end of line and end of file issues

ecodiv · ecodiv · commit 4e7a6053cf1a · 2026-01-19T18:50:34.000+01:00
diff --git a/src/raster/r.in.vect/r.in.vect.html b/src/raster/r.in.vect/r.in.vect.html
@@ -6,22 +6,22 @@ <h2>DESCRIPTION</h2>
 labels.
 
 <p>
-When users have a vector file that they want to convert to a raster
-map, they would normally import the vector map into GRASS GIS using,
-e.g., <em>v.in.ogr</em>, and subsequently convert the resulting vector
-into a raster map using <em>v.to.rast</em>. Because of the topological
-vector format of GRASS GIS, importing large complex vector maps can be
-slow. To speed up the process, <em>r.in.vect</em> converts the
-user-defined vector file to an intermediate geoTIF file (using <a
+When users have a vector file that they want to convert to a raster map, they
+would normally import the vector map into GRASS GIS using, e.g.,
+<em>v.in.ogr</em>, and subsequently convert the resulting vector into a raster
+map using <em>v.to.rast</em>. Because of the topological vector format of GRASS
+GIS, importing large complex vector maps can be slow. To speed up the process,
+<em>r.in.vect</em> converts the user-defined vector file to an intermediate
+geoTIF file (using <a
 href="https://gdal.org/api/python/utilities.html#osgeo.gdal.Rasterize">gdal.rasterize</a>)
 and imports it into GRASS GIS.
 
 <p>
-The objects in the vector map will be assigned an user-defined value
-using the <b>value</b> parameter. Alternatively, the user can use the
-<b>attribute_column</b> to specify the name of an existing column from
-the vector map's attribute table. The values in that column will be
-used as raster values in the output raster map.
+The objects in the vector map will be assigned an user-defined value using the
+<b>value</b> parameter. Alternatively, the user can use the
+<b>attribute_column</b> to specify the name of an existing column from the
+vector map's attribute table. The values in that column will be used as raster
+values in the output raster map.
 
 <p>
 Setting the <b>-c</b> flag counts the number of overlapping features per pixel
@@ -33,11 +33,10 @@ <h2>DESCRIPTION</h2>
 
 <h2>Notes</h2>
 
-By default, <em>r.in.vect</em> will only affect data in areas lying
-inside the boundaries of the current computational region. Before
-running the function, users should therefore ensure that the
-computational region is correctly set, and that the region's resolution
-is at the desired level.
+By default, <em>r.in.vect</em> will only affect data in areas lying inside the
+boundaries of the current computational region. Before running the function,
+users should therefore ensure that the computational region is correctly set,
+and that the region's resolution is at the desired level.
 
 <p>
 Alternatively, use the <b>-v</b> flag to import the entire vector extent,
@@ -48,32 +47,33 @@ <h2>Notes</h2>
 with the existing resolution.
 
 <p>
-If the coordinate reference system (CRS) of the vector file differs
-from that of the mapset in which users want to import the raster, the
-vector file will be first reprojected using <em>ogr2ogr</em>.
+
+If the coordinate reference system (CRS) of the vector file differs from that of
+the mapset in which users want to import the raster, the vector file will be
+first reprojected using <em>ogr2ogr</em>.
 
 <p>
-The <b>label_column</b> parameter can be used to assign raster category
-labels. Users should check if each unique value from the category
-column has one corresponding label in the label column. If there are
-categories with more than one label, the first from the label column
-will be used (and a warning will be printed).
+The <b>label_column</b> parameter can be used to assign raster category labels.
+Users should check if each unique value from the category column has one
+corresponding label in the label column. If there are categories with more than
+one label, the first from the label column will be used (and a warning will be
+printed).
 
 <p>
-With the <b>-d</b> flag, all pixels touched by lines or polygons will
-be updated, not just those on the line render path, or which center
-point is within the polygon. For lines, this is similar to setting the
-<b>-d</b> flag in <em>v.to.rast</em>.
+With the <b>-d</b> flag, all pixels touched by lines or polygons will be
+updated, not just those on the line render path, or which center point is within
+the polygon. For lines, this is similar to setting the <b>-d</b> flag in
+<em>v.to.rast</em>.
 
 <p>
-For simple and small vector layers, it is probably faster to
-import the vector layer first and converting it to a raster in GRASS.
+For simple and small vector layers, it is probably faster to import the vector
+layer first and converting it to a raster in GRASS.
 
