added thesis structure

thesis/chapters/conceptdesign.tex

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+\chapter{Concept and Design}
+\label{cha:conceptdesign}
+introduction to what needs to be done. also clarify terms "Host" and "Device" here
+
+\section[Requirements]{Requirements and Data}
+short section.
+Multiple expressions; vars for all expressions; params unique to expression; operators that need to be supported
+
+
+\section{Interpreter}
+as introduction to this section talk about what "interpreter" means in this context. so "gpu parses expr and calculates"
+
+\subsection{Architecture}
+talk about the coarse grained architecture on how the interpreter will work. (.5 to 1 page probably)
+
+\subsection{Host}
+talk about the steps taken to prepare for GPU interpretation
+
+\subsection{Device}
+talk about how the actual interpreter will be implemented
+
+
+\section{Transpiler}
+as introduction to this section talk about what "transpiler" means in this context. so "cpu takes expressions and generates ptx for gpu execution"
+
+\subsection{Architecture}
+talk about the coarse grained architecture on how the transpiler will work. (.5 to 1 page probably)
+
+\subsection{Host}
+talk about how the transpiler is implemented
+
+\subsection{Device}
+talk about what the GPU does. short section since the gpu does not do much

thesis/chapters/conclusion.tex

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+\chapter[Conclusion]{Conclusion and Future Work}
+\label{cha:conclusion}
+
+Summarise the results
+
+\section{Future Work}
+talk about what can be improved

thesis/chapters/evaluation.tex

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+\chapter{Evaluation}
+\label{cha:evaluation}
+
+\section{Test environment}
+Explain the hardware used, as well as the actual data (how many expressions, variables etc.)
+
+\section{Results}
+talk about what we will see now (results only for interpreter, then transpiler and then compared with each other and a CPU interpreter)
+\subsection{Interpreter}
+Results only for Interpreter
+\subsection{Transpiler}
+Results only for Transpiler
+\subsection{Comparison}
+Comparison of Interpreter and Transpiler as well as Comparing the two with CPU interpreter

thesis/chapters/implementation.tex

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+\chapter{Implementation}
+\label{cha:implementation}
+
+\section{Technologies}
+Short section; CUDA, PTX, Julia, CUDA.jl
+
+Probably reference the performance evaluation papers for Julia and CUDA.jl
+
+\section{Interpreter}
+Talk about how the interpreter has been developed.
+
+\section{Transpiler}
+Talk about how the transpiler has been developed

thesis/chapters/introduction.tex

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+\chapter{Introduction}
+\label{cha:Introduction}
+
+Introduction into topic and why someone would want to evaluate expressions on the GPU. Also include "Non-Goals"
+
+\section[Research Question]{Research Question and Methodology}
+What are the research questions and how they will be answered
+
+\section{Overview}
+Will give an overview of the chapters and what to expect

thesis/chapters/relwork.tex

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+\chapter{Fundamentals and Related Work}
+\label{cha:relwork}
+
+\section{Equation learning}
+Section describing what equation learning is and why it is relevant for the thesis
+
+
+\section[GPGPU]{General Purpose Computation on Graphics Processing Units}
+Describe what GPGPU is and how it differs from classical programming. talk about architecture (SIMD) and some scientific papers on how they use GPUs to accelerate tasks
+
+\subsection[PTX]{Parallel Thread Execution}
+Describe what PTX is to get a common ground for the implementation chapter. Probably a short section
+
+
+\section{GPU Interpretation}
+Different sources on how to do interpretation on the gpu (and maybe interpretation in general too?)
+
+\section{Transpiler}
+talk about what transpilers are and how to implement them. If possible also gpu specific transpilation. Also talk about compilation and register management. and probably find a better title