A detector for CLIC: main parameters and performance

Dominik Arominski; Jean-Jacques Blaising; Erica Brondolin; Dominik Dannheim; Konrad Elsener; Frank Gaede; Ignacio García-García; Steven Green; Daniel Hynds; Emilia Leogrande; Lucie Linssen; John Marshall; Nikiforos Nikiforou; Andreas Nürnberg; Estel Perez-Codina; Marko Petrič; Florian Pitters; Aidan Robson; Philipp Roloff; André Sailer; Ulrike Schnoor; Frank Simon; Rosa Simoniello; Simon Spannagel; Rickard Ström; Oleksandr Viazlo; Matthias Weber; Boruo Xu

arXiv · 1812.07337

A detector for CLIC: main parameters and performance

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Abstract

Together with the recent CLIC detector model CLICdet a new software suite was introduced for the simulation and reconstruction of events in this detector. This note gives a brief introduction to CLICdet and describes the CLIC experimental conditions at 380 GeV and 3 TeV, including beam-induced backgrounds. The simulation and reconstruction tools are introduced, and the physics performance obtained is described in terms of single particles, particles in jets, jet energy resolution and flavour tagging. The performance of the very forward electromagnetic calorimeters is also discussed.

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Dominik Arominski, Jean-Jacques Blaising, Erica Brondolin, Dominik Dannheim, Konrad Elsener, Frank Gaede, Ignacio García-García, Steven Green, Daniel Hynds, Emilia Leogrande, Lucie Linssen, John Marshall, Nikiforos Nikiforou, Andreas Nürnberg, Estel Perez-Codina, Marko Petrič, Florian Pitters, Aidan Robson, Philipp Roloff, André Sailer, Ulrike Schnoor, Frank Simon, Rosa Simoniello, Simon Spannagel, Rickard Ström, Oleksandr Viazlo, Matthias Weber, Boruo Xu. 2018-12-18. A detector for CLIC: main parameters and performance. https://arxiv.org/abs/1812.07337

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