Evaluation and comparison of hydrogen production potential of the LIFE fusion reactor by using copper–chlorine (Cu–Cl), cobalt–chlorine (Co–Cl) and sulfur–iodine (S–I) cycles
暂无分享,去创建一个
[1] A. Acır,et al. A study of hydrogen production by using SMR, S-I and HTE methods in a PACER fusion concept based on thorium molten salt fuel , 2023, Fuel.
[2] A. Acır,et al. A study on nuclear hydrogen production using a novel approach cobalt-chlorine thermochemical cycle in a laser driver fission fusion blanket for various molten salt fuels , 2022, Progress in Nuclear Energy.
[3] C. A. Brayner de Oliveira Lira,et al. Exergy study of hydrogen cogeneration and seawater desalination coupled to the HTR-PM nuclear reactor , 2022, International Journal of Hydrogen Energy.
[4] S. Kubo. The roles of nuclear energy in hydrogen production , 2022, Engineering.
[5] Qi Wang,et al. Thermo-economic analysis and optimization of the very high temperature gas-cooled reactor-based nuclear hydrogen production system using copper-chlorine cycle , 2021 .
[6] A. Acır,et al. Utilization of the Cu–Cl thermochemical cycle for hydrogen production using a laser driver thorium molten salts , 2021 .
[7] H. Şahin,et al. Generation-IV reactors and nuclear hydrogen production , 2021 .
[8] A. Acır,et al. Investigation of the hydrogen production of a laser FUSION driver thorium breeder using various coolants , 2020 .
[9] A. Bohé,et al. Study on an original cobalt-chlorine thermochemical cycle for nuclear hydrogen production , 2020 .
[10] Ibrahim Dincer,et al. A multi-objective optimization of the integrated copper-chlorine cycle for hydrogen production , 2020, Comput. Chem. Eng..
[11] G. Naterer,et al. Review and evaluation of clean hydrogen production by the copper–chlorine thermochemical cycle , 2020 .
[12] I. Dincer,et al. Energy and exergy analyses of a new integrated thermochemical copper-chlorine cycle for hydrogen production , 2020 .
[13] Adem Acır,et al. Uranyum Yakıtlı Bir Lazer Sürücülü Füzyon Reaktöründe (LIFE) Nötronik Performansın Hidrojen Üretimine Etkisi , 2020 .
[14] Abdulrahman H. Ba-Alawi,et al. Hydrogen production through the sulfur–iodine cycle using a steam boiler heat source for risk and techno-socio-economic cost (RSTEC) reduction , 2020 .
[15] I. Dincer,et al. Thermal management of a new integrated copper-chlorine cycle for hydrogen production , 2020 .
[16] Binlin Dou,et al. Experimental study and development of an improved sulfur–iodine cycle integrated with HI electrolysis for hydrogen production , 2020 .
[17] J. Hartvigsen,et al. Comparative review of hydrogen production technologies for nuclear hybrid energy systems , 2020 .
[18] I. Dincer,et al. Analysis and assessment of the integrated generation IV gas-cooled fast nuclear reactor and copper-chlorine cycle for hydrogen and electricity production , 2020 .
[19] A. Jana,et al. Simulating reactive distillation of HIx (HI–H2O–I2) system in Sulphur-Iodine cycle for hydrogen production , 2020 .
[20] A. Acır,et al. Investigation of hydrogen production potential of the LASER inertial confinement fusion fission energy (LIFE) engine , 2019, International Journal of Hydrogen Energy.
[21] Ibrahim Dincer,et al. Thermodynamic assessment of a lab-scale experimental copper-chlorine cycle for sustainable hydrogen production , 2019, International Journal of Hydrogen Energy.
[22] Binlin Dou,et al. Simulation study on the microscopic characteristics of electrochemical Bunsen reaction in the sulfur–iodine cycle for renewable hydrogen production , 2019, Applied Thermal Engineering.
[23] I. Dincer,et al. Thermodynamic viability of a new three step high temperature Cu-Cl cycle for hydrogen production , 2018, International Journal of Hydrogen Energy.
[24] I. Dincer,et al. Modelling of hydrogen production from hydrogen sulfide in geothermal power plants , 2018, International Journal of Hydrogen Energy.
[25] A. Acır,et al. Monte Carlo calculations of the incineration of plutonium and minor actinides of laser fusion inertial confinement fusion fission energy (LIFE) engine , 2018, Plasma Science and Technology.
