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diff --git a/appx/c4hp.tex b/appx/c4hp.tex
index 56b80b0..8ee7fb1 100644
--- a/appx/c4hp.tex
+++ b/appx/c4hp.tex
@@ -5,7 +5,7 @@
 \begin{document}
 \input{subfileprefix}
 \ifSubfilesClassLoaded{\appendix}{}
-\chapter{\texorpdfstring{\glsentrytext{CLEAN}}{Clean} for \texorpdfstring{\glsentrytext{HASKELL}}{Haskell} programmers}%
+\chapter{Clean for Haskell programmers}%
 \label{chp:clean_for_haskell_programmers}
 
 This appendix is meant give people who are familiar with the \gls{FP} language \gls{HASKELL} a consise overview of the programming language \gls{CLEAN} and how it differs from \gls{HASKELL}.
@@ -15,7 +15,7 @@ Obviously, this summary is not exhaustive.
 Some \gls{CLEAN} language elements that are not easily translatable to \gls{HASKELL} and thus do not occur in the summary following below.
 We hope you enjoy these notes and that it aids you in reading \gls{CLEAN} programs.
 
-\Gls{CLEAN}---acronym for Clean \glsxtrlong{LEAN} \citep{barendregt_towards_1987}---, was originally designed as a \gls{GRS} core language but quickly served as an intermediate language for other functional languages \citep{brus_clean_1987}.
+\Gls{CLEAN}---acronym for Clean Language of East-Anglia and Nijmegen \citep{barendregt_towards_1987}---, was originally designed as a \gls{GRS} core language but quickly served as an intermediate language for other functional languages \citep{brus_clean_1987}.
 In the early days it has also been called \emph{Concurrent} \gls{CLEAN} \citep{nocker_concurrent_1991} but these days the language has no support for concurrency anymore.
 Fast-forward thirty years, \gls{CLEAN} is now a robust language with state-of-the-art features and is actually used in industry as well as academia---albeit in select areas of the world.
 
@@ -104,7 +104,7 @@ For example, defining a generic equality is done as in \cref{lst:generic_eq}.
 Metadata about the types is available using the \cleaninline{of} syntax that gives the function access to metadata records, as can be seen in \cref{lst:generic_print} showing a generic print function. This abundance of metadata allows for very complex generic functions that near the expression level of template metaprogramming (see \cref{chp:first-class_datatypes,sec:ccodegen}).
 \cleaninputlisting[language=Clean,firstline=4,label={lst:generic_print},caption={Generic print function}]{lst/generic_print.icl}
 
-\subsection{\texorpdfstring{\glsentrytext{GADT}}{GADT}s}
+\subsection{GADTs}
 \Glspl{GADT} are enriched data types that allow the type instantiation of the constructor to be explicitly defined \citep{cheney_first-class_2003,hinze_fun_2003}.
 While \glspl{GADT} are not natively supported in \gls{CLEAN}, they can be simulated using embedding-projection pairs or equivalence types \citep[\citesection{2.2}]{cheney_lightweight_2002}.
 To illustrate this, \cref{lst:gadt_haskell} shows a \gls{GADT} in \gls{HASKELL}\requiresGHCmod{GADTs} that can be implemented as in \cref{lst:gadt_clean}.
@@ -115,14 +115,14 @@ To illustrate this, \cref{lst:gadt_haskell} shows a \gls{GADT} in \gls{HASKELL}\
 \clearpage
 \section{Syntax}
 \lstset{basicstyle=\tt\footnotesize}
-\begin{longtable}{p{.45\linewidth}p{.5\linewidth}}
+\begin{longtable}{p{.46\linewidth}p{.46\linewidth}}
 	\caption[]{Syntactical differences between \gls{CLEAN} and \gls{HASKELL}.}%
 	\label{tbl:syn_clean_haskell}\\
 	\toprule
 	\gls{CLEAN} & \gls{HASKELL}\\
 	\midrule
 	\endfirsthead%
-	\caption[]{(continued)}\\
+	\caption[]{Syntactical differences between \gls{CLEAN} and \gls{HASKELL}. (continued)}\\
 	\toprule
 	\gls{CLEAN} & \gls{HASKELL}\\
 	\midrule