Merge branch 'main' into datatypes/gmtcube

examples/projections/nongeo/cartesian_linear.py

@@ -4,18 +4,16 @@
 
 **X**\ *width*\ [/*height*] or **x**\ *x-scale*\ [/*y-scale*]
 
-Give the *width* of the figure and the optional *height*.
-The lower-case version **x** is similar to **X** but expects
-an *x-scale* and an optional *y-scale*.
+Give the *width* of the figure and the optional *height*. The lower-case version
+**x** is similar to **X** but expects an *x-scale* and an optional *y-scale*.
 
-The Cartesian linear projection is primarily designed for regular
-floating point data. To plot geographical data in a linear
-projection, see the upstream GMT documentation
-:gmt-docs:`Geographic coordinates
+The Cartesian linear projection is primarily designed for regular floating point
+data. To plot geographical data in a linear projection, see the upstream GMT
+documentation :gmt-docs:`Geographic coordinates
 <reference/coordinate-transformations.html#geographic-coordinates>`.
-To make the linear plot using calendar date/time as input
-coordinates, see the GMT documentation
-:gmt-docs:`Calendar time coordinates
+To make the linear plot using calendar date/time as input coordinates, see the
+tutorial :doc:`Plotting datetime charts </tutorials/advanced/date_time_charts>`.
+GMT documentation :gmt-docs:`Calendar time coordinates
 <reference/coordinate-transformations.html#calendar-time-coordinates>`.
 """
 
@@ -26,7 +24,7 @@
 # The region parameter is specified as x_min, x_max, y_min, y_max
 fig.basemap(region=[0, 10, 0, 50], projection="X15c/10c", frame=["afg", "+gbisque"])
 fig.plot(x=[3, 9, 2], y=[4, 9, 37], pen="2p,black")
-# Plot data points ontop of the line
+# Plot data points on top of the line
 # Use squares with a size of 0.3 centimeters, an "orange" fill and a "black" outline
 fig.plot(x=[3, 9, 2], y=[4, 9, 37], style="s0.3c", fill="orange", pen="black")
 fig.show()

examples/projections/nongeo/cartesian_logarithmic.py

@@ -38,7 +38,7 @@
 # Set the line thickness to "2p", the color to "black", and the style to "dashed"
 fig.plot(x=xline, y=yline, pen="2p,black,dashed")
 
-# Plot the square root values ontop of the line
+# Plot the square root values on top of the line
 # Use squares with a size of 0.3 centimeters, an "orange" fill and a "black" outline
 # Symbols are not clipped if they go off the figure
 fig.plot(x=xpoints, y=ypoints, style="s0.3c", fill="orange", pen="black", no_clip=True)

examples/projections/nongeo/cartesian_power.py

@@ -35,7 +35,7 @@
 # Use as color "black" (default) and as style "solid" (default)
 fig.plot(x=xvalues, y=yvalues, pen="thick,black,solid")
 
-# Plot the data points ontop of the line
+# Plot the data points on top of the line
 # Use circles with 0.3 centimeters diameter, with an "orange" fill and a "black" outline
 # Symbols are not clipped if they go off the figure
 fig.plot(x=xvalues, y=yvalues, style="c0.3c", fill="orange", pen="black", no_clip=True)

pygmt/datasets/earth_day.py

@@ -60,9 +60,8 @@ def load_blue_marble(
     Parameters
     ----------
     resolution
-        The image resolution. The suffix ``d``, ``m``, and ``s`` stand for arc-degree,
-        arc-minute, and arc-second.
-
+        The image resolution. The suffix ``d``, ``m``, and ``s`` stand for arc-degrees,
+        arc-minutes, and arc-seconds.
     region
         The subregion of the image to load, in the form of a sequence [*xmin*, *xmax*,
         *ymin*, *ymax*].

pygmt/datasets/earth_night.py

@@ -60,9 +60,8 @@ def load_black_marble(
     Parameters
     ----------
     resolution
-        The image resolution. The suffix ``d``, ``m``, and ``s`` stand for arc-degree,
-        arc-minute, and arc-second.
-
+        The image resolution. The suffix ``d``, ``m``, and ``s`` stand for arc-degrees,
+        arc-minutes, and arc-seconds.
     region
         The subregion of the image to load, in the form of a sequence [*xmin*, *xmax*,
         *ymin*, *ymax*].