 <h2>EXAMPLE</h2>
 
-The examples of <em>r.in.vect</em> use vector maps from the
-<a href="https://grass.osgeo.org/download/data/">North Carolina sample
-data set</a>.
+The examples of <em>r.in.vect</em> use vector maps from the <a
+href="https://grass.osgeo.org/download/data/">North Carolina sample data
+set</a>.
 
 <h3>Example 1</h3>
 
@@ -101,24 +101,22 @@ <h3>Example 1</h3>
 memory=2000
 </pre></div>
 
-<div align="left" style="margin: 10px"> <a href="r_in_vect_im01.png">
-<img src="r_in_vect_im01.png" alt="The geology vector file converted
-to, and imported as raster in GRASS. Example 1" border="0">
-</a><br><i>Figure 1: The geology vector file was converted to, and
-imported as a raster into GRASS GIS, using the default settings.</i>
-</div>
+<p>
+<div align="left" style="margin: 10px"> <a href="r_in_vect_im01.png"> <img
+src="r_in_vect_im01.png" alt="The geology vector file converted to, and imported
+as raster in GRASS. Example 1" border="0"> </a><br><i>Figure 1: The geology
+vector file was converted to, and imported as a raster into GRASS GIS, using the
+default settings.</i> </div>
 
 <p>
-If the GeoPackage file (or any other data source) has
-multiple layers, users need to specify which layer to use with
-the <b>layer</b> parameter. Otherwise, the first layer will be
-selected.
+If the GeoPackage file (or any other data source) has multiple layers, users
+need to specify which layer to use with the <b>layer</b> parameter. Otherwise,
+the first layer will be selected.
 
 <h3>Example 2</h3>
 
-Import the geology.gpkg as raster. Specify the column holding the
-values to use as raster values and the column holding the labels for
-the raster values.
+Import the geology.gpkg as raster. Specify the column holding the values to use
+as raster values and the column holding the labels for the raster values.
 
 <div class="code"><pre>
 # Import the layer
@@ -133,21 +131,19 @@ <h3>Example 2</h3>
 </pre></div>
 
 <p>
-<div align="left" style="margin: 10px"> <a href="r_in_vect_im02.png">
-<img src="r_in_vect_im02.png" alt="The geology vector file converted
-to, and imported as raster in GRASS GIS. Example 2" border="0">
-</a><br><i>Figure 2: The geology vector file converted to raster and
-imported into GRASS GIS using the values from the vector attribute
-column GEOL250_ as raster values.</i> </div>
+<div align="left" style="margin: 10px"> <a href="r_in_vect_im02.png"> <img
+src="r_in_vect_im02.png" alt="The geology vector file converted to, and imported
+as raster in GRASS GIS. Example 2" border="0"> </a><br><i>Figure 2: The geology
+vector file converted to raster and imported into GRASS GIS using the values
+from the vector attribute column GEOL250_ as raster values.</i> </div>
 
 
 <h3>Example 3</h3>
 
-First, set the resolution to 1 meter. Next, export the busroute6 vector
-map as GeoPackage, and import it as a raster. Use the <b>-v</b>
-flag to ensure the extent of the raster matches that of the
-vector (by default, the bounding box of the raster map will
-match that of the current computational region).
+First, set the resolution to 1 meter. Next, export the busroute6 vector map as
+GeoPackage, and import it as a raster. Use the <b>-v</b> flag to ensure the
+extent of the raster matches that of the vector (by default, the bounding box of
+the raster map will match that of the current computational region).
 
 <div class="code"><pre>
 # Set the resolution to 1 m
@@ -167,17 +163,15 @@ <h3>Example 3</h3>
 </pre></div>
 
 <p>
-<div align="left" style="margin: 10px"> <a href="r_in_vect_im03.png">
-<img src="r_in_vect_im03.png" alt="The busroute6 vector file converted
-to raster and imported into GRASS GIS. Example 3" border="0">
-</a><br><i>Figure 3: The busroute6 vector file converted to raster and
-imported into GRASS GIS using the extent of the vector map.</i> </div>
-
+<div align="left" style="margin: 10px"> <a href="r_in_vect_im03.png"> <img
+src="r_in_vect_im03.png" alt="The busroute6 vector file converted to raster and
+imported into GRASS GIS. Example 3" border="0"> </a><br><i>Figure 3: The
+busroute6 vector file converted to raster and imported into GRASS GIS using the
+extent of the vector map.</i> </div>
 
 <h3>Example 4</h3>
 
-The same as above, but using the <b>-d</b> flag to create densified
-lines.
+The same as above, but using the <b>-d</b> flag to create densified lines.
 
