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Kickelbick, Dirk: The energy spectrum of primary cosmic rays measured with the KASCADE-Grande experimentThe Die Messung des Energiespektrums der primären kosmischen Strahlung mit dem KASCADE-Grande-Experiment. 2008
Inhalt
Abstract
Contents
1 Introduction
2 Cosmic rays
2.1 Energy spectrum of the cosmic rays
2.2 The composition of cosmic rays
2.3 Acceleration and propagation of cosmic rays
2.4 The origin of the knee
2.5 Extensive air showers
3 The KASCADE-Grande experiment
3.1 The KASCADE detector array
3.1.1 The e/ detector
3.1.2 The detector
3.1.3 The FADC system
3.1.4 Data acquisition
3.2 The central detector
3.2.1 Hadron calorimeter
3.2.2 The muon chamber system and trigger plane
3.2.3 Top cluster and top layer
3.3 The muon tracking detector
3.4 The Grande array
3.5 The Piccolo array
3.6 Central data acquisition
4 Reconstruction and simulation of extensive air showers
4.1 Reconstruction of extensive air showers in KASCADE-Grande
4.2 Simulation of extensive air showers for KASCADE-Grande
5 Data sample selection
5.1 Quality cuts
5.2 Trigger and reconstruction efficiency
5.3 Summary
6 Constant intensity method and corrected shower size spectra
6.1 Constant intensity method
6.1.1 Shower size spectra
6.1.2 Constant intensity cuts
6.1.3 Attenuation curves
6.2 Corrected shower size spectra
6.3 Summary
7 Subsample selection and energy conversion
7.1 Shower fluctuations and composition dependence
7.2 Subsample cuts
7.3 Energy conversion
7.4 Summary
8 All particle primary energy spectrum
8.1 Energy calibration function
8.2 Study of systematic uncertainties
8.2.1 Influence of the uncertainty in the shower core position reconstruction
8.2.2 Influence of the precision in the arrival direction reconstruction
8.2.3 Influence of the precision of the reconstructed number of charged particles
8.2.4 Influence of the uncertainties of the various applied fits
8.2.5 Influence of the primary composition
8.2.6 Influence of the shower fluctuations
8.2.7 Overall systematic error
8.3 Summary
9 Summary and conclusions
A Number of charged particles determined by applying the constant intensity method
B Error propagation when using the constant intensity method
C Result of the application of the constant intensity method
C.1 Results of the attenuation curve fits
C.2 Resulting shower size spectra using reference angle 0
C.3 Comparing the corrected shower size spectra for the reference angles 0 and 21
C.4 Corrected shower size spectra
D Examination of the shower fluctuations
D.1 Fluctuations of the number of charged particles for hydrogen induced showers
D.2 Fluctuations of the number of charged particles for iron induced showers
D.3 Fluctuations of the number of muons for hydrogen induced showers
D.4 Fluctuations of the number of muons for iron induced showers
D.5 Summary of the fluctuations for hydrogen induced showers
E Examination of the energy conversion
E.1 Influence of standard quality cuts on the event distribution over the KASCADE-Grande array
E.2 Distributions of the muon number as a function of the primary energy
E.3 Profile plots for the energy conversion using standard cuts
E.4 Comparing results using subsample cuts with results using standard quality cuts
F Energy spectrum with systematics
List of Figures
List of Tables
List of Acronyms
Bibliography
Danksagung