PhD project: Development of a Ferrite-Loaded Accelerating Cavity CERN Supervisor: Dr.-Ing. Christine Völlinger TEMF Supervisor: Prof. Dr.-Ing. Harald Klingbeil.

Slides:



Advertisements
Similar presentations
Performance Limitations of the Booster Cavity Mohamed Hassan, Vyacheslav Yakovlev, John Reid.
Advertisements

RF Modeling efforts on Ion Source at SNS Sung-Woo Lee.
1 Fields and Signals in Coupled Coaxial and Cylindrical Cavities John C. Young Chalmers M. Butler Clemson University.
Method of beam extraction from a synchrotron by the instrumentality of multilayer Cu-Fe shield Bondarenko Alexey.
1 Design of Gridded-Tube Structures for the 805 MHz RF Cavity Department of Mechanical, Materials, and Aerospace Engineering M. Alsharoa (PhD candidate)
RF Cavity of CIS Xiaoying Pang Mar. 12 th, 2007 IUCF.
David Seebacher, AEC’09, CERN, Switzerland Impedance of Coatings.
Thin Films for Superconducting Cavities HZB. Outline Introduction to Superconducting Cavities The Quadrupole Resonator Commissioning Outlook 2.
Front-end amplifiers for the beam phase loops in the CERN PS Alessandro Meoli (CERN BE/RF/FB) Supervised by Heiko Damerau 21 April CERN.
Zenghai Li SLAC National Accelerator Laboratory LHC-CC13 CERN, December 9-11, 2013 HOM Coupler Optimization & RF Modeling.
Tracking Studies of Phase Rotation Using a Scaling FFAG Ajit Kurup FFAG07 12 th – 17 th April 2007.
Fermilab I. Terechkine1 RF Phase Shifter R&D Proton Driver Review March 15, 2005 T. Barrak, B. Foster, I. Gonin, M. Huening, V. Kashikhin, T. Khabiboulinne,
03-June-20131Christine Vollinger BE/RF The “Flat-Sample-Holder” (Flats) Method for Material Measurement Material parameters as relative permeability µ.
Peter Hülsmann, GSI RF-Group, Tel: Task SIS18-1: h=2 Cavity P. Hülsmann GSI, Gesellschaft für Schwerionenforschung.
SPECIALISED CYCLOTRON FOR BEAM THERAPY APPLICATION Yu. G. Alenitsky, A
Measurement Techniques and Application of Combined Parallel/Orthogonal Magnetic Bias on a Ferrite Tuned Resonator in Low Frequency Range (3-10 MHz) G.
RF Cavity Design with Superfish
704MHz Warm RF Cavity for LEReC Binping Xiao Collider-Accelerator Department, BNL July 8, 2015 LEReC Warm Cavity Review Meeting  July 8, 2015.
Tohoku university Daisuke Okamoto TILC09 1. Motivation 2. Principle 3. Design 4. Expected performance 5. Conclusion contents.
1.Institute For Research in Fundamental Science (IPM), Tehran, Iran 2.CERN, Geneva, Switzerland Mohsen Dayyani Kelisani Thermionic & RF Gun Simulations.
Very preliminary! E. Jensen, 29-May-08.  Present PS 10 MHz system:  10+1 cavities, 2 gaps/cavity, 10 kV/gap  2.7 … 10 MHz tuning range  longitudinal.
Building a Second Harmonic Radio Frequency Cavity for the Booster Maggie Lankford SIST Intern 2015 The College of Wooster 4 August 2015.
Status of the PSB impedance model C. Zannini and G. Rumolo Thanks to: E. Benedetto, N. Biancacci, E. Métral, N. Mounet, T. Rijoff, B. Salvant.
Updated status of the PSB impedance model C. Zannini and G. Rumolo Thanks to: E. Benedetto, N. Biancacci, E. Métral, B. Mikulec, N. Mounet, T. Rijoff,
KEK R&D for LHC Plan of 800MHz Cavity Calculation of 400MHz Cavity 16 th September 2009, LHC-CC09 at CERN K.Nakanishi.
Development of the Room Temperature CH-DTL in the frame of the HIPPI-CARE Project Gianluigi Clemente,
The selection of operating mode for 10MW L-band MBK with high efficiency Institute of Electronics, Chinese Academy of Sciences Beijing, China November.
2.1 GHz Warm RF Cavity for LEReC Binping Xiao Collider-Accelerator Department, BNL June 15, 2015 LEReC Warm Cavity Review Meeting  June 15, 2015.
Overview of Booster PIP II upgrades and plans C.Y. Tan for Proton Source group PIP II Collaboration Meeting 03 June 2014.
Group 6 / A RF Test and Properties of a Superconducting Cavity Mattia Checchin, Fabien Eozénou, Teresa Martinez de Alvaro, Szabina Mikulás, Jens Steckert.
