PAC09 - List of Authors (Haenichen, L.)

A B C D E F G H I J K L M N O P Q R S T U V W X Y Z

Haenichen, L.

Paper	Title	Page
TH5PFP091	Comparison of Analytical and Numerical Results for Broadband Coupling Impedance	3420
	L. Haenichen, W.F.O. Müller, T. Weiland TEMF, TU Darmstadt, Darmstadt A.M. Al-Khateeb, O. Boine-Frankenheim GSI, Darmstadt
	Funding: This work is supported by the GSI. Beam coupling impedances have been identified as an appropriate quantity to describe collective instabilities caused through beam-induced fields in heavy ion synchrotron accelerators such as the SIS-18 at the planned SIS-100 at the GSI facility. The impedance contributions caused by the multiple types of beamline components need to be determined to serve as input condition for later stability studies. This paper will present an approach exploiting the abilities of commercial FDTD wake codes such as CST PARTICLE STUDIO® for a benchmark problem with cylindrical geometry. Since exact analytical formulae are available, the obtained numerical results will be compared. Special attention is paid towards the representation of the particle beam as the source of the EM fields and conductive losses.

Paper

Title

Page

TH5PFP091

Comparison of Analytical and Numerical Results for Broadband Coupling Impedance

3420

L. Haenichen, W.F.O. Müller, T. Weiland
TEMF, TU Darmstadt, Darmstadt
A.M. Al-Khateeb, O. Boine-Frankenheim
GSI, Darmstadt

Funding: This work is supported by the GSI.

Beam coupling impedances have been identified as an appropriate quantity to describe collective instabilities caused through beam-induced fields in heavy ion synchrotron accelerators such as the SIS-18 at the planned SIS-100 at the GSI facility. The impedance contributions caused by the multiple types of beamline components need to be determined to serve as input condition for later stability studies. This paper will present an approach exploiting the abilities of commercial FDTD wake codes such as CST PARTICLE STUDIO® for a benchmark problem with cylindrical geometry. Since exact analytical formulae are available, the obtained numerical results will be compared. Special attention is paid towards the representation of the particle beam as the source of the EM fields and conductive losses.