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Physical Review Special Topics-accelerators and Beams | 2000

Superconducting TESLA cavities

B. Aune; R. Bandelmann; D. Bloess; B. Bonin; A. Bosotti; M. Champion; C. Crawford; G. Deppe; B. Dwersteg; D. Edwards; H. T. Edwards; M. Ferrario; M. Fouaidy; P.-D. Gall; A. Gamp; A. Gossel; J. Graber; D. Hubert; M. Hüning; M. Juillard; T. Junquera; H. Kaiser; G. Kreps; M. Kuchnir; R. Lange; M. Leenen; Matthias Liepe; L. Lilje; A. Matheisen; W. D. Möller

The conceptional design of the proposed linear electron-positron collider TESLA is based on 9-cell 1.3 GHz superconducting niobium cavities with an accelerating gradient of Eacc >= 25 MV/m at a quality factor Q0 > 5E+9. The design goal for the cavities of the TESLA Test Facility (TTF) linac was set to the more moderate value of Eacc >= 15 MV/m. In a first series of 27 industrially produced TTF cavities the average gradient at Q0 = 5E+9 was measured to be 20.1 +- 6.2 MV/m, excluding a few cavities suffering from serious fabrication or material defects. In the second production of 24 TTF cavities additional quality control measures were introduced, in particular an eddy-current scan to eliminate niobium sheets with foreign material inclusions and stringent prescriptions for carrying out the electron-beam welds. The average gradient of these cavities at Q0 = 5E+9 amounts to 25.0 +- 3.2 MV/m with the exception of one cavity suffering from a weld defect. Hence only a moderate improvement in production and preparation techniques will be needed to meet the ambitious TESLA goal with an adequate safety margin. In this paper we present a detailed description of the design, fabrication and preparation of the TESLA Test Facility cavities and their associated components and report on cavity performance in test cryostats and with electron beam in the TTF linac. The ongoing R&D towards higher gradients is briefly addressed.


International Journal of Modern Physics A | 2004

The Photon Collider at Tesla

B. Badelek; C. Blochinger; J. Blumlein; E. Boos; R. Brinkmann; H. Burkhardt; P. Bussey; C. Carimalo; J. Chyla; A. K. Ciftci; W. Decking; A. De Roeck; Fadin; M. Ferrario; A.J. Finch; H. Fraas; F. Franke; M. Galynskii; A. Gamp; I. Ginzburg; Rohini M. Godbole; Ds Gorbunov; G. J. Gounaris; Kaoru Hagiwara; L. Han; R. D. Heuer; C. Heusch; J. Illana; Ilyin; P. Jankowski

High energy photon colliders (γγ,γe) are based on e-e- linear colliders where high energy photons are produced using Compton scattering of laser light on high energy electrons just before the interaction point. This paper is a part of the Technical Design Report of the linear collider TESLA.1 Physics program, possible parameters and some technical aspects of the photon collider at TESLA are discussed.


arXiv: High Energy Physics - Experiment | 2001

TESLA Technical Design Report, Part VI, Chapter 1: The Photon Collider at TESLA

B. Badelek; C. Blochinger; J. Blumlein; E. Boos; R. Brinkmann; H. Burkhardt; P. Bussey; C. Carimalo; J. Chyla; A. K. Ciftci; W. Decking; A. De Roeck; V. Fadin; M. Ferrario; A.J. Finch; H. Fraas; F. Franke; M. Galynskii; A. Gamp; I. Ginzburg; Rohini M. Godbole; Ds Gorbunov; G. J. Gounaris; Kaoru Hagiwara; L. Han; R. D. Heuer; C. Heusch; J. Illana; V. Ilyin; P. Jankowski

High energy photon colliders (γγ,γe) are based on e-e- linear colliders where high energy photons are produced using Compton scattering of laser light on high energy electrons just before the interaction point. This paper is a part of the Technical Design Report of the linear collider TESLA.1 Physics program, possible parameters and some technical aspects of the photon collider at TESLA are discussed.


