Alexander Kalimov, State Polytechnic University, St.-Petersburg

Slides:

Advertisements

Similar presentations

D2 conceptual design and field quality optimization Ramesh Gupta, BNL Slide No. 1 Nov. 13, 2013 D2 Conceptual Design and Field Quality.

Advertisements

HL-LHC Corrector Magnet 3D design status Giovanni Volpini on behalf of the LASA team CERN, February 25, 2014.

Magnets for the ESRF upgrade phase II

Quadrupole Magnetic Design for an Electron Ion Collider Paul Brindza May 19, 2008.

IR Magnets for SuperKEKB KEK, Norihito Ohuchi 1.IR Magnets (ES, QCS, QC1) 2.Interference between Magnet-Cryostats and Belle 3.Summary SuperB.WS05.Hawaii.

Hybrid QD0 Studies M. Modena CERN Acknowledgments: CERN TE-MSC CLIC Magnets Study Team: A.Aloev, E. Solodko, P.Thonet, A.Vorozhtsov “CLIC/ILC QD0” Meeting.

BROOKHAVEN SCIENCE ASSOCIATES Abstract Magnetic Specifications and Tolerances Weiming Guo, NSLS-II Project In this presentation I briefly introduced the.

, GSI DarmstadtDavid Boutin, JLU Giessen DIRACsecondary Beams Report on Ion-optical design studies and application Task 9 – NUSTAR 4 Participants:

1 M. Modena for the CLIC MDI magnet study Team (A. Aloev, P. Thonet, E. Solodko, A. Vorozhtsov) CLIC MDI Meeting,16 January 2015.

Magnet designs for Super-FRS and CR

Task7: NUSTAR2 - Design and Prototype Construction of a Radiation-Resistant Magnet C. Mühle GSI Task leader: G. Moritz /GSI.

Author CERN – Geneva – CH Jacques.Dutour 14th International Magnetic Measurement Workshop September 2005, Geneva, Switzerland 1 / 16 MQW magnets:

M. Modena, A. Aloev CERN, Geneva, CH “An alternative Super-ferric design for ILC QD0” “LCWS14, 6-10 October 2014 Belgrade.

Permanent Magnet Quadrupoles for the CLIC Drive Beam Jim Clarke, Norbert Collomb, Neil Marks, James Richmond, and Ben Shepherd STFC Daresbury Laboratory,

Task7: NUSTAR2 - Design and Prototype Construction of a Radiation-Resistant Magnet C. Mühle GSI Task leader: G. Moritz /GSI.

Orbit Correctors in D2 and Q4 Update J. Rysti and E. Todesco 1 4/11/2014.

Consolidation of the Booster Injection Quadrupole Magnets (part 2) A. Aloev 14 th February 2013.

Magnetic field measurement of new "QM7R" (TOKIN 3581) 12/16/2008 Mika Masuzawa.

CLIC Stabilisation Day’08 18 th March 2008 Thomas Zickler AT/MCS/MNC/tz 1 CLIC Quadrupoles Th. Zickler CERN.

Correctors magnets V. Zubko, IHEP, Protvino SIS 300 Pre-consortium Meeting Thursday 19 March 2009, Protvino.

SC Quadrupole Discussion Chris Adolphsen. Comments from Fernando Toral on SC Development for XFEL and ILC.

ILC Main Linac Superconducting Quadrupole V. Kashikhin for Superconducting Magnet Team.

DESIGN STUDIES IR Magnet Design P. Wanderer LARP Collaboration Meeting April 27, 2006.

"Static" steering correction on the DB Quadrupoles Alexey Vorozhtsov 14 Dec 2010.

Super Fragment Separator (Super-FRS) Machine and Magnets H. Leibrock, GSI Darmstadt Review on Cryogenics, February 27th, 2012, GSI Darmstadt.

Linac4 MAC 29 th January 2008 Thomas Zickler AT/MCS/MNC/tz 1 Magnets for Linac4 Th. Zickler CERN Linac4 Machine Advisory Committee 28 th - 30 th January.

Practical aspects of small aperture quadrupoles Dr Ben Leigh Tesla Engineering Ltd.

IR Magnets for Muon Collider Alexander Zlobin and Vadim Kashikhin Muon Collider Physics Workshop, Fermilab November 12, 2009.

HL-LHC Meeting, November 2013D2 Status and Plans – G. Sabbi 1 D2 Conceptual Design Status and Next Steps G. Sabbi, X. Wang High Luminosity LHC Annual Meeting.

FNAL Workshop, July 19, 2007 ILC Main Linac Superconducting Quadrupole V.Kashikhin 1 ILC Main Linac Superconducting Quadrupole (ILC HGQ1) V. Kashikhin.

April 17, Dejan TrbojevicFFAG07 -Non-Scaling FFAG gantries1 Non-Scaling FFAG Gantries Introduction: Motives: The most challenging problem in the carbon/proton.

beam delivery with SC magnets

September 27, 2007 ILC Main Linac - KOF 1 ILC Main Linac Superconducting Quadrupole V. Kashikhin for Magnet group.

