Com

documentation/modules/basemap.md

@@ -18,8 +18,6 @@ At least one of the options \myreflink{frame}, **map_scale**, or **rose** must b
 
 \textinput{common_opts/opt_R}
 
-\textinput{common_opts/opt_R_3D}
-
 - **A** or **polygon** : *polygon=true* or *polygon=fname*\
     No plotting is performed. Instead, we determine the geographical coordinates of the polygon outline
     for the (possibly oblique) rectangular map domain. The plot domain must be given via \myreflink{limits}

documentation/modules/grdimage.md

@@ -64,10 +64,11 @@ Optional Arguments
    color bar on the right side of the image using the current color map stored in the global scope. To
    access all options available in the *colorbar* module passe them in the named tuple (...).
 
-- **clim** : -- *clim=(z_min,z_max)*\
+- **clim** : -- *clim=(z_min,z_max)* **|** *clim=:zscale*\
    When doing an automatic colorization (*i.e.*, when a colormap is not provided explicitly), limit the automatic
    color map to be computed between *z_min,z_max*. Grid values below *z_min* and above *z_max* will be painted
-   with the same color as those.
+   with the same color as those. Alternatively, use *clim=:zscale* to use the Interval based on IRAF’s zscale
+   that is an algorithm used in astronomy for finding colorbar limits of for the grid, which showcase data near the median.
 
 - **equalize** : -- *equalize=true* **|** *equalize=ncolors*\
    With automatic colorization, map data values to colors through the data’s cumulative distribution function (CDF),

documentation/modules/inset.md

@@ -172,7 +172,7 @@ Add an inset to basemap image with a rectangle in the inset taken from main imag
 ```julia
 using GMT
 
-basemap(region=(-48,-43,-26,-20), J=:merc,
-        inset=(coast, R="-80/-28/-43/10", J=:merc, shore=true, rect=(2,:red)), show=true)
+basemap(region=(-48,-43,-26,-20), proj=:merc,
+        inset=(coast, R="-80/-28/-43/10", proj=:merc, shore=true, rect=(2,:red)), show=true)
 ```
 \end{examplefig}

documentation/modules/makecpt.md

@@ -10,6 +10,12 @@ or
 makecpt(name::Symbol; kwargs...)
 ```
 
+or
+
+```julia
+makecpt(G::GMTgrid; kwargs...)
+```
+
 *keywords: GMT, Julia, colormaps*
 
 Make static color palette tables (CPTs) from master CPTs.
@@ -33,11 +39,14 @@ The color model (RGB, HSV or CMYK) of the palette created by **makecpt** will be
 the master CPT. When there is no `COLOR_MODEL` entry in the master CPT, the `COLOR_MODEL` specified in the `gmt.conf`
 file or on the command line will be used.
 
-The second form is a quick way of generating CPT objects for use in the ``imshow`` function. Here `name` (as a symbol)
+The second form is a quick way of generating CPT objects for use in the ``imshow/viz`` functions. Here `name` (as a symbol)
 is the name of any of the GM default palettes. It can also be the name of CPT file living in current directory. With it,
 you don't specify the `color=cptname` as it is already implied by the fact that first argin is a symbol. As mentioned,
 its primary usage is to quickly show a CPT with the ``imshow`` command. *e.g* ``imshow(:gray)``
 
+The third form created the colormap from _z_min, z_max_ limits of the grid `G`. The options for this form are the same as
+for the other two, plus the `equalize` option that actually call `grd2cpt` and call a histgram equalized cmap.
+
 Optional Arguments
 ------------------
 
@@ -60,6 +69,11 @@ Optional Arguments
     table data z-range into *nlevels* equidistant slices. If *nlevels* is not given it defaults to the number of
     levels in the chosen CPT.
 
+- **equalize** -- *equalize=true* **|** *equalize=nlevels*\
+    Create an histgram equalized CPT. If *nlevels* is not given it defaults to the number guessed by `grd2cpt`.
+    Note that when using this option and, by consequence, the form that takes a grid as input, the other
+    options are those of the `grd2cpt` function.
+
 - **F** or **color_model** : -- *color_model=true|:r|:h|:c["+c"[label]]* **|** *color_model="+kkeys"*\
     Force output CPT to be written with r/g/b codes, gray-scale values or color name (the default)
     or r/g/b codes only (**r**), or h-s-v codes (**h**), or c/m/y/k codes (**c**). Optionally or

documentation/modules/scatter.md

@@ -31,7 +31,7 @@ Optional Arguments
 
 - **zcolor** or **markerz** or **mz** : -- *zcolor=xx* **|** *zcolor=true*\
    Take the vector `xx` (same size as number os points in data) and interpolate the current color scale to paint the
-   symbols based on that colr scale. The form `zcolor=true` is equivant to *zcolor=1:npoints*
+   symbols based on that color scale. The form `zcolor=true` is equivant to *zcolor=1:npoints*
 
 - **S** or *symbol* or *marker* or *Marker* or *shape* : -- Default is `circle` with a diameter of 7 points
    - *symbol=symbol* string\

documentation/utilities/gridit.md

@@ -19,7 +19,7 @@ Interpolation methods may be those of GMT and GDAL (gdal_grid).
   "lowest" will compute those amounts inside each *rectangular* cell.
 
     - Or (GDAL): "invdist", "invdistnn", "average", "nearest", "linear", "minimum", "maximum", "range",
-      "count", "average_distance", "average_distance_pts". See https://gdal.org/programs/gdal_grid.html#gdal-grid
+      "count", "average\_distance", "average\_distance_pts". See [gdal_grid](https://gdal.org/programs/gdal_grid.html#gdal-grid)
 
     - Note that there is some overlap between the diverse methods. For example, the GMT's \myreflink{nearneighbor}
       and GDAL's `invdist` apply the same algorithm (the Inverse Distance Weight) but they difer on how