ILC Positron Source Based on Laser Compton
ILC Positron Source Based on Laser Compton
复制标题
基于激光康普顿的 ILC 正电子源
DOI:
10.1063/1.2888124
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发表时间:
2008
期刊:
影响因子:
--
通讯作者:
V. Soskov
中科院分区:
文献类型:
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作者:
M. Kuriki;S. Araki;Y. Higashi;Y. Honda;Y. Kurihara;T. Okugi;T. Omori;T. Taniguchi;N. Terunuma;J. Urakawa;M. Fukuda;K. Hirano;M. Takano;T. Hirose;K. Sakaue;M. Washio;Tadayuki Takahashi;H. Shimizu;A. Tsunemi;F. Zimmermann;H. Braun;M. Korostelev;L. Rinolfi;D. Schulte;E. Bulyak;P. Gladkikh;K. Moenig;A. Variola;F. Zomer;X. Artru;R. Chehab;M. Chevallier;V. Strakhovenko;Jie Gao;S. Guiducci;P. Raimondi;V. Soskov
Positron generation is one of the most difficult technical challenges among the ILC (International Linear Collider) subsystems. A positron source based on Laser Compton back scattering is an attractive and advanced option for the ILC positron source. Here, the positrons are generated, via the pair creation process, from high energy gamma rays which themselves are produced by Compton scattering of laser photons off a high‐energy electron beam. Polarized positrons can be generated by employing a circularly polarized laser. The positron polarization is easily controlled and switched by changing the laser polarity. The electron beam can be unpolarized. The required electron energy is only a few GeV (in contrast, the “undulator scheme”, another advanced option, requires at least 100 GeV or more) and the system can be prototyped and tested prior to the real construction. The laser Compton technology has many other applications like advanced X‐ray sources and a good synergy is expected. In addition, this technol...
DOI:
--
发表时间:
2006
期刊:
Physical Review Special Topics-Accelerators and Beams 9
影响因子:
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作者:
Eugene Bulyak;Peter Gladkikh;Vladislav Skomorokhov;Tsunehiko Omori;Junji Urakawa;Klaus Moenig;Frank Zimmermann
通讯作者:
Frank Zimmermann