\documentclass[12pt]{article}
\usepackage[utf8]{inputenc}
%\usepackage{titling}
%\usepackage{amsmath}
%\usepackage{amsfonts}
%\usepackage{amssymb}
\usepackage{graphicx}
\include{style}

%
% Enter Title and Names here:
%

\def\Experiment{Title}
\def\User{B. Badger}
\def\Date{\today}
\def\Facilitator{U.W. Scientist}
\def\Device{MST}
\def\ProposalNumber{To be assigned}

\pagestyle{myheadings}
\markright{WiPPL Run Plan Proposal}

\begin{document}

\noindent {\large \Experiment}\\
\noindent {\large User: \User}\\
\noindent {\large Facilitator: \Facilitator}\\
\noindent {\large Device: \Device}\\
\noindent {\large Date: \Date}\\
\noindent {\large Proposal Number: \ProposalNumber}\\

\section{Abstract}

Please provide a brief description of the proposed research to let your
operator, diagnosticians, and the rest of the scientific team know what it is
you’re trying to accomplish. This is an excellent opportunity to make
a first draft of an abstract for a proposed presentation or publication.

\section{Objectives of Experiment}

\begin{enumerate}
  \item A list of objectives that will give you and the WiPPL team an
    idea of the scope of the experimental study.
  \item This list should help you determine what constitutes a
    complete data set to address the big picture described in the
    Abstract.
\end{enumerate}

\section{Run Plan}

Describe the range of plasma conditions and measurements that are
required to complete the listed objectives. WiPPL staff will help
translate the desired plasma conditions into operational scenarios as
part of the collaborative development of this document. They will help
you consider contingency planning such as required conditioning,
anticipation of non-ideal shot conditions, {\em etc.}

You can also help by specifying any prioritization you may have among
different planned plasma conditions. You could indicate your
priorities in a table like Table~\ref{tab:run-plan}.


\begin{table}[h]
\centering
\begin{tabular}{|c|c|c|c|c|c|}
\hline
Priority & Shots & Fueling & $I_\mathrm{P}\ [\mathrm{kA}]$ &
$\bar{n}_\mathrm{e}\ [10^{19}\ \mathrm{m^{-3}}]$ & mode \\
\hline \hline
Critical & 100 & D & 400  & 0.60 & PPCD \\
Desired & 100 & D & 500  & 0.60 & PPCD \\
Critical & 100 & H & 500  & 1.00 & $F=0$ \\
Desired & 100 & He & 300  & 1.00 & $F=0$ \\
\hline \hline
\end{tabular}
\caption{Summary of run plan. Try to quantify the number of shots
  needed in each run condition based on statistical uncertainty
  considerations. Typical operation of MST anticipates reproducible
  plasma conditions to facilitate ensemble averaging over many plasma
  discharges (or shots).}
\label{tab:run-plan}
\end{table}

After determining the requisite number of shots, estimate the number
of run days required to acquire the shots. Indicate a separate planned
number of contingency days if machine conditions warrant it.

\section{Auxiliary Heating \& Control systems}

\subsection{Ohmic}
There are a few different power supply considerations for MST
operation. The legacy system uses a pulse-forming network to generate
discharges with flattop conditions ranging between a few milliseconds
to about 30 msec. A new programmable power supply (PPS) can be used
with feedback on the toroidal field or on the reversal parameter $F =
B_{\rm tor}(r=a) / \left< B_{\rm tor} \right>$ to program the field
line pitch. 

\subsection{Neutral Beam Injection}
For research involving a fast ion population, a 25~kV\ 50~amp hydrogen
neutral beam is available. Different fuels can be used at reduced
parameters, {\em e.g.} a hydrogen/deuterium mix can be used to provide
a neutron signal from beam-target fusion reactions.

\subsection{Plasma Control System}
To indicate that feedback control of the heating systems is desired.

\subsection{Resonant Magnetic Perturbation System}
To provide a controlled magnetic perturbation with a particular $m$
harmonic. Here you would specify the timing and amplitude
requirements. This provision is useful for locking the orientation of
stationary 3D structures in the plasma.


\section{Diagnostics}

MST has a well-established set of fusion-grade diagnostics. Operation
of some of the more advanced diagnostics, like Thomson Scattering and
beam-based spectroscopy, require additional personnel for the run
campaign. This section helps to identify diagnostics needs for the
proposed experiment.

To help convey the level of interest in having a diagnostic available
for the experiment, there are three categories Table~\ref{tab:diag}:
\begin{itemize}
  \item {\bf Essential}: I will not be able to complete my objectives if
    these diagnostics are unavailable. Do not schedule the run until
    they are available.
  \item {\bf Desired}: My post-shot analysis will make use of data
    from these diagnostics, but I won't postpone the run if they are
    not available.
  \item {\bf Non-essential}: I have no plans to use data from these
    diagnostics. If others can make use of data from these diagnostics
    they will be responsible for coordinating support.
\end{itemize}

\begin{table}[h!]
\centering
\begin{tabular}{|c||c|c|c|c|}

\hline
Diagnostic & Needs operator\? & Essential & Desired & Non-essential \\
\hline \hline
CO$_2$ interferometry & No & X & & \\
Toroidal coil array & No & X & & \\
$D_\alpha$ array & No & & & \\
Thomson scattering & Yes & & & \\
FIR interferometry & Yes & & & \\
FIR polarimetry & Yes & & & \\
CHERS & Yes & & & \\
Rutherford scattering & Yes & & & \\
SXR tomography & Yes & & & \\
Edge camera array & Yes & & & \\
\hline \hline
\end{tabular}
\caption{Diagnostic needs}
\label{tab:diag}
\end{table}

\clearpage

\section{Preparatory Work}
Describe any work in the machine area that must be performed before
shots dedicated to the objectives listed can begin.

\begin{itemize}
\item List any machine modifications
\item or equipment installation
\item or calibration and alignment needs
\end{itemize}

\section{Post-shot Analysis}

Data will be stored on standard MST MDSplus nodes.

If you are adding a diagnostic, do we need to add additional nodes to
the MDSplus tree for this work?

If there is any post-shot analysis like magnetic equilibrium
reconstructions using MSTFIT or neutral profile modeling using
DEGAS2, where will the resulting output files be stored? This could be
in a user directory on one of our servers.

\section{Clean up}

List any steps that need to be taken to return the machine to normal
operation. List any equipment that needs to be removed from the
machine area and specify where it is supposed to go.

\end{document}
