Difference between revisions of "CeC EIC Physics Meeting"

Revision as of 21:55, 20 May 2022

Meeting Goals

The CeC EIC meeting is the place where the CeC experiment, physics and design issue of the CeC-based EIC cooling effort are discussed.

Meeting Agenda

• 05/20/2022:
  • Requirements for CeC systems, by Y. Jing;
  • Tolerance on the Bunch-by-Bunch Energy Jitter for the CeC Experiment, by G. Wang;

• 05/18/2022:
  • CeC Physics, by J. Ma;

• 03/18/2022:
  • More Realistic Signal Suppression and Detection, by W. Bergan;

• 02/04/2022:
  • Some 3D effects in MBEC, by G. Stupakov;
  • Updates on 3D simulations for the CeC experiment, by J. Ma;

• 01/21/2022:
  • Slice Emittance Measurement on CeC Diagnostic Beamline, by K. Shih;

• 11/12/2021:
  • APEX on Recombination studies at LEReC, by D. Kayran;
  • Updates on 3D simulations for the CeC experiment, by J. Ma;

• 10/29/2021:
  • CSR and space charge impedance in MBEC for EIC, by G. Stupakov;
  • 1D vs 3D model for microbunched electron cooling, by P. Baxevanis;

• 10/15/2021:
  • 3D cooling with PCA μ bunching CeC, by V. Litvinenko;
  • Progress on EIC Strong Hadron Cooling, by E. Wang;

• 10/01/2021:
  • Updates on SPACE simulation of CeC experiment (50A, various waist), by J. Ma;
  • Benchmarking Impact-T and Parmela for CeC buncher voltage (updated), by K. Shih;

• 09/17/2021:
  • Updates on SPACE simulation of CeC experiment (50A), by J. Ma;
  • Benchmarking Impact-T and Parmela for CeC buncher voltage, by K. Shih;

• 08/27/2021:
  • Dependance of recombination rate on energy deviation of electrons, by G. Wang;

• 08/20/2021:
  • Simulation of traditional electron cooling for CeC experiment, by H. Zhao;
  • The puzzle of the large recombination peak widths measured during the CeC run, by P. Thieberger;
  • Simple model for the energy change for central slice, by V. Litvinenko;
  • Laser Imprint Study with Impact-T, by K. Shih;

• 08/13/2021:
  • eCooling time estimate for CeC experiment, by D. Kayran;
  • Sensitivity studies of PCA gain to e beam parameters, by J. Ma;

• 08/06/2021:
  • Cooling rate analysis (data analysis for run 21 CeC experiment), by K. Shih;
  • Influence of energy jitter (jitter with Gaussian distribution), by G. Wang;

• 07/30/2021:
  • Electron-ion longitudinal misalignment in CeC scheme, by S. Seletskiy;
  • Influence of energy jitter (tracking with wake from 3D simulation), by G. Wang;

• 07/23/2021:
  • Effect of energy jitter (analytical), by V. Litvinenko;
  • Influence of energy jitter (macro-particle tracking), by G. Wang;
  • Simulation of type 2 PCA for EIC (investigating emittance growth), by J. Ma;

• 07/16/2021:
  • Reflections on the bend-based CeC designs (with updates), by Y. Derbenev;
  • Simulation of type 2 PCA for EIC: single cell gain in FFT components, by J. Ma;
  • Study of microbunching instability in an EIC MBEC cooling system, by G. Stupakov;

• 07/02/2021:
  • Cooling decrement with painting, by V. Litvinenko;
  • Simulation of beam size dependence on common section solenoid with SPACE for PoP experiment, by J. Ma;
  • Simulation of type 2 PCA for EIC: influence of solenoid radius to emittance, by J. Ma;

• 06/25/2021:
  • Updates of 1-D PCA model, by G. Wang;
  • PCA amplifier and PCA with wigglers, by G. Stupakov;
  • Reflections on the bend-based CeC designs, by Y. Derbenev;

• 06/11/2021:
  • Coherent electron cooling experiment at RHIC, by V. Litvinenko;
  • EIC SHC design profress, by E. Wang;

• 06/04/2021:
  • MBEC/PCA Cooling time comparison, by W. Bergan;
  • Comments on May 14 presentation by Stupakov, by V. Litvinenko

• 05/14/2021:
  • Comparison of PCA and MBEC for EIC, by G. Stupakov;

• 05/07/2021:
  • CeC for EIC, by V. Litvinenko;
  • Preliminary Estimates for Cooling EIC with PCA Based CeC, by G. Wang;
  • CeC Physics (type I PCA simulation for EIC), by J. Ma;

• 04/30/2021:
  • EIC Strong Hadron Cooling, by E. Wang;

• 04/16/2021:
  • EIC Beam Parameters, by M. Blaskiewicz;

• 04/09/2021:
  • Updates on CeC Physics Meeting, by G. Wang;