The Experts below are selected from a list of 255 Experts worldwide ranked by ideXlab platform
J. E. Battles - One of the best experts on this subject based on the ideXlab platform.
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Nuclear Technology Programs Semiannual Progress Report: April-September 1991
1993Co-Authors: J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs, including R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
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Nuclear Technology Programs Semiannual Progress Report: October 1990-March 1991
1992Co-Authors: J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs, including R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
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Nuclear Technology Programs Semiannual Progress Report: April-September 1990
1992Co-Authors: M. J. Steindler, J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs, including R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
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Nuclear Technology Programs Semiannual Progress Report: October 1989-March 1990
1992Co-Authors: M. J. Steindler, J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs involving R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
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Nuclear Technology Programs Semiannual Progress Report: April-September 1989
1991Co-Authors: M. J. Steindler, J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs involving R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
M. J. Steindler - One of the best experts on this subject based on the ideXlab platform.
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Nuclear Technology Programs Semiannual Progress Report: April-September 1990
1992Co-Authors: M. J. Steindler, J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs, including R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
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Nuclear Technology Programs Semiannual Progress Report: October 1989-March 1990
1992Co-Authors: M. J. Steindler, J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs involving R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
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Nuclear Technology Programs Semiannual Progress Report: April-September 1989
1991Co-Authors: M. J. Steindler, J. E. BattlesAbstract:Progress report of the Argonne National Laboratory's Nuclear Technology Programs involving R&D in three areas: applied physical chemistry, separation science and Technology, and Nuclear waste management.
Jan Leen Kloosterman - One of the best experts on this subject based on the ideXlab platform.
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Design for Values in Nuclear Technology
Handbook of Ethics Values and Technological Design, 2021Co-Authors: Behnam Taebi, Jan Leen KloostermanAbstract:Safety has always been an important criterion for designing Nuclear reactors, but in addition to safety, there are at least four other values that play a key role, namely, security (i.e., sabotage and proliferation), sustainability (i.e., environmental impacts, energy resource availability), economic viability (i.e., embarking on new Technology and its continuation), as well as intergenerational justice (i.e., what we leave behind for future generations). This chapter reviews the evolution of generations of Nuclear reactors (I, II, III, III, and IV) in terms of these values. We argue that the Best Achievable Nuclear Reactor would maximally satisfy all these criteria, but the safest reactor is not always the most sustainable one, while the reactor that best guarantees resource durability could easily compromise safety and security. Since we cannot meet all these criteria simultaneously, choices and trade-offs need to be made. We highlight these choices by discussing three promising future reactor types, namely, the high-temperature reactor pebble-bed module (HTR-PM), the molten salt-cooled reactor (MSR) and the gas-cooled fast reactor (GFR).
Behnam Taebi - One of the best experts on this subject based on the ideXlab platform.
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Design for Values in Nuclear Technology
Handbook of Ethics Values and Technological Design, 2021Co-Authors: Behnam Taebi, Jan Leen KloostermanAbstract:Safety has always been an important criterion for designing Nuclear reactors, but in addition to safety, there are at least four other values that play a key role, namely, security (i.e., sabotage and proliferation), sustainability (i.e., environmental impacts, energy resource availability), economic viability (i.e., embarking on new Technology and its continuation), as well as intergenerational justice (i.e., what we leave behind for future generations). This chapter reviews the evolution of generations of Nuclear reactors (I, II, III, III, and IV) in terms of these values. We argue that the Best Achievable Nuclear Reactor would maximally satisfy all these criteria, but the safest reactor is not always the most sustainable one, while the reactor that best guarantees resource durability could easily compromise safety and security. Since we cannot meet all these criteria simultaneously, choices and trade-offs need to be made. We highlight these choices by discussing three promising future reactor types, namely, the high-temperature reactor pebble-bed module (HTR-PM), the molten salt-cooled reactor (MSR) and the gas-cooled fast reactor (GFR).
Hua Yong-pen - One of the best experts on this subject based on the ideXlab platform.
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Discussion and Countermeasures for Environmental Risk Assessment Related to Nuclear Technology Application Projects
Energy Saving of Non-Ferrous Metallurgy, 2009Co-Authors: Hua Yong-penAbstract:This paper analyses the risk assessment in Nuclear Technology application projects in two aspects of radiation safety and regulations and takes the Nuclear Technology application project as an example to propose appropriate measures and recommendations for storage of radioactive sources, the source for accident, transport safety and security of the source of recovery, staff training and contingency plans so as to provide some references for ensuring environmental safety of radiation.