[26] M. Rosen,et al. Hydrogen production using high temperature nuclear reactors: Efficiency analysis of a combined cycle , 2016 .
[27] W. Meier,et al. Fusion technology aspects of laser inertial fusion energy (LIFE) , 2014 .
[28] S. Şahin,et al. Neutronic investigations of a laser fusion driven lithium cooled thorium breeder , 2014 .
[29] A. Acır. Neutronic Analysis of the Laser Inertial Confinement Fusion–Fission Energy (LIFE) Engine Using Various Thorium Molten Salts , 2013 .
[30] N. Demir. Hydrogen production via steam-methane reforming in a SOMBRERO fusion breeder with ceramic fuel particles , 2013 .
[31] H. Şahin,et al. LIFE hybrid reactor as reactor grade plutonium burner , 2012 .
[32] R P Abbott,et al. Fusion technologies for Laser Inertial Fusion Energy (LIFE) , 2011 .
[33] M. J. Khan,et al. Fissile fuel breeding and minor actinide transmutation in the life engine , 2011 .
[34] Gregory A. Moses,et al. Chamber Design for the Laser Inertial Fusion Energy (LIFE) Engine , 2010 .
[35] Ibrahim Dincer,et al. Canada’s program on nuclear hydrogen production and the thermochemical Cu–Cl cycle , 2010 .
[36] Gamze Genç. Hydrogen production potential of APEX fusion transmuter fueled minor actinide fluoride , 2010 .
[37] H. Şahin,et al. Utilization of TRISO fuel with reactor grade plutonium in CANDU reactors , 2010 .
[38] N. Demir,et al. Hydrogen production via water splitting process in a molten-salt fusion breeder , 2010 .
[39] Per F. Peterson,et al. A Sustainable Nuclear Fuel Cycle Based on Laser Inertial Fusion Energy , 2009 .
[40] R P Abbott,et al. Thermal and Mechanical Design Aspects of the LIFE Engine , 2009 .
[41] Wayne R. Meier,et al. Parameter study of the LIFE engine nuclear design , 2009 .
[42] Greg F. Naterer,et al. Comparison of different copper–chlorine thermochemical cycles for hydrogen production , 2009 .
[43] M. Lanchi,et al. S–I thermochemical cycle: A thermodynamic analysis of the HI–H2O–I2 system and design of the HIx decomposition section , 2009 .
[44] R P Abbott,et al. Neutron Transport and Nuclear Burnup Analysis for the Laser Inertial Confinement Fusion-Fission Energy (LIFE) Engine , 2008 .
[45] J. F. Latkowski,et al. Molten Salt Fuel Version of Laser Inertial Fusion Fission Energy (LIFE) , 2008 .
[46] Greg F. Naterer,et al. Thermochemical hydrogen production with a copper–chlorine cycle, II: Flashing and drying of aqueous cupric chloride , 2008 .
[47] D. Ryland,et al. Electrolytic hydrogen generation using CANDU nuclear reactors , 2007 .
[48] Kaoru Onuki,et al. Thermochemical Water Splitting for Hydrogen Production Utilizing Nuclear Heat from an HTGR , 2005 .
[49] M. Übeyli. Neutronic performance of new coolants in a fusion-fission (hybrid) reactor , 2004 .
[50] K. R. Schultz,et al. ALTERNATIVE FLOWSHEETS FOR THE SULFUR-IODINE THERMOCHEMICAL HYDROGEN CYCLE , 2003 .
[51] Per F. Peterson,et al. Control of the heavy-ion beam line gas pressure and density in the HYLIFE thick-liquid chamber , 2002 .
[52] S. Şahin. Power Flattening in a Catalyzed Deuterium-Deuterium Fusion-Driven Hybrid Blanket Using Nuclear Waste Actinides , 1990 .
[53] M. Al-Eshaikh,et al. Fission Power Flattening in Hybrid Blankets Using Mixed Fuel , 1987 .
[54] G. E. Besenbruch,et al. Preliminary results from bench-scale testing of a sulfur-iodine thermochemical water-splitting cycle , 1980 .
[55] Mujid S. Kazimi,et al. Efficiency of hydrogen production systems using alternative nuclear energy technologies , 2006 .
[56] M. Dokiya,et al. Hybrid cycle with electrolysis using CuCl system , 1976 .