deletions | additions       diff --git a/introduction.tex b/introduction.tex  index 682b8f4..e1f1a50 100644  --- a/introduction.tex  +++ b/introduction.tex 
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A small spacecraft could use an induction coupler to control its motion relative to a much larger target like the International Space Station (ISS), crawling along the target’s surface without ever touching. This on-orbit inspection technique resembles the locomotion and functions of underwater robots that now inspect pipelines and shipwrecks.     Current interest in on-orbit servicing (OOS) is a strong motivation for advancing induction coupler technology. One of the fundamental technological use cases is that of a small inspection vehicle whose interactions with the target do not produce significant motion in that target—for example, an ISS inspection vehicle. Such a vehicle is primarily concerned with regulating planar motion along the surface of the target and stabilization of out-of-plane translation. This paper describes a study of how the planar component of that motion can be achieved with induction couplers.   \begin{figure}  \includegraphics[scale=0.5]{figures/iss_inspector.jpg}  \label{fig:iss_inspector}  \end{figure}  diff --git a/master.tex b/master.tex  index e4b8c87..1d4157c 100644  --- a/master.tex  +++ b/master.tex 
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\input{other_tech}  \input{background_induced_forces}  \include{INDUCTION\ %\include{INDUCTION\  COUPLER\ BEHAVIORS} %\include{Induction\ Coupler\ System}  \input{Conclusion}