Updates from Overleaf

Author: Keep-Passion

cag-template_old.tex

@@ -136,18 +136,18 @@ \section{Related work}
 
 However, we find that the unevenness of fluid surfaces caused by the distribution of particles has not yet been handled properly in screen space rendering. Inspired by work from Yu and Turk~\cite{yu2013reconstructing}, we provide anisotropic transformation for particle textures prior to the derivation of depth image to get a smoother fluid surface.
 
-\begin{figure}[!t]
-\centering
-\begin{overpic}
-    [width=\linewidth]{figs/surface_processing.png}
-    \put(50,88) {camera}
-    \put(55,63) {foreground surface}
-    \put(5,37) {background surface}
-    \put(63,5) {refraction direction}
-\end{overpic}
-\caption{The schematic diagram of surface processing in screen space rendering method.}
-\label{fig:figure1}
-\end{figure}
+% \begin{figure}[!t]
+% \centering
+% \begin{overpic}
+%     [width=\linewidth]{figs/surface_processing.png}
+%     \put(50,88) {camera}
+%     \put(55,63) {foreground surface}
+%     \put(5,37) {background surface}
+%     \put(63,5) {refraction direction}
+% \end{overpic}
+% \caption{The schematic diagram of surface processing in screen space rendering method.}
+% \label{fig:figure1}
+% \end{figure}
 
 \section{Real-time Screen Space Fluid Rendering}
 Fluid rendering in the screen space is performed by drawing the 3D fluid directly into the 2D screen without generating surface meshes, as shown in Fig.\ref{fig:figure1}, and is closely related to image processing algorithms~\cite{ref:green2010screen}. The schematic diagram describing the procedure of the surface rendering algorithm is shown in Fig.\ref{fig:figure2} and is detailed in the following.

diff.tex

@@ -184,44 +184,32 @@ \section{Related work}
 However, we find that the unevenness of fluid surfaces caused by the distribution of particles has not yet been handled properly in screen space rendering. Inspired by work from Yu and Turk~\cite{yu2013reconstructing}, we provide anisotropic transformation for particle textures prior to the derivation of depth image to get a smoother fluid surface.
 
 \begin{figure}[!t]
-    %DIF >  \setlength{\abovecaptionskip}{1mm}
-    %DIF >  \setlength{\belowcaptionskip}{-5mm}
+    % \setlength{\abovecaptionskip}{1mm}
+    % \setlength{\belowcaptionskip}{-5mm}
     \centering
-    \DIFdelbeginFL %DIFDELCMD < \begin{overpic}
-%DIFDELCMD <     [%%%
-\DIFdelFL{width=}%DIFDELCMD < \linewidth]{%%%
-\DIFdelFL{figs/surface_processing.png}%DIFDELCMD < }
-%DIFDELCMD <     \put(50,88) %%%
-\DIFdelendFL \DIFaddbeginFL \subfigure[isotropic] \DIFaddendFL {
-    \DIFdelbeginFL \DIFdelFL{camera}\DIFdelendFL \DIFaddbeginFL \includegraphics[width=0.47\linewidth]{figs/isotropic.png}
-    \DIFaddendFL }    
-    \DIFdelbeginFL %DIFDELCMD < \put(55,63) %%%
-\DIFdelendFL \DIFaddbeginFL \subfigure[anisotropic] \DIFaddendFL {
-    \DIFdelbeginFL \DIFdelFL{foreground surface}\DIFdelendFL \DIFaddbeginFL \includegraphics[width=0.47\linewidth]{figs/anisotropic.png}
-    \DIFaddendFL } 
-    \DIFdelbeginFL %DIFDELCMD < \put(5,37) %%%
-\DIFdelendFL \DIFaddbeginFL \caption{\DIFaddFL{Comparison of isotropic and anisotropic fluid particles.}}
+    \subfigure[isotropic] {
+    \includegraphics[width=0.47\linewidth]{figs/isotropic.png}
+    }    
+    \subfigure[anisotropic] {
+    \includegraphics[width=0.47\linewidth]{figs/anisotropic.png}
+    } 
+    \caption{Comparison of isotropic and anisotropic fluid particles.}
     \label{fig:figure3}
 \end{figure}
 
 \begin{figure}[!t]
-    %DIF >  \setlength{\abovecaptionskip}{1mm}
-    %DIF >  \setlength{\belowcaptionskip}{-5mm}
+    % \setlength{\abovecaptionskip}{1mm}
+    % \setlength{\belowcaptionskip}{-5mm}
     \centering
-    \subfigure[isotropic] \DIFaddendFL {
-    \DIFdelbeginFL \DIFdelFL{background surface}\DIFdelendFL \DIFaddbeginFL \includegraphics[width=0.22\textwidth]{figs/figure5_1_new.png}
-    \DIFaddendFL }    
-    \DIFdelbeginFL %DIFDELCMD < \put(63,5) %%%
-\DIFdelendFL \DIFaddbeginFL \subfigure[anisotropic] \DIFaddendFL {
-    \DIFdelbeginFL \DIFdelFL{refraction direction}\DIFdelendFL \DIFaddbeginFL \includegraphics[width=0.22\textwidth]{figs/figure5_2_new.png}
-    \DIFaddendFL } 
-    \DIFdelbeginFL %DIFDELCMD < \end{overpic}
-%DIFDELCMD < %%%
-\DIFdelendFL \caption{\DIFdelbeginFL \DIFdelFL{The schematic diagram }\DIFdelendFL \DIFaddbeginFL \DIFaddFL{Experimental comparison }\DIFaddendFL of \DIFdelbeginFL \DIFdelFL{surface processing }\DIFdelendFL \DIFaddbeginFL \DIFaddFL{isotropy and anisotropy }\DIFaddendFL in \DIFdelbeginFL \DIFdelFL{screen space rendering method}\DIFdelendFL \DIFaddbeginFL \DIFaddFL{the dam break scenario}\DIFaddendFL .}
-    \DIFdelbeginFL %DIFDELCMD < \label{fig:figure1}
-%DIFDELCMD < %%%
-\DIFdelendFL \DIFaddbeginFL \label{fig:figure4}
-\DIFaddendFL \end{figure}
+    \subfigure[isotropic] {
+    \includegraphics[width=0.22\textwidth]{figs/figure5_1_new.png}
+    }    
+    \subfigure[anisotropic] {
+    \includegraphics[width=0.22\textwidth]{figs/figure5_2_new.png}
+    } 
+    \caption{Experimental comparison of isotropy and anisotropy in the dam break scenario.}
+    \label{fig:figure4}
+\end{figure}
 
 \section{Real-time Screen Space Fluid Rendering}
 Fluid rendering in the screen space is performed by drawing the 3D fluid directly into the 2D screen without generating surface meshes, as shown in Fig.\ref{fig:figure1}, and is closely related to image processing algorithms~\DIFdelbegin \DIFdel{\mbox{%DIFAUXCMD