diff --git a/docs/book/tools.tex b/docs/book/tools.tex index 34c6e6a90..652786a39 100644 --- a/docs/book/tools.tex +++ b/docs/book/tools.tex @@ -134,7 +134,7 @@ \section{point2dem} The \texttt{point2dem} program produces a GeoTIFF terrain model or an orthographic image from a point cloud image produced by the {\tt stereo} command. Example:\\ -\hspace*{2em}\texttt{point2dem \textit{output-prefix}-PC.tif -o stereo/filename -\/-xyz -r moon $\backslash$} \\ +\hspace*{2em}\texttt{point2dem \textit{output-prefix}-PC.tif -o stereo/filename -r moon $\backslash$} \\ \hspace*{4em}\texttt{-\/-default-value -10000 -n} This produces a digital elevation model that has been referenced to @@ -148,7 +148,7 @@ \section{point2dem} for debugging. Another example: \\ -\hspace*{2em}\texttt{point2dem \textit{output-prefix}-PC.tif -o stereo/filename -\/-xyz -r moon $\backslash$} \\ +\hspace*{2em}\texttt{point2dem \textit{output-prefix}-PC.tif -o stereo/filename -r moon $\backslash$} \\ \hspace*{4em}\texttt{-\/-orthoimage \textit{output-prefix}-L.tif} This command takes the left input image and orthographically projects @@ -177,7 +177,6 @@ \section{point2dem} \texttt{-\/-texture-file \textit{texture-file}} & Explicitly specify the texture file \\ \hline \texttt{-\/-output-prefix|-o \textit{output-prefix}} & Specify the output prefix \\ \hline \texttt{-\/-output-filetype|-t \textit{type(=tif)}} & Specify the output file type \\ \hline -\texttt{-\/-xyz-to-lonlat} & Convert from XYZ coordinates to longitude, latitude, altitude coordinates \\ \hline \texttt{-\/-reference-spheroid|-r moon|mars} & Set a reference surface to a hard coded value. This will override manually set datum information. \\ \hline \texttt{-\/-semi-major-axis \textit{float(=0)}} & Set the dimensions of the datum in meters\\ \hline \texttt{-\/-semi-minor-axis \textit{float(=0)}} & Set the dimensions of the datum in meters\\ \hline diff --git a/docs/book/tutorial.tex b/docs/book/tutorial.tex index 4035212f6..19a57b1fe 100644 --- a/docs/book/tutorial.tex +++ b/docs/book/tutorial.tex @@ -538,21 +538,17 @@ \subsection{Building a Digital Elevation Model} \ac{DEM} from the point cloud file. \begin{verbatim} - ISIS 3> point2dem --xyz-to-lonlat E0201461-M0100115-PC.tif + ISIS 3> point2dem E0201461-M0100115-PC.tif \end{verbatim} \noindent The resulting TIFF file is map projected and will contain -georeferencing information stored as GeoTIFF tags. The -\texttt{-\/-xyz-to-lonlat} option is {\em required} in most common uses, as -it transforms the results from a Cartesian, body-centered coordinate -system to the longitude, latitude, altitude spherical coordinate -system. You can specify a coordinate system (e.g., mercator, -sinusoidal) and a reference spheroid (i.e., calculated for the Moon or -Mars). +georeferencing information stored as GeoTIFF tags. You can specify a +coordinate system (e.g., mercator, sinusoidal) and a reference +spheroid (i.e., calculated for the Moon or Mars). \begin{verbatim} - ISIS 3> point2dem --xyz-to-lonlat -r mars E0201461-M0100115-PC.tif + ISIS 3> point2dem -r mars E0201461-M0100115-PC.tif \end{verbatim} \noindent @@ -568,7 +564,7 @@ \subsection{Building a Digital Elevation Model} to use for the projection: \begin{verbatim} - ISIS 3> point2dem --xyz-to-lonlat -r mars --orthoimage E0201461-M0100115-L.tif \ + ISIS 3> point2dem -r mars --orthoimage E0201461-M0100115-L.tif \ E0201461-M0100115-PC.tif \end{verbatim}