Differences between revisions 34 and 35
Revision 34 as of 2010-10-21 14:52:11
Size: 2801
Comment:
Revision 35 as of 2011-07-19 17:40:45
Size: 2958
Editor: YoshiUchida
Comment:
Deletions are marked like this. Additions are marked like this.
Line 10: Line 10:
 * [[http://www.cclrc.ac.uk/Activity/DL|Daresbury Laboratory]]
 * [[http://www.imperial.ac.uk/research/hep/research/T2K.htm|Imperial College London]]
==== University Groups ====
 * [[http://www.imperial.ac.uk/research/hep/research/T2K.htm|Imperial College  London]]
Line 16: Line 16:
 * [[http://www.cclrc.ac.uk/Activity/RAL|Rutherford Appleton Laboratory]]
Line 18: Line 17:
 * [[http://www2.warwick.ac.uk/fac/sci/physics/research/epp/exp/t2k|Warwick University]]  * [[http://www2.warwick.ac.uk/fac/sci/physics/research/epp/exp/t2k|Warwick University]]
==== STFC National Laboratories ====
 * [[http://www.dl.ac.uk/DL/index.html|Daresbury Laboratory]]
 * [[http://www.stfc.ac.uk/About+STFC/48.aspx|Rutherford Appleton Laboratory]]
Line 28: Line 30:

=== Results and Publications ===

==== First �,,e,, Appearance Result ====

The Tokai-to-Kamioka Neutrino Oscillation Experiment

(The Internal T2KUK Page | Collaborators can Edit this page)

T2KUK Home Page

T2KOverview.png

UK Collaborating Institutes

University Groups

STFC National Laboratories

The T2K Experiment

  • The T2K project, began data-taking in 2009, and has the primary goal of measuring for the first time a third type of neutrino mixing (related to the parameter theta13), which would result in the appearance of electron-type neutrinos from a beam of muon-type neutrinos after they have travelled 295 km across Japan.

    T2K is the first of the “next generation” of oscillation experiment designed with very high intensity neutrino beams. The T2K “far detector” is the tried-and-tested Super-Kamiokande 50kt water Cherenkov detector, and the beam is optimised to enhance the oscillation signal and to suit the energies at which Super-Kamiokande can best measure the incoming neutrino type and energy.

    Both the beam and the way its neutrinos interact with water must be very well understood for an oscillation discovery to be made, and a “near detector” will be positioned a few hundred metres from the beam origin to make measurements on the beam before it starts oscillating.

Results and Publications

First �,,e,, Appearance Result

UK Involvement in T2K

  • Near Detector Electromagnetic Calorimeters
  • J-PARC Proton Beam Target and Beamline Design
  • Near Detector Electronics and Data Acquisition
  • Photosensor Studies
  • Physics Studies and Offline Software

Proposal Documents

T2KUKPublicPage (last edited 2011-07-19 18:28:24 by YoshiUchida)