 <div class="code"><pre>
 # Import vector as a raster map, using the extent of the vector
@@ -189,13 +183,12 @@ <h3>Example 4</h3>
 </pre></div>
 
 <p>
-<div align="left" style="margin: 10px"> <a href="r_in_vect_im04.png">
-<img src="r_in_vect_im04.png" alt="The busroute6 vector file converted
-to raster and imported into GRASS GIS. Example 4" border="0">
-</a><br><i>Figure 4: Rasterize the busroute 6 vector map using the
-<b>-d</b> flag to create densified lines by adding extra cells (shown
-in red). This avoids gaps or lines that consist of cells that are only
-diagonally connected.</i> </div>
+<div align="left" style="margin: 10px"> <a href="r_in_vect_im04.png"> <img
+src="r_in_vect_im04.png" alt="The busroute6 vector file converted to raster and
+imported into GRASS GIS. Example 4" border="0"> </a><br><i>Figure 4: Rasterize
+the busroute 6 vector map using the <b>-d</b> flag to create densified lines by
+adding extra cells (shown in red). This avoids gaps or lines that consist of
+cells that are only diagonally connected.</i> </div>
 
 <h2>SEE ALSO</h2>
 
@@ -210,4 +203,4 @@ <h2>AUTHORS</h2>
 href="https://www.has.nl/en/research/professorships/climate-robust-landscapes-professorship/">Climate-robust
 Landscapes research group</a>  |
 <a href="https://www.has.nl/en/research/professorships/innovative-bio-monitoring-professorship/">Innovative Bio-Monitoring research group</a>  |
-Contact: <a href="https://ecodiv.earth">Ecodiv.earth</a>
+Contact: <a href="https://ecodiv.earth">Ecodiv.earth</a>
diff --git a/src/raster/r.in.vect/r.in.vect.md b/src/raster/r.in.vect/r.in.vect.md
@@ -1,16 +1,15 @@
 ## DESCRIPTION
 
-*r.in.vect* transforms an external vector file (like GeoPackage) into a
-raster file and imports it into GRASS GIS. Optionally, attributes from
-the vector layer can be converted to raster category labels.
-
-When users have a vector file that they want to convert to a raster map,
-they would normally import the vector map into GRASS GIS using, e.g.,
-*v.in.ogr*, and subsequently convert the resulting vector into a raster
-map using *v.to.rast*. Because of the topological vector format of GRASS
-GIS, importing large complex vector maps can be slow. To speed up the
-process, *r.in.vect* converts the user-defined vector file to an
-intermediate geoTIF file (using
+*r.in.vect* transforms an external vector file (like GeoPackage) into a raster
+file and imports it into GRASS GIS. Optionally, attributes from the vector layer
+can be converted to raster category labels.
+
+When users have a vector file that they want to convert to a raster map, they
+would normally import the vector map into GRASS GIS using, e.g., *v.in.ogr*, and
+subsequently convert the resulting vector into a raster map using *v.to.rast*.
+Because of the topological vector format of GRASS GIS, importing large complex
+vector maps can be slow. To speed up the process, *r.in.vect* converts the
+user-defined vector file to an intermediate geoTIF file (using
 [gdal.rasterize](https://gdal.org/api/python/utilities.html#osgeo.gdal.Rasterize))
 and imports it into GRASS GIS.
 
@@ -60,8 +59,8 @@ layer first and converting it to a raster in GRASS.
 
 ## EXAMPLE
 
-The examples of *r.in.vect* use vector maps from the [North Carolina
-sample data set](https://grass.osgeo.org/download/data/).
+The examples of *r.in.vect* use vector maps from the [North Carolina sample data
+set](https://grass.osgeo.org/download/data/).
 
 ### Example 1
 
@@ -72,10 +71,9 @@ First, export a vector layer as a GeoPackage.
 v.out.ogr input=geology@PERMANENT output=geology.gpkg format=GPKG
 ```
 
-Import the geology.gpkg as raster. Raster cells overlapping with the
-vector features will be assigned a value of 1, and the other raster
-cells null. If you have RAM to spare, increase the memory to speed up
-the import.
+Import the geology.gpkg as raster. Raster cells overlapping with the vector
+features will be assigned a value of 1, and the other raster cells null. If you
+have RAM to spare, increase the memory to speed up the import.
 
