This open access book introduces graduate students with some collider phenomenology expertise to the rapidly advancing field of jet substructure physics. The second edition improves the presentation of theoretical topics, including soft factorization, and offers updates on novel jet substructure algorithms, tools, and recent experimental findings. Additionally, it introduces the Lund jet plane, a new substructure tool with diverse applications, in a dedicated chapter covering its theoretical properties, use in jet tagging, and related experimental results. The notes start with a phenomenological rationale for the importance of studying jets and their substructure at the LHC. They provide concise introductions to QCD and hadron-collider phenomenology. The concept of jets, constructed using sequential recombination algorithms, is introduced, along with relevant experimental aspects. The notes then delve into the multi-scale nature of jet substructure calculations and discuss the foundations of these calculations for basic jet quantities.
Readers then explore jet substructure concepts, tools, and analytical calculations. The book concludes with a review of LHC searches, summarizing insights and outlining future directions
This open access book introduces graduate students with some collider phenomenology expertise to the rapidly advancing field of jet substructure physics. The second edition improves the presentation of theoretical topics, including soft factorization, and offers updates on novel jet substructure algorithms, tools, and recent experimental findings. Additionally, it introduces the Lund jet plane, a new substructure tool with diverse applications, in a dedicated chapter covering its theoretical properties, use in jet tagging, and related experimental results. The notes start with a phenomenological rationale for the importance of studying jets and their substructure at the LHC. They provide concise introductions to QCD and hadron-collider phenomenology. The concept of jets, constructed using sequential recombination algorithms, is introduced, along with relevant experimental aspects. The notes then delve into the multi-scale nature of jet substructure calculations and discuss the foundations of these calculations for basic jet quantities.
Readers then explore jet substructure concepts, tools, and analytical calculations. The book concludes with a review of LHC searches, summarizing insights and outlining future directions
Produktdetaljer
Biografisk notat
Simone Marzani is an associate professor of theoretical physics at the Department of Physics of the University of Genova (Italy), where he conducts research on jet substructure, QCD resummation techniques, and the theoretical understanding of hadronic final states.
Michael Spannowsky is a professor of theoretical particle physics at the Karlsruhe Institute of Technology (Germany), where he is affiliated with the Institute of Theoretical Physics. His research is focussed on collider phenomenology, searches for physics beyond the Standard Model, and the development of innovative analysis strategies to enhance discovery potential at the LHC.
Gregory Soyez is a senior theoretical physicist at the Institut de Physique Théorique, Saclay (France), where he works on perturbative QCD, jet algorithms, and jet substructure. He is well known for contributions to both the conceptual and computational frameworks used to analyse jets in high-energy collider experiments.