Robin_PHD/thesis.tex
2010-05-30 18:14:47 +01:00

147 lines
3.7 KiB
TeX

\documentclass[a4paper,10pt]{book}
\usepackage{graphicx}
\usepackage{fancyhdr}
\usepackage{tikz}
\usepackage{amsfonts,amsmath,amsthm}
\usepackage{algorithm}
\usepackage{algorithmic}
\input{style}
%\usepackage{hyperref}
\begin{document}
\pagestyle{fancy}
\input{titlepage/titlepage}
\clearpage
\rhead{{\small\bf Failure Mode Modular De-Composition}}
\rfoot{{\small\bf PhD Thesis : R.P. Clark } }
% Contents
% --------
\pagenumbering{roman} % Lower case roman page numbers
\cfoot{Page \thepage} % Contents page numbers centred
\clearpage
%\input{colophon/colophon}
\clearpage
\tableofcontents
\listoffigures
\listoftables
%
\cleardoublepage
% Main text
% ---------
%
%\middlefoot{ } \outerfoot{{Page \bf\thepage}} % Body of manual has bolded page
% numbers at outer edges
\pagenumbering{arabic} % Arabic page numbers hereafter
%\begin{document}
\typeout{>>--------------------->> introduction}
\chapter{Thesis Scope}
\input{introduction/introduction}
\chapter{An overview of European and North Americans Standards}
\input{standards/standards}
\chapter{Statistical Methods and Models}
\input{statistics/statistics}
\chapter{Survey of Safety Critical Analysis Methodologies and Tools Available}
\input{survey/survey}
\typeout{ ---------------- Component Failure Modes Definition }
\chapter { Component Failure Modes Definition}
\input{component_failure_modes_definition/component_failure_modes_definition}
\typeout{ ---------------- Propositional Logic Diagrams}
\chapter {Propositional Logic Diagrams}
\input{logic_diagram/logic_diagram}
\typeout{ ---------------- Electronic Components as PLDs}
\chapter {Common Electronic Components as PLDs}
\input {components_as_plds/components_as_plds}
\typeout{ ---------------- Software as PLDs}
\chapter {Software as PLDs}
\input{sw_as_plds/sw_as_plds}
\typeout{ ---------------- Mechanical Sub-systems as PLDs}
\chapter {Common Mechanical Sub-systems as PLDs}
%\input{mech_as_plds/mech_as_plds}
\typeout{ ---------------- Symptom Extraction }
\chapter {Symptom Extraction }
\input{symptom_abstraction/symptom_abstraction}
\chapter{Failure Mode Modular De-Composition}
%\input{fmmd/fmmd}
\chapter{A Formal Description of FMMD}
\input{fmmdset/fmmdset}
\chapter{FMMD component to module level example : PT100 4 wire Temperature Sensor}
\typeout{ ---------------- pt100}
\input{pt100/pt100}
\chapter{FMMD component to module level example : Simple 'ON OFF' Switch}
\typeout{ ---------------- switch1}
%\input{switch1/switch1}
\chapter{FMMD component to module level example : Safety Critical 'ON OFF' Switch}
\chapter{FMMD component to module level example : Reading 4 to 20 mA inputs}
%\input{milliampin/milliampin}
\chapter{FMMD component to module level example : Thermocouple Input }
%\input{thermocouplein/thermocouplein}
\chapter{FMMD component to module level example : Triac Outputs}
%\input{triacout/triacout}
\chapter{A complete system example, A Safety critical P.I.D temperature controller}
Safety critical in that it must not overheat, and that it must alarm
for incorrect temperature.
\chapter{Conclusion}
%\input{conclusion/conclusion}
\appendix
\chapter{FMMD tool : Design Issues}
reference the MSC document and describe the Java extension classes.
Software documentation for fmmd tool.
\chapter{Algorithms and Mathematical Relationships Discovered}
\input{fzd/fzd}
\chapter{A detailed look at the safety systems required by industrial burner controller}
\input{burner/burner}
%\chapter{FMMD tool : Algorithms and Euler Diagram Parsing}
\small
\bibliographystyle{abbrv}
\bibliography{vmgbibliography,mybib}
\normalsize
\end{document}