Yingshun Zhu Design of Small Aperture Quadrupole Magnet for HEPS-TF

GSI Helmholtzzentrum für Schwerionenforschung GmbH Super-FRS multiplet field.

GSI Helmholtzzentrum für Schwerionenforschung GmbH Super-FRS magnet configurations.

GSI, 22-January-2009 P.Vobly, Superconducting quadrupole design. Conceptual Design Study of a Superconducting Quadrupole for FAIR Multiplets Budker Institute.

Design ideas for a cos(2q) magnet

Halbach magnets and correctors for the C and eRHIC projects

Super-FRS Lattice with Cos  multipoles

One plane dipole corrector for the CLIC MBQ TYPE 1

Interaction Region and Detector

High Gradient Magnet Design for SPring-8 Upgrade Plan

Test of a Permanent Magnet Quadrupole Placed in a Dipole Field

6th BINP-FAIR-GSI Workshop,

Preliminary Design of High Precision Small Aperture Magnets for BAPS

Preliminary Magnetic Analysis of the CCT Magnet for HL-LHC

Development of the Canted Cosine Theta Superconducting Magnet

HL-LHC Corrector Magnet Design & Construction Activity Status

CHEN, Fusan KANG, Wen November 5, 2017

Magnets for the ESRF upgrade phase II

Main magnets for PERLE Test Facility

Pierre-Alexandre Thonet

Yingshun Zhu Accelerator Center, Magnet Group

Beam dynamics of Super-FRS and MM requirements

SCU Next Phase Meeting July 8, 2014.

Conceptual design of superconducting correctors for Hi-Lumi Project

MQYY: superconducting Quadrupole magnet for Hl-lhc

PERMANENT MAGNET QUADRUPOLE FOR THE LINAC 4 CCDTL

III. Correction Dipoles MDG Accessories for all Magnets V. Summary

High Precision Magnet Production for NSLSII at IHEP

Design of Nb3Sn IR quadrupoles with apertures larger than 120 mm

FNAL Superconducting Quadrupole Test

Conceptual design of superconducting correctors for Hi-Lumi Project (v2) F. Toral - CIEMAT CIEMAT, March 7th, 2013.

Design of Nb3Sn IR quadrupoles with apertures larger than 120 mm

J. García, F. Toral (CIEMAT) P. Fessia (CERN)

CEPC Collider Magnets CHEN, Fusan November 13, 2018.

CEPC Final Focus Superconducting Quadrupole and Anti-solenoid Magnets

Proposal for quadrupole families

Presentation transcript:

Alexander Kalimov, State Polytechnic University, St.-Petersburg 3D Properties of cos-theta Quadrupole in Comparison to Superferric Quadrupole Alexander Kalimov, State Polytechnic University, St.-Petersburg January 2009

Main requirements A.Kalimov, GSI, 22 January 2009

2D design of the cos-theta magnet A.Kalimov, GSI, 22 January 2009

Field characteristics (2D) Magnetic field along the line r=375 mm, dB/dr = 5 T/m Field harmonics in the aperture (r=200 mm) A.Kalimov, GSI, 22 January 2009

3D model of the cos-theta magnet A.Kalimov, GSI, 22 January 2009

Integral field quality Field harmonics 2D 3D Corrected 3D Integral field quality A.Kalimov, GSI, 22 January 2009

Field characteristics Field integrals along r = 190 mm Field along z-axis A.Kalimov, GSI, 22 January 2009

Cross section of the superferric magnet A.Kalimov, GSI, 22 January 2009

Field quality (2D) A.Kalimov, GSI, 22 January 2009

Field harmonics A.Kalimov, GSI, 22 January 2009

Quadrupole magnet with 12-pole corrector 12-pole corrector improves the field quality at high gradients A.Kalimov, GSI, 22 January 2009

3D model of the superferric magnet A.Kalimov, GSI, 22 January 2009

Integral field quality (1.2 m) Integral field quality satisfy requirements only For dB/dr < 8 T/m A.Kalimov, GSI, 22 January 2009

Required accuracy of the coil positioning Tolerances Required accuracy of the coil positioning is about ± 1mm A.Kalimov, GSI, 22 January 2009

Mutual influence of the magnets Distance between yokes > 250 mm A.Kalimov, GSI, 22 January 2009

Summary 1. Both concepts of the SuperFRS quadrupoles – cos-theta and superferric are in principle acceptable. 2. Advantages of the cos-theta magnet: High field quality, week saturation effects; Correction 12-pole coils are not necessary; Possibility to combine several magnets inside the same yoke; Smaller outer diameter and total weight. 3. Advantages of the superferric magnet Simple coils; Requirements to tolerances are not so strong (~±1mm for coils); Quickly decreasing fringing fields, the magnet is shorter. A.Kalimov, GSI, 22 January 2009