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{\Large Write your title Here}
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\hspace{0.25in}Write your Proposal Here


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{\large \sf  Write Your Title Here\\}
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\vspace{2in}

\begin{tabbing}
\= \hspace{0.1in} \= {\sf Author}\\
\> \>  Contact info 1 \\
\> \>  Contact info 2 \\
\> \>  Contact info 3 \\
\> \>  Contact info 4 \\

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\section{Project Objectives}\label{sect:Objectives}
% A clear and concise statement of the specific objective/aims of the proposed project

\hspace{0.25in}I propose to 



%\begin{figure}[htbp]
%\centerline{
%\scalebox{0.3} [0.4]{\rotatebox{0}{\includegraphics{Graphs/PosYield_and_Brightness-vs-Wthickness.eps}}}
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%\scalebox{0.25} [0.25]{\rotatebox{0}{\includegraphics{Graphs/PhaseSpace.eps}}}}
%\caption{The left figure illustrate the Positron Yield, $N (e^+/e^-)$, and Brightness as a function of converter 
%thickness when 10 MeV electrons impinge the Tungsten target.  The phase space ($x$ -vs- $x^\prime$) for 
%positrons leaving a 0.5 mm thick Tungsten target is shown in the left figure.
%}
%\label{fig:PosYieldBrightness-vs-Wthickness} 
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\subsection{The Model}

\hspace{0.25in}The Simulation of 


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%\scalebox{0.4} [0.4]{\rotatebox{0}{\includegraphics{Graphs/3-quad.eps}}}
%\scalebox{0.12} [0.2]{\rotatebox{0}{\includegraphics{Graphs/positron_path_Sim.eps}}}
%}
%\caption{The left image illustrates the positron transport system conceptual design using three 
%quadrapole magnets and the right image represents the positron trajectories predicted by the simulation.
%}
%\label{fig:QuadPosTransSystem} 
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\subsection{Reults}

\begin{tabular}{|c|l|}\hline
\multicolumn{2}{|c|}{ Table of Results}\\
\hline
Element & Power (kW)\\
\hline
\hline
Tungsten Target & 22 \\
First Quad Magnet & 25 \\
Second Quad Magnet & 15 \\
Third Quad Magnet & 5 \\
Collimator & 28 \\
\hline
\label{tabl:HeatLoad}
\end{tabular}

According to Ref~\cite{Ito_1991} 


\begin{thebibliography}{5}

\bibitem{Ito_1991}Y. Ito, {\it et. al}, Nucl. Inst. and Meth. {\b A 305} (1991) 269.
\bibitem{Radbeam} K.G. Lynn, {\it et. al}, Rev. Sci. Instr., {\b 51} (1980) 977.
\bibitem{Fatigue}"Fatigue and Durability of Structural Materials", S.S. Manson and G.R. Halford, ASM International, ISBN-10 \# 0-87170-825-6
\bibitem{HuntDefects} A. W. Hunt,{\it et. al}, Nucl. Inst. and Meth., {\b  B241} ,(2005), 362.
\end{thebibliography}


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