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      KCI등재 SCIE SCOPUS

      TWO-DIMENSIONAL SIMULATION OF HYDROGEN IODIDE DECOMPOSITION REACTION USING FLUENT CODE FOR HYDROGEN PRODUCTION USING NUCLEAR TECHNOLOGY

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      https://www.riss.kr/link?id=A104117239

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      다국어 초록 (Multilingual Abstract)

      The operating characteristics of hydrogen iodide (HI) decomposition for hydrogen productionwere investigated using the commercial computational fluid dynamics code, andvarious factors, such as hydrogen production, heat of reaction, and temperature distribution,were studied to compare device performance with that expected for device development.
      Hydrogen production increased with an increase of the surface-to-volume (STV)ratio. With an increase of hydrogen production, the reaction heat increased. The internalpressure and velocity of the HI decomposer were estimated through pressure drop andreducing velocity from the preheating zone. The mass of H2O was independent of the STVratio, whereas that of HI decreased with increasing STV ratio.
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      The operating characteristics of hydrogen iodide (HI) decomposition for hydrogen productionwere investigated using the commercial computational fluid dynamics code, andvarious factors, such as hydrogen production, heat of reaction, and temperature dis...

      The operating characteristics of hydrogen iodide (HI) decomposition for hydrogen productionwere investigated using the commercial computational fluid dynamics code, andvarious factors, such as hydrogen production, heat of reaction, and temperature distribution,were studied to compare device performance with that expected for device development.
      Hydrogen production increased with an increase of the surface-to-volume (STV)ratio. With an increase of hydrogen production, the reaction heat increased. The internalpressure and velocity of the HI decomposer were estimated through pressure drop andreducing velocity from the preheating zone. The mass of H2O was independent of the STVratio, whereas that of HI decreased with increasing STV ratio.

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      참고문헌 (Reference)

      1 H. Engels, "Vapor pressures of the system HI/H2O/I2 and H2" 11 : 703-707, 1986

      2 L. Wang, "Thermodynamic considerations on the purification of H2SO4and HIx phases in the iodine-sulfur hydrogen production process" 199 : 165-177, 2012

      3 M. Roth, "Thermochemical water splitting through direct HI-decomposition from H2O/HI/I2/H2solutions" 14 : 545-549, 1989

      4 J.E. Funk, "Thermochemical hydrogen production: past and present" 26 : 185-190, 2001

      5 I. Ilda, "The kinetic behaviour of the decomposition of hydrogen iodide on the surface of platinum" 109 : 221-232, 1978

      6 L. Wang, "The HI catalytic decomposition for the lab-scale H2 producing apparatus of the iodineesulfur thermochemical cycle" 37 : 6415-6421, 2012

      7 C. Kane, "Sulfureiodine thermochemical cycle:HI decomposition flow sheet analysis" 33 : 5996-6005, 2008

      8 D.M. Ginosar, "Stability of supported platinum sulfuric acid decomposition catalysts for use in thermochemical water splitting cycles" 32 : 482-488, 2007

      9 L. Wang, "Simulation study about the effect of pressure on purification of H2SO4 and HIx phases in the iodineesulfur hydrogen production cycle" 37 : 12967-12972, 2012

      10 M. Lanchi, "SeI thermochemical cycle: a thermodynamic analysis of the HIeH2OeI2 system and design of the HIx decomposition section" 34 : 2121-2132, 2009

      1 H. Engels, "Vapor pressures of the system HI/H2O/I2 and H2" 11 : 703-707, 1986

      2 L. Wang, "Thermodynamic considerations on the purification of H2SO4and HIx phases in the iodine-sulfur hydrogen production process" 199 : 165-177, 2012

      3 M. Roth, "Thermochemical water splitting through direct HI-decomposition from H2O/HI/I2/H2solutions" 14 : 545-549, 1989

      4 J.E. Funk, "Thermochemical hydrogen production: past and present" 26 : 185-190, 2001

      5 I. Ilda, "The kinetic behaviour of the decomposition of hydrogen iodide on the surface of platinum" 109 : 221-232, 1978

      6 L. Wang, "The HI catalytic decomposition for the lab-scale H2 producing apparatus of the iodineesulfur thermochemical cycle" 37 : 6415-6421, 2012

      7 C. Kane, "Sulfureiodine thermochemical cycle:HI decomposition flow sheet analysis" 33 : 5996-6005, 2008

      8 D.M. Ginosar, "Stability of supported platinum sulfuric acid decomposition catalysts for use in thermochemical water splitting cycles" 32 : 482-488, 2007

