Author: bugman Date: Wed Aug 29 12:36:12 2012 New Revision: 17385 URL: http://svn.gna.org/viewcvs/relax?rev=17385&view=rev Log: The relax data model chapter of the user manual now uses the higher quality graphics. Modified: trunk/docs/latex/data_model.tex Modified: trunk/docs/latex/data_model.tex URL: http://svn.gna.org/viewcvs/relax/trunk/docs/latex/data_model.tex?rev=17385&r1=17384&r2=17385&view=diff ============================================================================== --- trunk/docs/latex/data_model.tex (original) +++ trunk/docs/latex/data_model.tex Wed Aug 29 12:36:12 2012 @@ -27,7 +27,7 @@ \subsection{Data pipes} \begin{figure*}[h] -\includegraphics[width=2cm, bb=0 0 567 567]{graphics/wizards/pipe.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/misc/pipe_600x600.eps.gz} \end{figure*} The first thing one must do when relax is launched is to create a data pipe. When using the GUI, a base data pipe will be created when opening one of the automatic analyses via the analysis selection window (see figure~\ref{fig: screenshot: analysis wizard} on page~\pageref{fig: screenshot: analysis wizard}). This will also create a data pipe bundle for the analysis (\textit{vide infra}). Alternatively the data pipe editor window can be used to create data pipes (see figure~\ref{fig: screenshot: pipe editor} on page~\pageref{fig: screenshot: pipe editor}). For the prompt/scripting modes, or the \texttt{`User functions $\to$ pipe $\to$ create'} menu entry, a data pipe can be initialised by specifying the unique name of the data pipe and the data pipe type: @@ -46,7 +46,7 @@ \subsection{Data pipe bundles} \begin{figure*}[h] -\includegraphics[width=2cm, bb=14 14 175 175]{graphics/wizards/pipe_bundle.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/misc/pipe_bundle_600x600.eps.gz} \end{figure*} Related data pipes can be grouped into a `bundle'. For example if the data pipes \texttt{`sphere'}, \texttt{`oblate spheroid'}, \texttt{`prolate spheroid'}, and \texttt{`ellipsoid'} preexist, these can be grouped into a bundle called \texttt{`diffusion tensors'} with the following series of user function calls: @@ -78,7 +78,7 @@ \subsection{Molecule containers} \begin{figure*}[h] -\includegraphics[width=2cm, bb=0 0 567 567]{graphics/wizards/molecule.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/misc/molecule_600x600.eps.gz} \end{figure*} The spin containers are part of a nested set of containers, and are graphically depicted in the spin viewer window of the GUI in figure~\ref{fig: screenshot: spin viewer} on page~\pageref{fig: screenshot: spin viewer}. As can be seen from the figure, the top level holds a single molecular container. Multiple molecular containers can be present if the study is of a molecular complex. Using the GUI menus or the prompt/scripting mode, molecule containers can be manually created with the user function: @@ -95,7 +95,7 @@ \subsection{Residue containers} \begin{figure*}[h] -\includegraphics[width=2cm, bb=0 0 567 567]{graphics/wizards/residue.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/misc/residue_600x600.eps.gz} \end{figure*} Nested within the molecule containers are residue containers. These are graphically depicted in the spin viewer window (see figure~\ref{fig: screenshot: spin viewer} on page~\pageref{fig: screenshot: spin viewer}). Each molecule container can possess multiple residues. These require either a unique residue number or unique residue name. For organic molecules where the residue concept is meaningless, all spin containers can be held within a single unnamed and unnumbered residue container. Using the GUI menus or the prompt/scripting mode, residue containers can be manually created with the user function: @@ -109,10 +109,11 @@ % Spin containers. %~~~~~~~~~~~~~~~~~ +\newpage \subsection{Spin containers} \begin{figure*}[h] -\includegraphics[width=2cm, bb=0 0 567 567]{graphics/wizards/spin.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/misc/spin_600x600.eps.gz} \end{figure*} Spin containers are nested within a residue container (again graphically depicted in the spin viewer window in figure~\ref{fig: screenshot: spin viewer} on page~\pageref{fig: screenshot: spin viewer}). Multiple spin containers can exist per residue. This allows, for example, a single model-free analysis simultaneously on the backbone nitrogen spins, side-chain tryptophan indole nitrogen spins and alpha carbon spins. Or, for example, studying the pseudocontact shifts for all nitrogen, carbon and proton spins in the molecule simultaneously. @@ -153,7 +154,7 @@ \section{Interatomic data containers} \begin{figure*}[h] -\includegraphics[width=3cm, bb=14 14 95 148]{graphics/wizards/dipole_pair/NH_dipole_pair.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/wizards/dipole_pair/NH_dipole_pair_600x600.eps.gz} \end{figure*} Separate from the spin containers, yet strongly linked to them, are the interatomic data containers. These containers are grouped together within the same data pipe as the spins they point to. These define interactions between two spins located anywhere within the molecule, residue and spin nested data structure. These are automatically created when reading in data defined between two spins such as RDCs and NOE distance constraints. They can also be created using the \texttt{`dipole\_pair.define'} user function: @@ -169,7 +170,7 @@ \section{Structural data} \begin{figure*}[h] -\includegraphics[width=3cm, bb=14 14 215 293]{graphics/wizards/n_state_model.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/misc/n_state_model/phthalic_acid_ens_600x600.eps.gz} \end{figure*} 3D structural data is stored at the level of the current data pipe. This data is completely separate from the molecule, residue and spin data structure. However the structural data can be used to generate the spin containers. For example, assuming a data pipe is already present: @@ -199,7 +200,7 @@ \section{Sequence file} \begin{figure*}[h] -\includegraphics[width=2cm, bb=0 0 567 567]{graphics/wizards/sequence.eps.gz} +\includegraphics[width=3cm, bb=0 0 1701 1701]{graphics/misc/sequence_600x600.eps.gz} \end{figure*} Alternatively to setting up the molecule, residue, and spin containers via 3D structural data, a plain text columnar formatted file can be used. This is useful for when no 3D structure exists for the molecule. For example: