Results 161 to 170 of about 92,711 (203)

JET experiments with tritium and deuterium–tritium mixtures

Fusion Engineering and Design, 2016
Extensive preparations are now underway for an experiment in the Joint European Torus (JET) using tritium and deuterium-tritium mixtures. The goals of this experiment are described as well as the progress that has been made in developing plasma operational scenarios and physics reference pulses for use in deuterium-tritium and full tritium plasmas.
Horton, Lorne, Batistoni, P., Boyer, H., Challis, C., Ćirić, D., Donné, A. J. H., Eriksson, L. G., Garcia, J., Garzotti, L., Gee, S., Hobirk, J., Joffrin, E., Jones, T., King, D. B., Knipe, S., Litaudon, X., Matthews, G. F., Monakhov, I., Murari, A., Nunes, I., Riccardo, V., Sips, A. C. C., Warren, R., Weisen, H., Zastrow, K. D., Abhangi, M., Abreu, P., Aftanas, M., Afzal, M., Aggarwal, K. M., Aho Mantila, L., Ahonen, E., Aints, M., Airila, M., Albanese, R., Alegre, D., Alessi, E., Aleynikov, P., Alfier, A., Alkseev, A., Allan, P., Almaviva, S., Alonso, A., Alper, B., Alsworth, I., Alves, D., Ambrosino, G., Ambrosino, R., Amosov, V., Andersson, F., Andersson Sunde ́n, E., Angelone, M., Anghel, A., Anghel, M., Angioni, C., Appel, L., Apruzzese, G., Arena, P., Ariola, M., Arnichand, H., Arnoux, G., Arshad, S., Ash, A., Asp, E., Asunta, O., Cooper, D., Cooper, S. R., Corre, Y., Corrigan, G., Cortes, S., Coster, D., Couchman, A. S., Cox, M., Cox, M. P., Cox, P., Craciunescu, T., Cramp, S., Crisanti, F., Cristescu, I., Croci, G., Croft, O., Crombe, K., Crowe, R., Cruz, N., Cseh, G., Cull, K., Cupido, L., Curran, D., Curuia, M., Czarnecka, A., Czarski, T., Dalley, S., Dalziel, A., Darrow, D., Davies, R., Davis, W., Day, C., Day, I. E., de la Cal, E., de la Luna, E., De Magistris, M., de Pablos, J. L., De Tommasi, G., de Vries, P. C., Deakin, K., Deane, J., Decker, J., Degli Agostini, F., Dejarnac, R., Delabie, E., den Harder, N., Dendy, R. O., Denner, P., Devaux, S., Devynck, P., Di Maio, F., Di Pace, L., Dittmar, T., Dodt, D., Donne, T., Dooley, P., Dorling, S. E., Dormido Canto, S., Doswon, S., Douai, D., Doyle, P. T., Dreischuh, T., Drewelow, P., Drozdov, V., Drozdowicz, K., Dumont, R., Dumortier, P., Atanasiu, C. V., Austin, Y., Avotina, L., Axton, M. D., Dunai, D., Dunne, M., Dˇuran, I., Durodie, F., Ayres, C., Bachmann, C., Baciero, A., Baia ̃o, D., Bailescu, V., Baiocchi, B., Baker, A., Baker, R. A., Balboa, I., Balden, M., Balshaw, N., Bament, R., Banks, J. W., Baranov, Y. F., Barlow, I. L., Barnard, M. A., Barnes, D., Barnsley, R., Baron Wiechec, A., Baruzzo, M., Basiuk, V., Bassan, M., Bastow, R., Batista, A., Bauer, R., Bauvir, B., Bazylev, B., Beal, J., Beaumont, P. S., Becoulet, A., Bednarczyk, P., Bekris, N., Beldishevski, M., Bell, K., Belli, F., Dutta, P., Duval, B., Dux, R., Dylst, K., Dzysiuk, N., Edappala, P. V., Edwards, A. M., Eich, T.h., Ekedahl, A., Elevant, T., El Jorf, R., Elsmore, C. G., Ericsson, G., Eriksson, A., Eriksson, J., Esposito, B., Esser, H. G., Esteve, D., Evans, G. E., Evans, J., Ewart, G. D., Ewers, D. T., Fagan, D., Falie, D., Farthing, J. W., Bieg, B., Blanco, E., Chang, C. S., Coda, S., Koskela, T., Loarte, A., Lukin, A., Makwana, R., Marchetto, C., Matejcik, S., Plyusnin, V., Romanelli, F., Soare, S., Vicente, J., Wischmeier, M., FRESA, RAFFAELE   +215 more
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Tritium troubles

Physics World, 2021
A response to the news article “UK announces five potential sites for prototype energy plant”, which details the locations shortlisted to host the UK’s prototype fusion energy plant.
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Tritium and Health

Journal of the Royal Society of Health, 1988
TRITIUM is produced naturally by the interaction of cosmic rays with the atmosphere and in nuclear reactions in rock. Large quantities of tri tium are produced artificially in the nuclear industry and during the testing and use of thermonuclear weapons.
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Tritium Risk Assessment

Health Physics, 1993
Estimates of the health risks in humans from low-level exposure to tritium are presented. The health risks considered are those for cancer, genetic effects, and developmental abnormalities from exposures in utero. Because direct risk information for these effects is not available from human exposures to tritium, the following approach was used.
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Tritium well depth, tritium well time and sponge mechanism for reducing tritium retention

Nuclear Fusion, 2011
New simulation results are predicted in a fusion reactor operation process. They are somewhat similar to, but quite different from, the xenon poisoning effects resulting from fission-produced iodine during the restart-up process of a fission reactor. We obtained completely new results of tritium well depth and tritium well time in magnetic confinement ...
B.Q. Deng, Z.X. Li, C.Y. Li, K.M. Feng
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Autoradiography with Tritium

1963
In autoradiography, a photographic emulsion is placed in contact with a specimen containing radioactivity and stored in the dark. The radiation, passing through the emulsion, sensitizes silver bromide granules so that they can be reduced to metallic silver by a photographic developer.
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Tritium decay catastrophe

Applied Radiation and Isotopes
The phenomenon of tritium decay catastrophe is introduced. A technical example is provided regarding the radioligand [methoxy-3H] levosulpiride whose long-term behavior is consistent with the concept of tritium decay catastrophe.
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Tritium

2023
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Recent Developments for the Deuterium and Tritium Labeling of Organic Molecules

Chemical Reviews, 2022
Sara Kopf, Florian Bourriquen, Wu Li
exaly  

Tritium Measurement II—Tritium in Plasma

2016
In D–T burning plasma , the fueled ion density ratio nD/nT is a key parameter to control the fusion output power. The requirements in ITER are briefly described, namely the range of density ratio, spatial locations (core, edge, wall, and divertor), and spatial/time resolutions.
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