doc fixes

doc/texinfo/gmsh.texi

@@ -20,10 +20,9 @@
 @c 
 @c =========================================================================
 @c %**start of header
-@setfilename        gmsh.info
-@set GMSH-VERSION   2.4
-@set COPYRIGHT      @copyright{} 1997-2009 Christophe Geuzaine, Jean-Fran@,{c}ois Remacle
-@c
+@setfilename gmsh.info
+@set GMSH-VERSION 2.4
+@set COPYRIGHT @copyright{} 1997-2009 Christophe Geuzaine, Jean-Fran@,{c}ois Remacle
 @settitle Gmsh @value{GMSH-VERSION}
 @footnotestyle separate
 @setchapternewpage odd
@@ -316,7 +315,7 @@ always available on @uref{http://geuz.org/gmsh/}. Please send all
 Gmsh-related questions to the public Gmsh mailing list at
 @email{gmsh@@geuz.org}.
 
-@sp 2
+@sp 1
 
 If you want to integrate Gmsh into a closed-source software, or want to sell
 a modified closed-source version of Gmsh, please contact one of the
@@ -2511,11 +2510,10 @@ can be applied to generate the final mesh:
 The ``MeshAdapt'' algorithm@footnote{C. Geuzaine and J.-F. Remacle,
 @emph{Gmsh: a three-dimensional finite element mesh generator with
 built-in pre- and post-processing facilities}, International Journal for
-Numerical Methods in Engineering, Accepted for publication, 2009.} is
-based on local mesh modifications. This technique makes use of edge
-swaps, splits, and collapses: long edges are split, short edges are
-collapsed, and edges are swapped if a better geometrical configuration
-is obtained.
+Numerical Methods in Engineering 79(11), pp. 1309--1331, 2009.} is based
+on local mesh modifications. This technique makes use of edge swaps,
+splits, and collapses: long edges are split, short edges are collapsed,
+and edges are swapped if a better geometrical configuration is obtained.
 @item
 The ``Delaunay'' algorithm is inspired by the work of the GAMMA team at
 INRIA@footnote{P.-L. George and P. Frey, @emph{Mesh generation}, Hermes,
@@ -2853,7 +2851,7 @@ Here is a list of all other mesh commands currently available:
 @ftable @code
 @item Point | Line @{ @var{expression-list} @} In Surface @{ @var{expression} @};
 Embed the point(s) or line(s) in the given surface. The surface mesh
-will conform to the mesh of the point(s) or lines(s). Note that embeded
+will conform to the mesh of the point(s) or lines(s). Note that embedded
 lines only work with the MeshAdapt 2-D algorithm.
 
 @item Coherence Mesh;
@@ -5054,7 +5052,7 @@ system and and the full geometry.
 
 IGES files do not contain the topology of the model, and tolerance
 problems can thus appear when the OpenCASCADE importer cannot identify
-two (close) curves as actually being indentical.
+two (close) curves as actually being identical.
 
 The best solution is to @emph{not use IGES and use STEP} instead. If you
 really have to use IGES, check that you don't have duplicate curves
@@ -5290,13 +5288,13 @@ There can be several reasons:
 the plugin might be written for specific element types only (for
 example, only for scalar triangles or tetrahedra). In that case, you
 should transform your view before running the plugin (you can use
-Plugin(DecomposeinSimplex) to transform all quads, hexas, prisms and
-pyramids into triangles and tetrahedra).
+@code{Plugin(DecomposeinSimplex)} to transform all quads, hexas, prisms
+and pyramids into triangles and tetrahedra).
 @item 
 the plugin might expect a mesh while all you provide is a point
-cloud. In 2D, you can use Plugin(Triangulate) to transform a point cloud
-into a triangulated surface. A 3D version of this plugin is not
-available yet but it is on our TODO list.
+cloud. In 2D, you can use @code{Plugin(Triangulate)} to transform a
+point cloud into a triangulated surface. In 3D you can use
+@code{Plugin(Tetrahedralize)}.
 @item 
 the input parameters are out of range.
 @end itemize