%0 Report
%A Citron, Z.
%A Dainese, A.
%A Grosse-Oetringhaus, J. F.
%A Jowett, J. M.
%A Lee, Y.-J.
%A Wiedemann, U. A.
%A Winn, M.
%A Andronic, A.
%A Bellini, F.
%A Bruna, E.
%A Chapon, E.
%A Dembinski, H.
%A d'Enterria, D.
%A Grabowska-Bold, I.
%A Innocenti, G. M.
%A Loizides, C.
%A Mohapatra, S.
%A Salgado, C. A.
%A Verweij, M.
%A Weber, M.
%A Aichelin, J.
%A Angerami, A.
%A Apolinario, L.
%A Arleo, F.
%A Armesto, N.
%A Arnaldi, R.
%A Arslandok, M.
%A Azzi, P.
%A Bailhache, R.
%A Bass, S. A.
%A Bedda, C.
%A Behera, N. K.
%A Bellwied, R.
%A Beraudo, A.
%A Bi, R.
%A Bierlich, C.
%A Blum, K.
%A Borissov, A.
%A Braun-Munzinger, P.
%A Bruce, R.
%A Bruno, G. E.
%A Bufalino, S.
%A Castillo Castellanos, J.
%A Chatterjee, R.
%A Chen, Y.
%A Chen, Z.
%A Cheshkov, C.
%A Chujo, T.
%A Conesa del Valle, Z.
%A Contreras Nuno, J. G.
%A Cunqueiro Mendez, L.
%A Dahms, T.
%A Dang, N. P.
%A De la Torre, H.
%A Dobrin, A. F.
%A Doenigus, B.
%A Van Doremalen, L.
%A Du, X.
%A Dubla, A.
%A Dumancic, M.
%A Dyndal, M.
%A Fabbietti, L.
%A Ferreiro, E. G.
%A Fionda, F.
%A Fleuret, F.
%A Floerchinger, S.
%A Giacalone, G.
%A Giammanco, A.
%A Gossiaux, P. B.
%A Graziani, G.
%A Greco, V.
%A Grelli, A.
%A Grosa, F.
%A Guilbaud, M.
%A Gunji, T.
%A Guzey, V.
%A Hadjidakis, C.
%A Hassani, S.
%A He, M.
%A Helenius, I.
%A Huo, P.
%A Jacobs, P. M.
%A Janus, P.
%A Jebramcik, M. A.
%A Jia, J.
%A Kalweit, A. P.
%A Kim, H.
%A Klasen, M.
%A Klein, S. R.
%A Klusek-Gawenda, M.
%A Kremer, J.
%A Krintiras, G. K.
%A Krizek, F.
%A Kryshen, E.
%A Kurkela, A.
%A Kusina, A.
%A Lansberg, J.-P.
%A Lea, R.
%A van Leeuwen, M.
%A Li, W.
%A Margutti, J.
%A Marin, A.
%A Marquet, C.
%A Martin Blanco, J.
%A Massacrier, L.
%A Mastroserio, A.
%A Maurice, E.
%A Mayer, C.
%A Mcginn, C.
%A Milhano, G.
%A Milov, A.
%A Minissale, V.
%A Mironov, C.
%A Mischke, A.
%A Mohammadi, N.
%A Mulders, M.
%A Murray, M.
%A Narain, M.
%A Di Nezza, P.
%A Nisati, A.
%A Noronha-Hostler, J.
%A Ohlson, A.
%A Okorokov, V.
%A Olness, F.
%A Paakkinen, P.
%A Pappalardo, L.
%A Park, J.
%A Paukkunen, H.
%A Peng, C. C.
%A Pereira Da Costa, H.
%A Perepelitsa, D. V.
%A Peresunko, D.
%A Peters, M.
%A Pettersson, N. E.
%A Piano, S.
%A Pierog, T.
%A Pires, J.
%A Płoskoń, M.
%A Plumari, S.
%A Prino, F.
%A Puccio, M.
%A Rapp, R.
%A Redlich, K.
%A Reygers, K.
%A Ristea, C. L.
%A Robbe, P.
%A Rossi, A.
%A Rustamov, A.
%A Rybar, M.
%A Schaumann, M.
%A Schenke, B.
%A Schienbein, I.
%A Schoeffel, L.
%A Selyuzhenkov, I.
%A Sickles, A. M.
%A Sievert, M.
%A Silva, P.
%A Song, T.
%A Spousta, M.
%A Stachel, J.
%A Steinberg, P.
%A Stocco, D.
%A Strickland, M.
%A Strikman, M.
%A Sun, J.
%A Tapia Takaki, D.
%A Tatar, K.
%A Terrevoli, C.
%A Timmins, A.
%A Trogolo, S.
%A Trzeciak, B.
%A Trzupek, A.
%A Ulrich, R.
%A Uras, A.
%A Venugopalan, R.
%A Vitev, I.
%A Vujanovic, G.
%A Wang, J.
%A Wang, T. W.
%A Xiao, R.
%A Xu, Y.
%A Zampolli, C.
%A Zanoli, H.
%A Zhou, M.
%A Zhou, Y.
%T Report from Working Group 5
%V 7
%N arXiv:1812.06772
%C Geneva
%I CERN
%M GSI-2020-00281
%M arXiv:1812.06772
%M CERN-LPCC-2018-07
%B CERN Yellow Reports: Monographs
%P 252 p.
%D 2019
%Z ccby4.0;DOI: 10.23731/CYRM-2019-007.1159 "Published by CERN under the Creative Common Attribution CC BY 4.0 Licence."
%X The future opportunities for high-density QCD studies with ion and proton beams at the LHC are presented. Four major scientific goals are identified: the characterisation of the macroscopic long wavelength Quark-Gluon Plasma (QGP) properties with unprecedented precision, the investigation of the microscopic parton dynamics underlying QGP properties, the development of a unified picture of particle production and QCD dynamics from small (pp) to large (nucleus-nucleus) systems, the exploration of parton densities in nuclei in a broad (x, Q<sup>2</sup>) kinematic range and the search for the possible onset of parton saturation. In order to address these scientific goals, high-luminosity Pb-Pb and p-Pb programmes are considered as priorities for Runs 3 and 4, complemented by high-multiplicity studies in pp collisions and a short run with oxygen ions. High-luminosity runs with intermediate-mass nuclei, for example Ar or Kr, are considered as an appealing case for extending the heavy-ion programme at the LHC beyond Run 4. The potential of the High-Energy LHC to probe QCD matter with newly-available observables, at twice larger center-of-mass energies than the LHC, is investigated.
%K p: beam (INSPIRE)
%K quantum chromodynamics: matter (INSPIRE)
%K parton: saturation (INSPIRE)
%K parton: density (INSPIRE)
%K quark gluon: plasma (INSPIRE)
%K oxygen: ion (INSPIRE)
%K p p: scattering (INSPIRE)
%K interpretation of experiments: CERN LHC Coll (INSPIRE)
%K heavy ion (INSPIRE)
%K nucleus (INSPIRE)
%K kinematics (INSPIRE)
%F PUB:(DE-HGF)3 ; PUB:(DE-HGF)29
%9 BookReport
%R 10.23731/CYRM-2019-007.1159
%U https://repository.gsi.de/record/225443