Fix abbrev

021_VideoCoding/VideoCodingReview.tex

@@ -21,6 +21,8 @@ In order to increase the coding flexibility and higher video resolutions, the \a
 In this chapter the new data structures coding techniques specifically introduced to increase the coding efficiency are described.
 Particular emphasis is given to those which may have a significant impact in the error robustness characteristics of \ac{hevc} streams.
 
+\glsunset{hevc}
+
 This chapter is organized as follows.
 Section~\ref{Section2:GeneraVideoSystem} introduces the functional blocks of a generic hybrid video coding system, and Section~\ref{Section2:Overview} provides an overview of the \ac{hevc} standard.
 Then, Section~\ref{Section2:HighLevel} describes the high-level syntax elements which are used to carry relevant information in coded streams.
@@ -100,7 +102,7 @@ The encoder uses both intra- and inter-picture prediction to exploit spatial and
 \centering
  \includegraphics[width=\columnwidth]{021_VideoCoding/Figures/HEVCBlockDiagram}
 %\input{\FigsPath/HEVCBlockDiagram.tikz}
-\caption{\HIGHLIGHT{Block diagram of an \ac{hevc} standard encoder.}}
+\caption{Block diagram of an HEVC standard encoder.}
 \label{fig:HEVCBlockDiagram}
 \end{figure}
 
@@ -146,7 +148,7 @@ Similar to \ac{h264}~\cite{H264AVCStandard2003}, the \ac{hevc} streams are based
         %   \bitheader{0-15} \\
         \colorbitbox{TikZColorFill}{1}{F} & \colorbitbox{gray!60}{6}{NAL Type} & \colorbitbox{TikZColorFill}{6}{Reserved} & \colorbitbox{gray!60}{3}{TIDP}
     \end{bytefield}
-    \caption{Two bytes \ac{nal} unit header in \ac{hevc}.}
+    \caption{Two bytes \ac{nal} unit header in HEVC.}
     \label{Figure2:NalHeader}
 \end{figure}
 
@@ -170,7 +172,7 @@ The new set of parameters \ac{vps} contains information related to the different
 
 \begin{table}[tb]
     \centering
-    \caption{Picture categories in \ac{hevc} standard.}\label{Table2:PictureTypes}
+    \caption{Picture categories in HEVC standard.}\label{Table2:PictureTypes}
     \TABLESVSPACE\small
     \begin{tabular}{m{1.3cm}|m{5.2cm}|m{6.3cm}}
         \toprule
@@ -420,7 +422,7 @@ In order to overcome this issue and to allow all possible modes, \ac{hevc} uses
 \input{021_VideoCoding/Figures/IntraPredictionsDirectional.tikz} \\
 \end{tabular}
 }
-\caption{Directional intra prediction modes in \ac{hevc} (left) and an example of the intra prediction mode 32 for a $4\times4$ block.}
+\caption{Directional intra prediction modes in HEVC (left) and an example of the intra prediction mode 32 for a $4\times4$ block.}
 \label{Figure2:IntraModesHEVC}
 \end{figure}
 
@@ -515,7 +517,8 @@ This process discards a given frame whenever the \ac{dpb} has the number of defi
 
 \begin{table}[tb]
     \centering
-    \caption{Reference Picture Set example.}\label{Table2:ReferencePictureListExample}
+    \caption{Reference Picture Set example.}
+    \label{Table2:ReferencePictureListExample}
     \small
     \TABLESVSPACE
     \begin{tabular}{x{1.5cm}|ccc}
@@ -555,7 +558,7 @@ Using the \ac{rpset} concept the decoder is always able to detect loss events an
         \input{\FigsPath/PUSymetric.tikz} & (a)\\
         \input{\FigsPath/PUAsymetric.tikz} & (b)\\
     \end{tabular}
-    \caption{Partition types of an inter coded \ac{cu} into \acs{pu}~\cite{HEVCBlock2012}.}
+    \caption{Partition types of an inter coded CU into PUs~\cite{HEVCBlock2012}.}
     \label{Figure2:InterPuPartitions}
 \end{figure}
 
@@ -578,7 +581,7 @@ These partitions types are only allowed for \acs{cu} with $16\times16$ pixels or
 \centering
 \input{\FigsPath/MergeModeHEVC.tikz}
 %\input{\FigsPath/HEVC/MergeModeHEVCTwoFrames.tikz}
-\caption{Illustration of the \ac{mv}  prediction candidates in the AMVP.}
+\caption{Illustration of the MV  prediction candidates in the AMVP.}
 \label{Figure2:MVCandidates}
 \end{figure}