      9 L. Wang, "Simulation study about the effect of pressure on purification of H2SO4 and HIx phases in the iodineesulfur hydrogen production cycle" 37 : 12967-12972, 2012

      10 M. Lanchi, "SeI thermochemical cycle: a thermodynamic analysis of the HIeH2OeI2 system and design of the HIx decomposition section" 34 : 2121-2132, 2009

      11 C.E. Bamberger, "Richardson, Hydrogen production from water by thermochemical cycles" 16 : 197-208, 1976

      12 H. Guo, "Review of thermodynamic properties of the components in HI decomposition section of the iodineesulfur process" 36 : 9505-9513, 2011

      13 J.E. Funk, "Reinstrom, Energy requirements in production of hydrogen from water" 5 : 336-342, 1966

      14 S. Kubo, "R&D Program on Thermochemical Water-splitting Iodine-sulfur Process at JAERI" JAERI 1-7, 2003

      15 D. O'Keefe, "Preliminary results from bench-scale testing of a sulfureiodine thermochemical water-splitting cycle" 7 : 381-392, 1982

      16 D. Neumann, "Phasengleichgewichte von HJ/H2O/J2-Losungen" RWTH Aachen University 1987

      17 J. Hur, "Measurements and correlation of solideliquid equilibria" 36 : 8187-8191, 2011

      18 Y. Shindo, "Kinetics of the catalytic decomposition of hydrogen iodide in the thermochemical hydrogen production" 9 : 695-700, 1984

      19 Y. Oosawa, "Kinetics of the catalytic decomposition of hydrogen iodide in the magnesiumeiodine thermochemical cycle" 54 : 742-748, 1981

      20 G. de Beni, "Hydrogen, key to the energy market" 9 : 46-50, 1970

      21 L. C. Brown, "High Efficiency Generation of Hydrogen Fuels Using Nuclear Power" General Atomics 2003

      22 A. Roine, "HSC Chemistry® for Windows, Chemical Reaction and Equilibrium Software with Extensive Thermochemical Database, Version 5.1" Outokumpu Research Oy

      23 M.K. Hadj-Kali, "HIx system thermodynamic model for hydrogen production by the sulfureiodine cycle" 34 : 1696-1709, 2009

      24 A. Giaconia, "Experimental study of two phase separation in the Bunsen section of the sulfureiodine thermochemical cycle" 32 : 531-536, 2007

      25 C. Berndhauser, "Experimental investigations of thermal HI decomposition from H2O-HI-I2 solutions" 19 : 239-244, 1994

      26 Y. Zhang, "Effect of preparation method on platinum-ceria catalysts for hydrogen iodide decomposition in sulfureiodine cycle" 33 : 602-607, 2008

      27 K. F. Knoche, "Direct dissociation of hydrogen iodide into hydrogen and iodine from HI/H2O/Izsolution" 1984

      28 Z. Wang, "Decomposition of hydrogen iodide over PteIr/C bimetallic catalyst" 35 : 8862-8867, 2010

      29 J.-M. Kim, "Decomposition of hydrogen iodide on Pt/Cbased catalysts for hydrogen production" 33 : 4974-4974, 2008

      30 Y. Zhang, "Catalytic decomposition of hydrogen iodide over pre-treated Ni/CeO2catalysts for hydrogen production in the sulfureiodine cycle" 34 : 8792-8798, 2009

      31 D.R. O'Keefe, "Catalysis research in thermochemical water-splitting processes" 22 : 325-369, 1980

      32 L.C. Brown, "Alternative Flow Sheets for the Sulfureiodine Thermochemical Hydrogen Cycle" General Atomics 2003

      33 L.M. Petkovic, "Activated carbon catalysts for the production of hydrogen via the sulfureiodine thermochemical water splitting cycle" 34 : 4057-4064, 2009

      34 P. Wang, "A speciation-based model for mixed-solvent electrolyte systems" 203 : 141-176, 2002

      35 J.E. Murphy, "A properties model of the HIeI2eH2OeH2 system in the sulfureiodine cycle for hydrogen manufacture" 288 : 99-110, 2010

      36 S. Kubo, "A pilot test plan of the thermochemical water-splitting iodineesulfur process" 233 : 355-362, 2004

      37 S. Kubo, "A demonstration study on a closed-cycle hydrogen production by the thermochemical water-splitting iodineesulfur process" 233 : 347-354, 2004

      38 H. Nakajima, "A Study on a Closed-cycle Hydrogen Production by Thermochemical Water-splitting IS Process" 1999

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      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
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      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 1.04 0.17 0.77
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.63 0.56 0.343 0.11
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