Feature/docstrings

tudatpy/kernel/docstrings.h

@@ -2218,50 +2218,11 @@ In this example, the Modified Julian date `51544.5` ( corresponding to J2000) is
 
 
 
-    } else if(name == "calendar_date_to_day_of_year" ) {
-        return R"(
-
-Determine the number of full days that have passed in the year of a given calendar date.
-
-
-Parameters
-----------
-calendar_date : datetime.datetime
-    Datetime object, using the Python datetime library. Both the date and the time (hour, minutes, and seconds), can be specified. Milliseconds are ignored."
-Returns
--------
-int
-    Number of full days that have passed in the year at the given calendar date.
-
-
-
-
-
-Examples
---------
-In this example, the number of days that have passed in 2020 when the date is the 2nd of May is computed.
-
-.. code-block:: python
-
-  # Define the 2nd of May 2020
-  date = datetime.datetime(2020, 5, 2)
-  # Compute the number of full days that have passed in 2020 when at the given date
-  days_passed = time_conversion.calendar_date_to_day_of_year(date)
-  # Print the converted output
-  print(J2000)  # prints 122.0
-
-
-    )";
-
-
-
     } else if(name == "year_and_days_in_year_to_calendar_date" ) {
         return R"(
 
 Create the calendar date from the year and the number of days in the year.
 
-Can be seen as the inverse function of :func:`calendar_date_to_day_of_year`.
-
 Parameters
 ----------
 year : int
@@ -2270,8 +2231,8 @@ days_in_year : int
     Number of days that have passed in the year.
 Returns
 -------
-datetime.datetime
-    Corresponding calendar date as a datetime object, using the Python datetime library. .
+DateTime
+    Corresponding calendar date as a :class:`DateTime` object. Note: the hours, minutes and seconds in the object are set to 0 when calling this function.
 
 
 
@@ -2284,9 +2245,9 @@ In this example, the calendar date corresponding to when 122 days have passed in
 .. code-block:: python
 
   # Compute the calendar date when 122 days have passed in 2020
-  date = time_conversion.year_and_days_in_year_to_calendar_date(2020, 122)
+  currentDate = time_conversion.year_and_days_in_year_to_calendar_date(2020, 122)
   # Print the converted output
-  print(J2000)  # prints datetime.datetime(2020, 5, 2, 0, 0)
+  print(currentDate)  # prints (2020, 5, 2, 0, 0)
 
 
     )";

tudatpy/kernel/expose_astro.cpp

@@ -10,47 +10,46 @@
 
 #include "expose_astro.h"
 
-#include "expose_astro/expose_gravitation.h"
+#include <pybind11/pybind11.h>
+
 #include "expose_astro/expose_element_conversion.h"
 #include "expose_astro/expose_frame_conversion.h"
-#include "expose_astro/expose_time_conversion.h"
-#include "expose_astro/expose_two_body_dynamics.h"
 #include "expose_astro/expose_fundamentals.h"
+#include "expose_astro/expose_gravitation.h"
 #include "expose_astro/expose_polyhedron_utilities.h"
-
-#include <pybind11/pybind11.h>
+#include "expose_astro/expose_time_conversion.h"
+#include "expose_astro/expose_two_body_dynamics.h"
 
 namespace py = pybind11;
 
 namespace tudatpy {
 
-namespace astro {
-
-void expose_astro(py::module &m) {
-
-    auto element_conversion = m.def_submodule("element_conversion");
-    element_conversion::expose_element_conversion(element_conversion);
+    namespace astro {
 
-    auto frame_conversion = m.def_submodule("frame_conversion");
-    frame_conversion::expose_frame_conversion(frame_conversion);
+        void expose_astro(py::module &m) {
+            auto element_conversion = m.def_submodule("element_conversion");
+            element_conversion::expose_element_conversion(element_conversion);
 
-    auto time_conversion = m.def_submodule("time_conversion");
-    time_conversion::expose_time_conversion(time_conversion);
+            auto frame_conversion = m.def_submodule("frame_conversion");
+            frame_conversion::expose_frame_conversion(frame_conversion);
 
-    auto two_body_dynamics = m.def_submodule("two_body_dynamics");
-    two_body_dynamics::expose_two_body_dynamics(two_body_dynamics);
+            auto time_conversion = m.def_submodule("time_conversion");
+            time_conversion::expose_time_conversion(time_conversion);
 
-    auto gravitation = m.def_submodule("gravitation");
-    gravitation::expose_gravitation(gravitation);
+            auto two_body_dynamics = m.def_submodule("two_body_dynamics");
+            two_body_dynamics::expose_two_body_dynamics(two_body_dynamics);
 
-    auto fundamentals = m.def_submodule("fundamentals");
-    fundamentals::expose_fundamentals(fundamentals);
+            auto gravitation = m.def_submodule("gravitation");
+            gravitation::expose_gravitation(gravitation);
 
-    auto polyhedron_utilities = m.def_submodule("polyhedron_utilities");
-    polyhedron_utilities::expose_polyhedron_utilities( polyhedron_utilities );
+            auto fundamentals = m.def_submodule("fundamentals");
+            fundamentals::expose_fundamentals(fundamentals);
 
-}
+            auto polyhedron_utilities = m.def_submodule("polyhedron_utilities");
+            polyhedron_utilities::expose_polyhedron_utilities(
+                polyhedron_utilities);
+        }
 
-} // namespace astro
+    }  // namespace astro
 
-}// namespace tudatpy
+}  // namespace tudatpy

tudatpy/kernel/expose_astro.h

@@ -16,11 +16,11 @@
 namespace py = pybind11;
 
 namespace tudatpy {
-namespace astro {
+    namespace astro {
 
-void expose_astro(py::module &m);
+        void expose_astro(py::module &m);
 
-} // namespace astro
-}// namespace tudatpy
+    }  // namespace astro
+}  // namespace tudatpy
 
-#endif// TUDATPY_EXPOSE_ASTRO_H
+#endif  // TUDATPY_EXPOSE_ASTRO_H