A Mathematica based Version of the CKMfitter Package

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76 Appendix E. User Guide E.3 Input Types An input datacard is an ASCII file containing the input values of all observables or parameters of the fit theory given as a list. Each element of this list is again a list, with a special syntax for each input type. For example the first element in each list is a string, which represents the label of the observable or parameter. Attention: Greek letters have to be written out, e. g. “delta“ for “δ“ or “Delta“ for “∆“. The inputs datacard needs to be located in the inputs subdirectory. Fixed Syntax: { “label“ , value } Example: { “delta“ , 0.0} Gauss Syntax: { “label“ , central value , gaussian error } Example: { “delta“ , 0.0 , 0.1 } Asymmetric Gauss Syntax: { “label“ , central value , pos. gaussian error , neg. gaussian error } Example: { “delta“ , 0.0 , +0.1 , -0.2 } Range Syntax: { “label“ , central value , 0 , pos. theoretical error } Example: { “delta“ , 0.0 , 0 , 0.1 } Gauss Range Syntax: { “label“ , central value , pos. gaussian error , pos. theoretical error } Example: { “delta“ , 0.0 , 0.1 , 0.1 } Asymmetric Gauss Range Syntax: { “label“ , c. value , neg. gauss. error , pos. gauss. error , theo. error} Example: { “delta“ , 0.0 , +0.1 , -0.2 , 0.1 } Look Up Table (LUT) Syntax: { “label“ , “file name“ } Example: { “delta“ , “delta ICHEP06.dat“ }
E.4. Theory Package Tutorial 77 Upper Limit Syntax: { “label“ , { pos. value } , number between 0 and 100 } Example: { “delta“ , { 0.4 } , 50 } Penalty Syntax: { “label“ , 0 , neg. } Example: { “delta“ , 0 , -0.1 } Short Cut Syntax: { “label“ , “label“ , “label“ , ... } Example: { “All(delta)“ , “x“ , “y“ , “z“ } E.4 Theory Package Tutorial During this work, a tutorial that describes the development of theory packages has been written. It explains in detail the structure and relevant commands of a theory package. It is provided as a PostScript document as well as a Mathematica notebook, named TheoryTutorial.nb. There is the possibility to use the notebook version as a template file to create a new theory package. In addition, a version in HTML format is currently available at: http://iktp.tu-dresden.de/ jantsch/CKMfitter/Tutorials/TheoryTutorial.html
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A Mathematica based Version of the
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Kurzfassung Das CKMfitter Software-
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vi CONTENTS 6 New Physics Beyond th
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viii LIST OF FIGURES B.6 Constraint
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x LIST OF TABLES
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2 Chapter 1. Introduction Unfortuna
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4 Chapter 2. Theory the bosons of t
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6 Chapter 2. Theory VCKM is a compl
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8 Chapter 2. Theory 2.4 Neutral Mes
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10 Chapter 2. Theory b u,c,t d 0 B
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12 Chapter 2. Theory CP violation i
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14 Chapter 3. CKMfitter The quantit
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16 Chapter 3. CKMfitter
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18 Chapter 4. A Mathematica based V
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Page 36 and 37: 26 Chapter 4. A Mathematica based V
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Page 40 and 41: 30 Chapter 5. Probing the Standard
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Page 68 and 69: 58 Chapter 7. Conclusions and Persp
Page 70 and 71: 60 Appendix A. The Inami-Lim Functi
Page 72 and 73: 62 Appendix B. Additional Figures o
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Page 76 and 77: 66 Appendix C. Testjob } globalMinS
Page 78 and 79: 68 Appendix D. Source Code else k =
Page 80 and 81: 70 Appendix D. Source Code do i = 1
Page 82 and 83: 72 Appendix E. User Guide E.2 Datac
Page 84 and 85: 74 Appendix E. User Guide scanMin T
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Page 108 and 109: 98 BIBLIOGRAPHY [12] L. Wolfenstein
Page 110 and 111: 100 BIBLIOGRAPHY [43] A. G. Akeroyd
Page 112 and 113: 102 BIBLIOGRAPHY [74] T. Inami and
Page 115: Erklärung Hiermit versichere ich,
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