In this thesis, I introduce an SMFS sofware suite for cantilever
calibration (\calibcant), experiment control (\pyafm), analysis
-(\Hooke), and postprocessing
-(\sawsim)\citep{calibcant,pyafm,sandal09,king10}. All of these tools
-are licensed under open source licenses, which allows SMFS researchers
-to centralize future development. Where possible, care has been taken
-to keep these packages operating system (OS) agnostic. The experiment
-logic in \pyafm\ and \calibcant\ is still nominally OS agnostic, but
-those packages depend on more fundamental packages that control the
-physical hardware in use\citep{pyafm}. At the bottom of the
-physical-interface stack are the \Comedi\ drivers from the Linux
+(\Hooke), and postprocessing (\sawsim) in the context of velocity
+clamp unfolding of I27 octomers in buffers with varying concentrations
+of \Na\ and \Ca\ ions\citep{calibcant,pyafm,sandal09,king10}. All of
+the tools are licensed under open source licenses, which allows SMFS
+researchers to centralize future development. Where possible, care
+has been taken to keep these packages operating system (OS) agnostic.
+The experiment logic in \pyafm\ and \calibcant\ is still nominally OS
+agnostic, but those packages depend on more fundamental packages that
+control the physical hardware in use\citep{pyafm}. At the bottom of
+the physical-interface stack are the \Comedi\ drivers from the Linux
kernel\citep{comedi}. Users running other OSes should be able to swap
in analogous low level physical-interface packages if Linux is not an
option. \nomenclature{OS}{Operating system}
\newcommand{\species}[1]{\emph{#1}} % \species{Homo sapiens}
% Chemicals
+\newcommand{\Ca}{Ca\textsuperscript{2+}}
+\newcommand{\CaCl}{CaCl\textsubscript{2}}
+\newcommand{\Na}{Na\textsuperscript{+}}
+\newcommand{\NaCl}{NaCl}
\newcommand{\diNaHPO}{Na\textsubscript{2}HPO\textsubscript{4}}
\newcommand{\NadiHPO}{NaH\textsubscript{2}PO\textsubscript{4}}