14 : 341-348, 1964

      88 M. L. E. Oliphant, "Experiments on the transmutation of elements by protons" 141 : 259-281, 1933

      89 R.C. Ropp, "Encyclopedia of the Alkaline Earth Compounds" Elsevier 105-197, 2013

      90 C. F. Cline, "Elastic constant of hexagonal BeO, ZnS, and CdSe" 38 (38): 1944-1948, 1967

      91 W. W. Beaver, "Effects of powder characteristics, additives and atmosphere on the sintering of sulfate-derived BeO" 14 : 326-337, 1964

      92 R. M. Spriggs, "Effect of open and closed pores on elastic moduli of polycrystalline alumina" 45 (45): 454-, 1962

      93 H. Luo, "Effect of film thickness on the temperature dependence of thermal conductivity for diamond/BeO composites" 41 (41): 12052-12057, 2015

      94 G. G. Bentle, "Dislocations, slip, and fracture in BeO single crystals" 38 : 4248-4257, 1967

      95 K. Kobashi, "Diamond Films" Elsevier 91-118, 2005

      96 R. Hecker, "Development of High Temperature Thermal Reactors in Germany" 1966

      97 J.V. Walker, "Design and Proposed Utilization of the Sandia Annular Core Research Reactor (ACRR)" Sandia Laboratory 1979

      98 F. P. Knudsen, "Dependence of mechanical strength of brittle polycrystalline specimens on porosity and grain size" 42 (42): 376-387, 1959

      99 H. Forst, "Deformation-Mechanism Maps: the Plasticity and Creep of Metals and Ceramics" Pergamon Press 1982

      100 K. K. Kelley, "Critical evaluation of high-temperature heat capacities of inorganic compounds" (476) : 1949

      101 R. E. Fryxell, "Creep, strength, expansion, and elastic moduli of sintered BeO as a function of grain size, porosity, and grain orientation" 47 : 283-291, 1964

      102 T. Zahradka, "Cost saving when using enhanced conductivity nuclear fuel containing BeO in WWER-1000 reactors" 2014

      103 Z. Gholamzadeh, "Computational investigation of Tehran research reactor graphite reflector replacement with Be, BeO or D2O and its impacts on thermal neutron flux enhancement" 13 (13): 350-371, 2019

      104 R. R. Vandervoort, "Compressive creep of polycrystalline beryllium oxide" 46 (46): 180-184, 1963

      105 D. A. Krohn, "Comparison of thermal-stress resistance of polycrystalline Al2O3 and BeO" 56 (56): 490-491, 1973

      106 W. Mayo, "Calculated Power Distribution of a Thermionic, Beryllium Oxide Reflected, Fast-Spectrum Reactor, NASA TM X-2838" National Aeronautics and Space Administration

      107 G. G. Bentle, "Brittle and plastic behavior of hot-pressed BeO" 48 (48): 570-577, 1965

      108 L. Brassart, "Bounds for shear viscosity in Nabarro-Herring-Coble creep" 137 : 103106-, 2019

      109 H. E. White, "Beryllium oxide refractories : II" 23 : 157-159, 1940

      110 H. E. White, "Beryllium oxide : I" 22 : 185-189, 1939

      111 R. A. Belyaev, "Beryllium Oxide: Properties and Applications" United States Atomic Energy Commission 1964

      112 A.J. Rothman, "Beryllium Oxide for Nuclear Propulsion Application" Lawrence Radiation Laboratory, University of California 1963

      113 J. J. Petrovic, "Beryllium Oxide (BeO) Handbook" Los Alamos National Laboratory 2172-, 2020

      114 B. Schwartz, "Beryllia, its Physical Properties at Elevated Temperatures" Massachusetts Institute of Technology 1952

      115 J. W. Blakley, "Army Gas-Cooled Reactors System Program. Transportability Studies, ML-1Nuclear Power Plant" Aerojet-General Nucleonic 1960

      116 H. Iwanaga, "Anisotropic thermal expansion in wurtzite-type crystals" 35 : 2451-2454, 2000

      117 W. D. Manly, "Aircraft Reactor Experiment Metallurgical Aspects" Oak Ridge National Laboratory 1958

      118 A. M. Weinberg, "Aircraft Nuclear Propulsion Project" Oak Ridge National Laboratory 2172-, 1950

      119 H.W. Davison, "Advanced-Power-Reactor Design Concepts and Performance Characterristics, NASA TM X-2957" National Aeronautics and Space Administration

      120 I.E. Cooper, "A Study of the Methods of Extracting Beryllia from Beryl" University of Illinois-Urbana 1920

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