2 nd harmonic RF perpendicular biased cavity update C.Y. Tan, W. Pellico, G. Romanov, R. Madrak, and D. Wildman 02 Apr 2014.
Christine Vollinger, Erk Jensen Material characterization for the 18 MHz to 40 MHz sweep-tuneable RF system Measurement support by Fritz Caspers.
CLIC workshop 2015 EXTRACTION KICKER STRIPLINE MEASUREMENTS C. Belver-Aguilar (IFIC) On behalf of: A. Faus-Golfe (IFIC), F. Toral (CIEMAT), M.J. Barnes.
Extraordinary Gas Loading For Surface Acoustic Wave Phononic Crystals Ben Ash Supervisors – G. R. Nash, P. Vukusic EPSRC Centre for Doctoral Training in.
9MHz LeRHIC Cavity Design Salvatore Polizzo RF Design Engineer May 16, 2014.
Status of work on the HOM coupler. 2 nd Harmonic cavity Meeting 11/II-2016 Thermal analyses with shims (Y.Terechkine). Gennady Romanov On behalf of Y.Terechkine.
Thermal losses with the latest Al800 data. Gennady Romanov 2 nd Harmonic cavity Meeting 4/VI-2015.
Performance Studies of a NOvA 53 MHz RF Cavity Frederic Jones 1 1 Stony Brook University, Stony Brook, NY Fermilab National Accelerator Laboratory,
Beam Diagnostics Seminar, Nov.05, 2009 Das Tune-Meßverfahren für das neue POSI am SIS-18 U. Rauch GSI - Strahldiagnose.
Status of the rt CH-cavity - Anja Seibel -. Outline CH-Cavity CH-Parameter Heat distribution Cooling concept Final CH-Cavity First measurement results.
State of ECR Plasma Test & Measurement of Ferrite Materials Permittivity Summer student meeting August 27, 2007 Ivan Pechenezhskiy, MIPT. Supervisor: Genfa.
TE-type Sample Host Cavity development at Cornell Yi Xie, Matthias Liepe Cornell University Yi Xie – TE cavity developments at Cornell, TFSRF12.
Midterm Review 28-29/05/2015 Progress on wire-based accelerating structure alignment Natalia Galindo Munoz RF-structure development meeting 13/04/2016.
IOTA RF SYSTEM Kermit Carlson 13 Nov 14. RF System Specifications 1 kV RF gap potential 30 MHz CW for electron run – Provide acceleration potential 30.
Ferrite measurements of Mu2e AC dipole Summer Student Meeting August 25, 2010 Student: Evgeny Bulushev, NSU Supervisor: George Velev, TD\Magnet Systems.
PhD project: Development of a Ferrite-Loaded Accelerating Cavity CERN Supervisor: Dr.-Ing. Christine Völlinger TEMF Supervisor: Prof. Dr.-Ing. Harald Klingbeil.
Experience with the ferrite tuner for LEB ( ) Slava Yakovlev 15/04/2016.
Developments of new treatment techniques for SRF cavities at KEK HORIZONTAL HPR FOR PERFORMANCE RECOVERY Yoshiyuki MORITA Motivation of developing HHPR.
704 MHz cavity design based on 704MHZ_v7.stp C. Pai
Designing a Continuous-Wave RF Cavity for Bunch Rotation in Support of Experiments Mu2e and g-2 Aaron Smith under the mentorship of Joseph Dey Accelerator.
325 MHz Superconducting Spoke Cavity Coupler status. T. Khabiboulline Power Coupler design for Superconducting Spoke cavities. Originally.
Complex Optical Modulation Volker Quetschke, Guido Mueller, David Reitze, David Tanner an extension of work done at UF for LIGO in 1997 by Qi-Ze Shu Department.
V. Bagnoud PHELIX, Plasma Physics department GSI Darmstadt
HIAF Electron Cooling System &
M. Migliorati, C. Vaccarezza INFN - LNF
Updated status of the PSB impedance model
10 MHz amplifier status G. Favia
CEPC injector high field S-band accelerating structure design and R&D
Update on PS Longitudinal Impedance Model
CEPC Input Coupler Discuss 6th IHEP-KEK SCRF Collaboration Meeting
Sathya Sai Seetharaman, Ian R. Hooper, William L. Barnes
Longitudinal Impedance Studies of VMTSA
Updated status of the PSB impedance model
Explanation of the Basic Principles and Goals
Physics Design on Injector I
Status of the EM simulations and modeling of ferrite loaded kickers
Multiphysics simulations of impedance effects in accelerators
EM Simulation of wakes in BSRT beampipe with extraction mirror
Parameters Changed in New MEIC Design
RF Parameters for New 2.2 km MEIC Design
Presentation transcript:

