PAC09 - List of Authors (Laurent, L.)

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Laurent, L.

Paper	Title	Page
WE5PFP018	Results from the CLIC X-Band Structure Test Program at NLCTA	2027
	C. Adolphsen, G.B. Bowden, V.A. Dolgashev, L. Laurent, S.G. Tantawi, F. Wang, J.W. Wang SLAC, Menlo Park, California S. Döbert, A. Grudiev, G. Riddone, W. Wuensch, R. Zennaro CERN, Geneva Y. Higashi, T. Higo KEK, Ibaraki
	Funding: Work supported by the DOE under contract DE-AC02-76SF00515 As part of a SLAC-CERN-KEK collaboration on high gradient X-band structure research, several prototype structures for the CLIC linear collider study have been tested using two of the high power (300 MW) X-band rf stations in the NLCTA facility at SLAC. These structures differ in terms of their manufacturing (brazed disks and clamped quadrants), gradient profile (amount by which the gradient increases along the structure which optimizes efficiency and maximizes sustainable gradient) and HOM damping (use of slots or waveguides to rapidly dissipate dipole mode energy). The CLIC goal in the next few years is to demonstrate the feasibility of a CLIC-ready baseline design and to investigate alternatives which could bring even higher efficiency. This paper summarizes the high gradient test results from the NLCTA in support of this effort.

Paper

Title

Page

WE5PFP018

Results from the CLIC X-Band Structure Test Program at NLCTA

2027

C. Adolphsen, G.B. Bowden, V.A. Dolgashev, L. Laurent, S.G. Tantawi, F. Wang, J.W. Wang
SLAC, Menlo Park, California
S. Döbert, A. Grudiev, G. Riddone, W. Wuensch, R. Zennaro
CERN, Geneva
Y. Higashi, T. Higo
KEK, Ibaraki

Funding: Work supported by the DOE under contract DE-AC02-76SF00515

As part of a SLAC-CERN-KEK collaboration on high gradient X-band structure research, several prototype structures for the CLIC linear collider study have been tested using two of the high power (300 MW) X-band rf stations in the NLCTA facility at SLAC. These structures differ in terms of their manufacturing (brazed disks and clamped quadrants), gradient profile (amount by which the gradient increases along the structure which optimizes efficiency and maximizes sustainable gradient) and HOM damping (use of slots or waveguides to rapidly dissipate dipole mode energy). The CLIC goal in the next few years is to demonstrate the feasibility of a CLIC-ready baseline design and to investigate alternatives which could bring even higher efficiency. This paper summarizes the high gradient test results from the NLCTA in support of this effort.