Feasibility of optical diffraction radiation for a non-invasive low-emittance beam diagnostics; Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment; Vol. 472, iss. 1-2

Detalles Bibliográficos
Parent link:Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment
Vol. 472, iss. 1-2.— 2001.— [P. 309-317]
Otros Autores: Urakawa J., Hayano H., Kubo K., Kuroda S., Terunuma N., Kuriki M., Okugi T., Naito T., Araki S., Potylitsyn A. P. Alexander Petrovich, Naumenko G. A. Gennadiy Andreevich, Karataev P., Potylitsyna N., Vnukov I., Hirose T., Hamatsu R., Muto T., Ikezawa M., Shibata Y.
Sumario:Title screen
A "proof-of-principle" experiment on the optical diffraction radiation (ODR) as a single-pulse beam profile monitor is planned using an electron beam extracted from the KEK-ATF damping ring. The main goals of this experiment are the following:(i) To measure the yield and the angular distributions of the optical diffraction radiation from a large-size target at different wavelengths, impact parameters and beam characteristics for a comparison with analogous characteristics of optical transition radiation from a foil with identical optical parameters and for a verification of the model assumption (perfectly conducting semi-infinite target).(ii) To investigate the ODR angular distributions from a tilted target with a slit for observing the interference effects.(iii) To compare the results obtained by simulations based on classical approaches, taking into account the optical characteristics of the equipment and the beam parameters.(iv) To estimate the prospects of using ODR as a new non-invasive tool for ultrarelativistic beams.We estimated that the ODR photon yield in 10% bandwidth for View the MathML source is about 106 photons/bunch with an impact parameter of View the MathML source. This indicates that the ODR monitor is a promising candidate for single-pulse beam-profile measurements, and that it will be an extremely useful instrument for future linear colliders (JLC, NLC, TESLA and CLIC).
Режим доступа: по договору с организацией-держателем ресурса
Lenguaje:inglés
Publicado: 2001
Materias:
Acceso en línea:http://dx.doi.org/10.1016/S0168-9002(01)01200-1
Formato: MixedMaterials Electrónico Capítulo de libro
KOHA link:https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=636363

MARC

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200 1 |a Feasibility of optical diffraction radiation for a non-invasive low-emittance beam diagnostics  |f J. Urakawa [et al.] 
203 |a Text  |c electronic 
300 |a Title screen 
320 |a [References: p. 318 (8 tit.)] 
330 |a A "proof-of-principle" experiment on the optical diffraction radiation (ODR) as a single-pulse beam profile monitor is planned using an electron beam extracted from the KEK-ATF damping ring. The main goals of this experiment are the following:(i) To measure the yield and the angular distributions of the optical diffraction radiation from a large-size target at different wavelengths, impact parameters and beam characteristics for a comparison with analogous characteristics of optical transition radiation from a foil with identical optical parameters and for a verification of the model assumption (perfectly conducting semi-infinite target).(ii) To investigate the ODR angular distributions from a tilted target with a slit for observing the interference effects.(iii) To compare the results obtained by simulations based on classical approaches, taking into account the optical characteristics of the equipment and the beam parameters.(iv) To estimate the prospects of using ODR as a new non-invasive tool for ultrarelativistic beams.We estimated that the ODR photon yield in 10% bandwidth for View the MathML source is about 106 photons/bunch with an impact parameter of View the MathML source. This indicates that the ODR monitor is a promising candidate for single-pulse beam-profile measurements, and that it will be an extremely useful instrument for future linear colliders (JLC, NLC, TESLA and CLIC). 
333 |a Режим доступа: по договору с организацией-держателем ресурса 
461 |t Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 
463 |t Vol. 472, iss. 1-2  |v [P. 309-317]  |d 2001 
610 1 |a электронный ресурс 
610 1 |a труды учёных ТПУ 
610 1 |a diffraction radiation 
610 1 |a дифракционное излучение 
610 1 |a diagnostics 
610 1 |a диагностика 
610 1 |a transition radiation 
610 1 |a переходное излучение 
701 1 |a Urakawa  |b J. 
701 1 |a Hayano  |b H. 
701 1 |a Kubo  |b K. 
701 1 |a Kuroda  |b S. 
701 1 |a Terunuma  |b N. 
701 1 |a Kuriki  |b M. 
701 1 |a Okugi  |b T. 
701 1 |a Naito  |b T. 
701 1 |a Araki  |b S. 
701 1 |a Potylitsyn  |b A. P.  |c Russian physicist  |c Professor of the TPU  |f 1945-  |g Alexander Petrovich  |3 (RuTPU)RU\TPU\pers\26306  |9 12068 
701 1 |a Naumenko  |b G. A.  |c physicist  |c senior research fellow, Professor of Tomsk Polytechnic University, Candidate of physical and mathematical sciences  |f 1947-  |g Gennadiy Andreevich  |3 (RuTPU)RU\TPU\pers\31524 
701 1 |a Karataev  |b P. 
701 1 |a Potylitsyna  |b N. 
701 1 |a Vnukov  |b I. 
701 1 |a Hirose  |b T. 
701 1 |a Hamatsu  |b R. 
701 1 |a Muto  |b T. 
701 1 |a Ikezawa  |b M. 
701 1 |a Shibata  |b Y. 
801 2 |a RU  |b 63413507  |c 20160404  |g RCR 
856 4 |u http://dx.doi.org/10.1016/S0168-9002(01)01200-1 
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