10 likes | 163 Views
EuroPol: Polarisation Observables in Hadron Physics. Participants: Bonn, Germany Edinburgh, UK Frascati, Italy Giessen, Germany Glasgow, UK Lund Sweden Mainz, Germany Pavia, Italy Torino, Italy Dubna, Russia Jefferson Lab., USA Kharkov, Ukraine Yerevan, Armenia
E N D
EuroPol:Polarisation Observables in Hadron Physics Participants: Bonn, Germany Edinburgh, UK Frascati, Italy Giessen, Germany Glasgow, UK Lund Sweden Mainz, Germany Pavia, Italy Torino, Italy Dubna, Russia Jefferson Lab., USA Kharkov, Ukraine Yerevan, Armenia EM-probe studies of hadronic structure & physics beyond SM: pol. beams, targets,hadron polarimeters Objectives: Identify polarisation-observable combinations suited to particular hadronic-structure puzzles. Design & test experimental techniques Develop computational models Explore applications in dosimetry & industry Topics: Complete pseudo-scaler meson measurements Electron & photon beam polarimetry & detector development Nucleon polarimetry for nucleon time-like form factors Recoil-nucleon polarimeters for photoproduction experiments Double polarisation measurements of nucleon space-like form factors Polarised 3He neutron targets Deuteron polarimetry to access electric dipole moment components A coherent framework for modelling hadronic interactions in matter Applications of hadronic-interaction models Facilities: DAFNE, LNF Frascati ELSA, Bonn MAMI-C, Mainz MAX-lab, Lund TJNAF, Newport News Spokesperson & Contact J.R.M. Annand (Glasgow) email: j.annand@physics.gla.ac.uk The MAX accelerator: Injector and 3 Acceleration & Storage Rings. MAX-II and MAX-III deliver UV-X synchrotron light for a broad range of studies in physics, chemistry and biology. MAX-I stretches a 250 MeV pulsed electron beam to deliver around 70% duty cyle for the tagged-photon spectrometers. The new tagged-photon facility will be completed and commissioned by the end of 2004. The MAX accelerator: Injector and 3 Acceleration & Storage Rings. MAX-II and MAX-III deliver UV-X synchrotron light for a broad range of studies in physics, chemistry and biology. MAX-I stretches a 250 MeV pulsed electron beam to deliver around 70% duty cyle for the tagged-photon spectrometers. The new tagged-photon facility will be completed and commissioned by the end of 2004.