 ```sh
 # Set the region
@@ -88,19 +86,18 @@ value=1 \
 memory=2000
 ```
 
-[![image-alt](r_in_vect_im01.png)](r_in_vect_im01.png)
-*Figure 1: The geology vector file was converted to, and imported as a
-raster into GRASS GIS, using the default settings.*
+[![image-alt](r_in_vect_im01.png)](r_in_vect_im01.png) *Figure 1: The geology
+vector file was converted to, and imported as a raster into GRASS GIS, using the
+default settings.*
 
-If the GeoPackage file (or any other data source) has multiple layers,
-users need to specify which layer to use with the **layer** parameter.
-Otherwise, the first layer will be selected.
+If the GeoPackage file (or any other data source) has multiple layers, users
+need to specify which layer to use with the **layer** parameter. Otherwise, the
+first layer will be selected.
 
 ### Example 2
 
-Import the geology.gpkg as raster. Specify the column holding the values
-to use as raster values and the column holding the labels for the raster
-values.
+Import the geology.gpkg as raster. Specify the column holding the values to use
+as raster values and the column holding the labels for the raster values.
 
 ```sh
 # Import the layer
@@ -114,18 +111,16 @@ memory=2000
 r.colors map=geology_rast2 color=random
 ```
 
-[![image-alt](r_in_vect_im02.png)](r_in_vect_im02.png)
-*Figure 2: The geology vector file converted to raster and imported into
-GRASS GIS using the values from the vector attribute column GEOL250\_ as
-raster values.*
+[![image-alt](r_in_vect_im02.png)](r_in_vect_im02.png) *Figure 2: The geology
+vector file converted to raster and imported into GRASS GIS using the values
+from the vector attribute column GEOL250\_ as raster values.*
 
 ### Example 3
 
-First, set the resolution to 1 meter. Next, export the busroute6 vector
-map as GeoPackage, and import it as a raster. Use the **-v** flag to
-ensure the extent of the raster matches that of the vector (by default,
-the bounding box of the raster map will match that of the current
-computational region).
+First, set the resolution to 1 meter. Next, export the busroute6 vector map as
+GeoPackage, and import it as a raster. Use the **-v** flag to ensure the extent
+of the raster matches that of the vector (by default, the bounding box of the
+raster map will match that of the current computational region).
 
 ```sh
 # Set the resolution to 1 m
@@ -144,9 +139,9 @@ value=1 \
 memory=2000
 ```
 
-[![image-alt](r_in_vect_im03.png)](r_in_vect_im03.png)
-*Figure 3: The busroute6 vector file converted to raster and imported
-into GRASS GIS using the extent of the vector map.*
+[![image-alt](r_in_vect_im03.png)](r_in_vect_im03.png) *Figure 3: The busroute6
+vector file converted to raster and imported into GRASS GIS using the extent of
+the vector map.*
 
 ### Example 4
 
@@ -161,21 +156,20 @@ value=1 \
 memory=2000
 ```
 
-[![image-alt](r_in_vect_im04.png)](r_in_vect_im04.png)
-*Figure 4: Rasterize the busroute 6 vector map using the **-d** flag to
-create densified lines by adding extra cells (shown in red). This avoids
-gaps or lines that consist of cells that are only diagonally connected.*
+[![image-alt](r_in_vect_im04.png)](r_in_vect_im04.png) *Figure 4: Rasterize the
+busroute 6 vector map using the **-d** flag to create densified lines by adding
+extra cells (shown in red). This avoids gaps or lines that consist of cells that
+are only diagonally connected.*
 
 ## SEE ALSO
 
 *[v.to.rast](https://grass.osgeo.org/grass-stable/manuals/v.to.rast.html)*
 
 ## AUTHORS
 
-Paulo van Breugel | [HAS green academy](https://has.nl), University of
-Applied Sciences | [Climate-robust Landscapes research
+Paulo van Breugel | [HAS green academy](https://has.nl), University of Applied
+Sciences | [Climate-robust Landscapes research
 group](https://www.has.nl/en/research/professorships/climate-robust-landscapes-professorship/)
 | [Innovative Bio-Monitoring research
 group](https://www.has.nl/en/research/professorships/innovative-bio-monitoring-professorship/)
 | Contact: [Ecodiv.earth](https://ecodiv.earth)
-
