manual: avoid specific gender; HTML cosmetics (trunk, https://trac.osgeo.org/grass/changeset/67694)

git-svn-id: https://svn.osgeo.org/grass/grass/branches/releasebranch_7_0@67695 15284696-431f-4ddb-bdfa-cd5b030d7da7

display/d.mon/d.mon.html

@@ -42,7 +42,7 @@ explicitly selecting the monitor for output. Only running monitors can
 be selected for graphics output.
 
 <p>The user can run multiple graphics monitors by simply starting each of
-the graphics monitors he wishes to direct output to.
+the graphics monitors the user wishes to direct output to.
 
 <h3>Releasing (unselecting) a monitor</h3>
 

general/g.copy/g.copy.html

@@ -1,8 +1,8 @@
 <h2>DESCRIPTION</h2>
 
-A user may access data stored under the other mapsets listed in his
+A user may access data stored under the other mapsets listed in their
 mapset search path. However, the user may only modify data stored
-under his own current mapset. <em>g.copy</em> allows the user to copy
+under their own current mapset. <em>g.copy</em> allows the user to copy
 existing data files <b>from</b> other mapsets <b>to</b> the user's
 current mapset ($MAPSET). The files to be copied must exist in the
 user's current mapset search path and location; output is sent to the

general/g.gisenv/g.gisenv.html

@@ -73,9 +73,9 @@ which fall under the same <em>LOCATION_NAME</em> all contain data
 geographically relevant to the <em>LOCATION_NAME</em>, and all store
 data in the same map coordinate system.  Frequently, maps are placed
 into different mapsets to distinguish file ownership - e.g., each user
-might have his own mapset, storing any maps that he has created and/or
-are relevant to his work.) During each GRASS session, the user must
-choose one mapset to be the <em>current mapset</em>; the current
+might have one or more own mapset(s), storing any maps that the user has
+created and/or are relevant to the own work.) During each GRASS session, the
+user must choose one mapset to be the <em>current mapset</em>; the current
 mapset setting is given by <em>MAPSET</em>, and is a subdirectory
 of <em>LOCATION_NAME</em>.  During a single GRASS session, the user
 can use available data in any of the mapsets stored under the

general/g.mapsets/g.mapsets.html

@@ -19,7 +19,7 @@ mapset with a session).
 
 <p>
 The user can add, modify, and delete data layers that exist under
-his <em>current mapset</em>. Although the user can
+their <em>current mapset</em>. Although the user can
 also <em>access</em> (i.e., use) data that are stored under
 <em>other</em> mapsets in the same GRASS location using the
 <tt>mapname@mapsetname</tt> notation or mapset search path, the user
@@ -42,7 +42,7 @@ may be called in such a manner.
 GRASS location, lists mapsets to which the user currently has access,
 and lists the order in which accessible mapsets will be accessed by
 GRASS programs searching for data files.  The user is then given the
-opportunity to add or delete mapset names from his search path, or
+opportunity to add or delete mapset names from the search path, or
 modify the order in which mapsets will be accessed.
 
 <p>

gui/wxpython/rlisetup/g.gui.rlisetup.html

@@ -144,7 +144,7 @@ The startup window shows your configuration files, you can:
 	  <li><em>Select areas from the overlaid vector map</em>: 
 	 the sample areas are defined by the vector map selected above.
 	 For every cat in vector map, the procedure prompts the 
-	 user if he wants to include it as sample area.
+	 user if they want to include it as sample area.
 	 The resulting configuration file can be used only with the 
 	 specified raster map, and the procedure can be used only if
 	 whole map layer is selected as sampling frame.</li>

imagery/i.his.rgb/i.his.rgb.html

@@ -5,8 +5,8 @@ processes three input raster map layers as hue, intensity
 and saturation components and produces three output raster
 map layers representing the red, green and blue components
 of this data.  The output raster map layers are created by
-a standard hue-intensity-saturation (his) to red-green-blue
-(rgb) color transformation.  Each output raster map layer
+a standard hue-intensity-saturation (HIS) to red-green-blue
+(RGB) color transformation.  Each output raster map layer
 is given a linear gray scale color table.  The current
 geographic region and mask settings are respected.
 

imagery/i.rgb.his/i.rgb.his.html

@@ -5,8 +5,8 @@ processes three input raster map layers as red, green, and
 blue components and produces three output raster map layers
 representing the hue, intensity, and saturation of the
 data.  The output raster map layers are created by a
-standard red-green-blue (rgb) to hue-intensity-saturation
-(his) color transformation.  Each output raster map layer
+standard red-green-blue (RGB) to hue-intensity-saturation
+(HIS) color transformation.  Each output raster map layer
 is given a linear gray scale color table.  The current
 geographic region definition and mask settings are
 respected.

raster/r.cross/r.cross.html

@@ -86,12 +86,7 @@ In the above example, the category labels would be:
 
 A random color table is also generated for the <em>output</em> map layer. 
 
-<h2>NOTES</h2>
-
-When run non-interactively, <em>r.cross</em> will not protect existing 
-files in the user's mapset. If the user specifies an <em>output</em> 
-file name that already exists in his mapset, the existing file will 
-be overwritten by the new <em>r.cross</em> output. 
+<!-- TODO: add example -->
 
 <h2>SEE ALSO</h2>
 

raster/r.his/r.his.html

@@ -105,7 +105,8 @@ Then convert from HIS model to RGB and show the result.
 <div class="code"><pre>
 r.mapcalc "elevation_shaded_relief_bright_50 = #elevation_shaded_relief * 1.5"
 r.colors elevation_shaded_relief_bright_50 color=grey255
-r.his hue=elevation intensity=elevation_shaded_relief_bright_50 red=shadedmap_r green=shadedmap_g blue=shadedmap_b
+r.his hue=elevation intensity=elevation_shaded_relief_bright_50 \
+      red=shadedmap_r green=shadedmap_g blue=shadedmap_b
 
 d.mon wx1
 d.rgb red=shadedmap_r green=shadedmap_g blue=shadedmap_b