International Journal of Modern Physics | 2001

TESLA: The Superconducting electron positron linear collider with an integrated X-ray laser laboratory. Technical design report. Part 6. Appendices. Chapter 1. Photon collider at TESLA

B. Badelek; P. Jankowski; F. Franke; V. Serbo; T. Mayer; H. Burkhardt; L. Jönsson; D. Trines; A. Undrus; K. Yokoya; Rohini M. Godbole; V. Telnov; M. Kalachnikow; I. Watanabe; Alexander A. Penin; W. Sandner; K. Kobayashi; S. Sultansoy; R. Orava; P. V. Nickles; Maria Krawczyk; J. Illana; O. Yavas; Hans-Ulrich Martyn; R. D. Heuer; L. Han; A. Wagner; C. Blochinger; Kaoru Hagiwara; T. Wengler

High energy photon colliders (γγ,γe) are based on e-e- linear colliders where high energy photons are produced using Compton scattering of laser light on high energy electrons just before the interaction point. This paper is a part of the Technical Design Report of the linear collider TESLA.1 Physics program, possible parameters and some technical aspects of the photon collider at TESLA are discussed.


Physical Review Letters | 2002

Generation of GW radiation pulses from a VUV free-electron laser operating in the femtosecond regime.

V. Ayvazyan; N. Baboi; I. Bohnet; R. Brinkmann; M. Castellano; P. Castro; L. Catani; S. Choroba; A. Cianchi; Martin Dohlus; H. T. Edwards; B. Faatz; A. Fateev; J. Feldhaus; K. Flöttmann; A. Gamp; T. Garvey; H. Genz; V. Gretchko; B. Grigoryan; U. Hahn; C. Hessler; K. Honkavaara; M. Hüning; M. Jablonka; T. Kamps; M. Körfer; Mikhail Krassilnikov; J. Krzywinski; M. Liepe


European Physical Journal D | 2002

A new powerful source for coherent VUV radiation : demonstration of exponential growth and saturation at the TTF free-electron laser

V. Ayvazyan; N. Baboi; I. Bohnet; R. Brinkmann; M. Castellano; P. Castro; L. Catani; S. Choroba; A. Cianchi; Martin Dohlus; H. T. Edwards; B. Faatz; A. Fateev; J. Feldhaus; K. Flöttmann; A. Gamp; T. Garvey; H. Genz; Ch. Gerth; V. Gretchko; B. Grigoryan; U. Hahn; C. Hessler; K. Honkavaara; M. Hüning; R. Ischebeck; M. Jablonka; T. Kamps; M. Körfer; Mikhail Krassilnikov


Archive | 2000

Terahertz Wakefields in the Superconducting Cavities of the TESLA-FEL Linac

R. Brinkmann; Martin Dohlus; D. Trines; Alexandre Novokhatski; Martin Timm; Thomas Weiland; Peter Hülsmann; C. T. Rieck; K. Scharnberg; Peter Schmüser


Archive | 2002

The Tesla test facility FEL : its present status and future as a user facility

P. Piot; V. Ayvazyan; N. Baboi; I. Bohnet; R. Brinkmann; M. Castellano; P. Castro; L. Catani; S. Choroba; A. Cianchi; Martin Dohlus; H. T. Edwards; B. Faatz; A. Fateev; J. Feldhaus; K. Flöttmann; A. Gamp; T. Garvey; Harald Genz; Ch. Gerth; V. Gretchko; B. Grigoryan; U. Hahn; Christoph Heßler; K. Honkavaara; M. Hüning; R. Ischebeck; M. Jablonka; T. Kamps; M. Körfer


Archive | 2000

Terahertz Wakefields and their Effect on the Superconducting Cavities in TESLA

R. Brinkmann; M. Dohlus; D. Trines; Alexandre Novokhatski; Martin Timm; Thomas Weiland; P. Hülsmann; C. T. Rieck; K. Scharnberg; P. Schmüser

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R. Brinkmann

Technische Universität Darmstadt

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M. Hüning

RWTH Aachen University

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N. Baboi

University of Hamburg

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T. Kamps

Helmholtz-Zentrum Berlin

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A. Fateev

Joint Institute for Nuclear Research

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H. T. Edwards

Joint Institute for Nuclear Research

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P. Castro

Joint Institute for Nuclear Research

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