Multiple Coulomb Scattering of muons in Lithium Hydride
- Bogomilov, M.
- Tsenov, R.
- Vankova-Kirilova, G.
- Song, Y.P.
- Tang, J.Y.
- Li, Z.H.
- Bertoni, R.
- Bonesini, M.
- Chignoli, F.
- Mazza, R.
- Palladino, V.
- de Bari, A.
- Orestano, D.
- Tortora, L.
- Kuno, Y.
- Sakamoto, H.
- Sato, A.
- Ishimoto, S.
- Chung, M.
- Sung, C.K.
- Filthaut, F.
- Fedorov, M.
- Jokovic, D.
- Maletic, D.
- Savic, M.
- Jovancevic, N.
- Nikolov, J.
- Vretenar, M.
- Ramberger, S.
- Asfandiyarov, R.
- Blondel, A.
- Drielsma, F.
- Karadzhov, Y.
- Charnley, G.
- Collomb, N.
- Dumbell, K.
- Gallagher, A.
- Grant, A.
- Griffiths, S.
- Hartnett, T.
- Martlew, B.
- Moss, A.
- Muir, A.
- Mullacrane, I.
- Oates, A.
- Owens, P.
- Stokes, G.
- Warburton, P.
- White, C.
- Adams, D.
- Bayliss, V.
- Boehm, J.
- Bradshaw, T.W.
- Brown, C.
- Courthold, M.
- Govans, J.
- Hills, M.
- Lagrange, J.-B.
- Macwaters, C.
- Nichols, A.
- Preece, R.
- Ricciardi, S.
- Rogers, C.
- Stanley, T.
- Tarrant, J.
- Tucker, M.
- Watson, S.
- Wilson, A.
- Bayes, R.
- Nugent, J.C.
- Soler, F.J.P.
- Gamet, R.
- Cooke, P.
- Blackmore, V.J.
- Colling, D.
- Dobbs, A.
- Dornan, P.
- Franchini, P.
- Hunt, C.
- Jurj, P.B.
- Kurup, A.
- Long, K.
- Martyniak, J.
- Middleton, S.
- Pasternak, J.
- Uchida, M.A.
- Cobb, J.H.
- Booth, C.N.
- Hodgson, P.
- Langlands, J.
- Overton, E.
- Pec, V.
- Smith, P.J.
- Wilbur, S.
- Chatzitheodoridis, G.T.
- Dick, A.J.
- Ronald, K.
- Whyte, C.G.
- Young, A.R.
- Boyd, S.
- Greis, J.R.
- Greishring, J.R.
- Lord, T.
- Pidcott, C.
- Taylor, I.
- Ellis, M.
- Gardener, R.B.S.
- Kyberd, P.
- Nebrensky, J.J.
- Palmer, M.
- Witte, H.
- Adey, D.
- Bross, A.D.
- Bowring, D.
- Hanlet, P.
- Liu, A.
- Neuffer, D.
- Popovic, M.
- Rubinov, P.
- DeMello, A.
- Gourlay, S.
- Lambert, A.
- Li, D.
- Luo, T.
- Prestemon, S.
- Virostek, S.
- Freemire, B.
- Kaplan, D.M.
- Mohayai, T.A.
- Rajaram, D.
- Snopok, P.
- Torun, Y.
- Cremaldi, L.M.
- Sanders, D.A.
- Summers, D.J.
- Coney, L.R.
- Hanson, G.G.
- Heidt, C.
DOIAbstract
Multiple Coulomb scattering (MCS) is a well-known phenomenon occurring when charged particles traverse materials. Measurements of muons traversing low Z materials made in the MuScat experiment showed that theoretical models and simulation codes, such as geant4 (v7.0), over-estimated the scattering. The Muon Ionization Cooling Experiment (MICE) measured the cooling of a muon beam traversing a liquid hydrogen or lithium hydride (LiH) energy absorber as part of a programme to develop muon accelerator facilities, such as a neutrino factory or a muon collider. The energy loss and MCS that occur in the absorber material are competing effects that alter the performance of the cooling channel. Therefore measurements of MCS are required in order to ...
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