bachelor_thesis/thesis/chapters/appendix.tex

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\section{Appendix}
\subsection{Source Code for the Benchmarks}
\label{ref:code_benchmarks}
The benchmarks used in \ref{ref:performance} are done using this code. Note
that the execution time is measured which is inherently noisy. To account for
the noise several strategies are used:
\begin{enumerate}[1]
\item{The same circuit is applied to the starting state several times. The
minimal result is used as the noise must be positive}
\item{Several circuits are applied to the starting state. The remaining
noise is mixed with the variance due to the different circuits.}
\item{Because the noise can be timely correlated (i.e. another process
requires processor time for a longer period) the tests have been
randomized such that the time correlated noise is distributed randomly over
several uncorrelated measurements.}
\end{enumerate}
The code used to benchmark the three regimes is analogous and not included here.
\lstinputlisting[title={Generating Data for the Dense State Vector vs. Graphical Simulator Benchmark}, language=Python, breaklines=true]{../performance/generate_data_scaling_qbits.py}
\lstinputlisting[title={Code for Measuring and Computing the Execution Time and Statistics}, language=Python, breaklines=true]{../performance/measure_circuit.py}
\subsection{Complete Graphical States from the Three Regimes}
\label{ref:complete_graphs}
Because the whole graphs are barely percetible windows have been used
in Figure \ref{fig:graph_high_linear_regime} and Figure \ref{fig:graph_intermediate_regime}.
For the sake of completeness the whole graphs are included here in Figure \ref{fig:graph_low_linear_regime_full},
Figure \ref{fig:graph_intermediate_regime_full} and Figure \ref{fig:graph_high_linear_regime_full}.
\begin{figure}[H]
\centering
\includegraphics[width=\linewidth]{graphics/graph_low_linear_regime.png}
\caption[Typical Graphical State in the Low-Linear Regime]{Typical Graphical State in the Low-Linear Regime}
\label{fig:graph_low_linear_regime_full}
\end{figure}
\begin{figure}[H]
\centering
\includegraphics[width=\linewidth]{graphics/graph_intermediate_regime.png}
\caption[Typical Graphical State in the Intermediate Regime]{Typical Graphical State in the Intermediate Regime}
\label{fig:graph_intermediate_regime_full}
\end{figure}
\begin{figure}[H]
\centering
\includegraphics[width=\linewidth]{graphics/graph_high_linear_regime.png}
\caption[Typical Graphical State in the High-Linear Regime]{Typical Graphical State in the High-Linear Regime}
\label{fig:graph_high_linear_regime_full}
\end{figure}
\subsection{Code to Generate the Example Graphs}
\label{ref:code_example_graphs}
This code has been used to generate the example graphs used in
\ref{ref:performance}. Note that generating the graph is done using a random
circuit as used in \ref{ref:code_benchmarks}. The generated \lstinline{dot}
code is converted to an image using
\lstinline{dot i_regime.dot -Tpng -o i_regime.png}.
\lstinputlisting[title={Code used to Generate the Example Graphs}, language=Python, breaklines=true]{../performance/regimes/graph_intermediate_regime.py}