Zobrazeno 1 - 10
of 55
pro vyhledávání: '"B.M. Ikeda"'
Autor:
Zhaolin Wang, Kevin Pope, Igor Pioro, Greg F. Naterer, Serguei N. Lvov, S. Suppiah, Ghaus Rizvi, Javad Mostaghimi, B.M. Ikeda, E.B. Easton, Ofelia A. Jianu, Marc A. Rosen, Kamiel Gabriel, Ibrahim Dincer
Publikováno v:
International Journal of Hydrogen Energy. 42:15708-15723
This paper presents recent advances by an international team of five countries – Canada, U.S., China, Slovenia and Romania – on the development and scale-up of the copper–chlorine (Cu Cl) cycle for thermochemical hydrogen production using nucle
Autor:
Kelvin S.-H. Seto, B.M. Ikeda
Publikováno v:
ECS Transactions. 53:57-72
Vulcan carbon electrodes of varying PTFE-content (20 w.% and 35 w.%) were synthesized using a sol-gel process. Electrochemical fluorination was carried out over a range of potentials for fluorine generation (4 to 8 V) in molten, KF·2HF electrolyte a
Autor:
Jurij Avsec, A. Odukoya, E. Secnik, Ibrahim Dincer, B.M. Ikeda, Michele A. Lewis, E.B. Easton, L. Stolberg, J. Jiang, Marc A. Rosen, Zhaolin Wang, Greg F. Naterer, P. Spekkens, Ghaus Rizvi, S. Suppiah, Javad Mostaghimi, Michael Fowler, Kamiel Gabriel, Igor Pioro, Serguei N. Lvov, Lixuan Lu
Publikováno v:
International Journal of Hydrogen Energy. 38:740-759
This paper presents recent advances by an international team which is developing the thermochemical copper–chlorine (Cu–Cl) cycle for hydrogen production. Development of the Cu–Cl cycle has been pursued by several countries within the framework
Autor:
E.B. Easton, Greg F. Naterer, Peter R. Tremaine, Javad Mostaghimi, Magali Ferrandon, B.M. Ikeda, Michael Fowler, William R. Smith, Ghaus Rizvi, P. Spekkens, Zhaolin Wang, Marc A. Rosen, E. Secnik, Jurij Avsec, Kamiel Gabriel, M. H. Kaye, Ibrahim Dincer, Michele A. Lewis, S. Suppiah, Lixuan Lu, J. Jiang, Igor Pioro, Serguei N. Lvov, Liliana N. Trevani, L. Stolberg
Publikováno v:
International Journal of Hydrogen Energy. 36:15486-15501
This second of two companion papers presents the latest advances of an international team on the thermochemical copper–chlorine (Cu–Cl) cycle of hydrogen production. It specifically focuses on simulations, thermochemical data, advanced materials,
Autor:
Jurij Avsec, E.B. Easton, Greg F. Naterer, M. H. Kaye, Igor Pioro, Michael Fowler, Michele A. Lewis, William R. Smith, Serguei N. Lvov, S. Suppiah, Zhaolin Wang, Peter R. Tremaine, B.M. Ikeda, Ghaus Rizvi, Ibrahim Dincer, P. Spekkens, Javad Mostaghimi, Lixuan Lu, Kamiel Gabriel, Magali Ferrandon, Marc A. Rosen, Liliana N. Trevani, E. Secnik, J. Jiang, L. Stolberg
Publikováno v:
International Journal of Hydrogen Energy. 36:15472-15485
Advancement of the thermochemical copper–chlorine (Cu–Cl) cycle for hydrogen production is reviewed and discussed in this paper. Individual unit operations and their linkage into an integrated cycle are being developed by a Canadian consortium, a
Autor:
Lixuan Lu, Michele A. Lewis, Jurij Avsec, Greg F. Naterer, Igor Pioro, Javad Mostaghimi, E.B. Easton, S. Suppiah, P. Spekkens, Peter R. Tremaine, B.M. Ikeda, Michael Fowler, Ghaus Rizvi, M. H. Kaye, Ibrahim Dincer, Marc A. Rosen, Kamiel Gabriel, J. Jiang
Publikováno v:
International Journal of Hydrogen Energy. 34:2901-2917
This paper presents recent Canadian advances in nuclear-based production of hydrogen by electrolysis and the thermochemical copper-chlorine (Cu-Cl) cycle. This includes individual process and reactor developments within the Cu-Cl cycle, thermochemica
Publikováno v:
Corrosion Reviews. 18:331-360
Publikováno v:
Canadian Journal of Chemistry. 75:1566-1584
The permanent disposal of nuclear fuel wastes requires the development of models that can assess the performance of a disposal vault over long periods of time. Models to assess the long-term stability of the nuclear fuel (UO2) and the corrosion perfo
Publikováno v:
CORROSION. 53:820-829
A model was developed to predict the failure of Grade-2 titanium (Ti-2) nuclear waste containers. Two major corrosion modes were included: failure by crevice corrosion (CC) and failure by hydrogen-induced cracking (HIC). A small number of containers