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Measurement of t-channel single top-quark production in proton-proton collisions at a center-of-mass energy of 13 TeV using the full ATLAS Run 2 datas [...] / Joshua Reidelstürz. Wuppertal, February 2024
Inhalt
Contents
Theory
Quantum field theory
Fields and Local Gauge Symmetries
Beyond the Standard Model
Predictions with the Standard Model
Chiral Symmetry Breaking
Measurements of the Standard Model
Factorization of Hadronic Cross-Sections
Event Generation
Parton Shower Simulation
Hadronization Models
The Underlying Event and Pileup
Decays and Detector Simulation
Top Quark
Top Quark Decay
Single Top-Quark Production
W+jets Background Process
Other Background Processes
The Large Hadron Collider
ATLAS
Coordinate System
Inner Tracking Detector
Calorimeter System
Muon Spectrometer
Trigger System
Luminosity
LHC Run 2
Monte Carlo Samples
Signal Sample
Single Top Background
tbart Background
Boson processes
Multijet Background
Jet-Electron Method
Anti-Muon Method
Event Reconstruction
Particle tracks
Topological clusters
Jet algorithm
Jet Energy Scale
Electron Reconstruction
Muon reconstruction
Flavor-tagging of Jets
Missing transverse momentum
Overlap Removal
Event Selection
Preliminary Multijet Estimation
Multijet Background Control Regions
Reconstruction of the Top Quark
Neural Network
Input Variables
Training Quality
Uncertainties
Jet Uncertainties
Flavor Tagging Uncertainties
Missing Transverse Momentum
Lepton Uncertainties
Normalization Uncertainties
Modeling Uncertainties
Binned Maximum Likelihood Fit
Signal Parameter Parameterization
Fitted Distributions
Template smoothing
Symmetrization
Templates for Systematic Uncertainties
Binning
Validation of the Fit Procedure using Asimov Data
Results
Nuisance Parameters
Correlation of Fit Parameters
Stability of the Measurement
Analysis of Systematic Uncertainties
Mass Dependence
Goodness of Fit
|Vtb| Measurement
Conclusion
Neural network input variable distributions
Bibliography
Acknowledgments