PhD project: Development of a Ferrite-Loaded Accelerating Cavity CERN Supervisor: Dr.-Ing. Christine Völlinger TEMF Supervisor: Prof. Dr.-Ing. Harald Klingbeil From Ferrite Characterization to Preliminary Design of Ferrite Loaded Accelerating Cavity Johannes Eberhardt CERN, Beams Department / TU Darmstadt, TEMF Institute

29th of April Motivation: Ferrite Loaded Accelerating Cavity ▪Idea: Same RF system to accelerate different types of particles → Accelerating Cavity with frequency swing 18 – 40 MHz ▪Cavity design with electromagnetic simulation program → Relative permeability and losses of ferrite as input for simulations Ferrite Cavity

Introduction – How does an accelerating cavity work? accelerating gap beam pipe cylindrical structure E RF H RF λ/4 29th of April

Introduction – Why Ferrite Loaded? ferrite ring 29th of April

Introduction – Relative Permeability Depends on: RF frequency 29th of April

Introduction – Lessons learned Sample 1 Sample 2 Sample 3 Depends on: RF frequency Magnetic bias history Temperature Location in ferrite Bias field orientation Dispersive characteristics Random – degaussed Room temperature Average over volume Perpendicular to RF magnetic field 29th of April

B /mT Reflection Measurement µ’(f res ) Resonant Measurement f res /MHz Q total EigenmodeSimulation f res /MHz d fres /% CalculateQ Q From Ferrite Characterisation to FLC 1-Port Reflection Measurement Resonant Measurement Simulation of Resonant Measurement 29th of April

Reflection Measurement I bias B bias B /mT Reflection Measurement µ’(f res ) Resonant Measurement f res /MHz Q total EigenmodeSimulation f res /MHz d fres /% CalculateQ Q 29th of April

Reflection Measurement B /mT Reflection Measurement µ’(f res ) Resonant Measurement f res /MHz Q total EigenmodeSimulation f res /MHz d fres /% CalculateQ Q 29th of April

Resonant Measurement B /mT Reflection Measurement µ’(f res ) Resonant Measurement f res /MHz Q total EigenmodeSimulation f res /MHz d fres /% CalculateQ Q th of April

Numerical Simulation Results Ferrite ring Teflon foil Inner conductor Outer conductor B /mT Reflection Measurement µ’(f res ) Resonant Measurement f res /MHz Q total EigenmodeSimulation f res /MHz d fres /% CalculateQ Q th of April

Numerical Simulation Results 29th of April

Numerical Simulation Results 29th of April

Preliminary Design of FLC 18 – 40MHz Simulation InputSimulation Results for V acc =1kV µ’(f res ) f res /MHz R/Q/ΩP/W Ferrite stack Beam pipe Accelerating gap Example V acc /kVP/kW mm 29th of April

Conclusion and Outlook ▪Measurement of relative permeability and losses of ferrite material ▪Simulation model of resonant measurements setup ▪Preliminary design of ferrite loaded accelerating cavity ▪Influence of non-uniform µ’ has to be analysed ▪RF power measurements have to be done ▪FLC model will be further elaborated 29th of April

Thank you for your attention! 29th of April

14th of March 2014 | Johannes Eberhardt | 17 Preliminary Design

14th of March 2014 | Johannes Eberhardt | 17 Resonant Measurement B /mT Reflection Measurement µ’(f res ) Resonant Measurement f res /MHz Q total EigenmodeSimulation f res /MHz d fres /% ExaminedQ ferr Q