BUG: fix export ellipses to kml function

Author: Gui-FernandesBR

docs/notebooks/monte_carlo_analysis/monte_carlo_analysis_outputs/monte_carlo_class_example.errors.txt

@@ -0,0 +1 @@
+{"elevation": 113, "gravity": "'Function from R1 to R1 : (height (m)) \u2192 (gravity (m/s\u00b2))'", "latitude": 39.3897, "longitude": -8.288964, "wind_velocity_x_factor": 1.0, "wind_velocity_y_factor": 1.0, "datum": "SIRGAS2000", "timezone": "UTC", "ensemble_member": 12, "radius": 0.0635026504073287, "mass": 15.682085969389227, "I_11_without_motor": 6.321, "I_22_without_motor": 6.338988882158036, "I_33_without_motor": 0.03130204348386302, "I_12_without_motor": 0, "I_13_without_motor": 0, "I_23_without_motor": 0, "power_off_drag": "'Function from R1 to R1 : (Mach Number) \u2192 (Drag Coefficient with Power Off)'", "power_on_drag": "'Function from R1 to R1 : (Mach Number) \u2192 (Drag Coefficient with Power On)'", "power_off_drag_factor": 1.0, "power_on_drag_factor": 1.0, "center_of_mass_without_motor": 0.0, "coordinate_system_orientation": "tail_to_nose", "parachutes": [{"cd_s": 9.964579481480238, "trigger": 800, "sampling_rate": 105, "lag": 1.5400928421750208, "noise": [0, 8.3, 0.5], "name": "Main"}, {"cd_s": 1.053581347292585, "trigger": "apogee", "sampling_rate": 105, "lag": 1.547076677223584, "noise": [0, 8.3, 0.5], "name": "Drogue"}], "motors": [{"thrust_source": [[0, 0], [0.055, 100.0], [0.092, 1500.0], [0.1, 2000.0], [0.15, 2200.0], [0.2, 1800.0], [0.5, 1950.0], [1.0, 2034.0], [1.5, 2000.0], [2.0, 1900.0], [2.5, 1760.0], [2.9, 1700.0], [3.0, 1650.0], [3.3, 530.0], [3.4, 350.0], [3.9, 0.0]], "total_impulse": 6856.354770975974, "burn_start_time": 0, "burn_out_time": 3.9, "dry_mass": 1.815, "dry_I_11": 0.125, "dry_I_22": 0.125, "dry_I_33": 0.002, "dry_I_12": 0, "dry_I_13": 0, "dry_I_23": 0, "nozzle_radius": 0.032730650070270366, "grain_number": 5, "grain_density": 1759.0002074492309, "grain_outer_radius": 0.03242230462181787, "grain_initial_inner_radius": 0.014932033668244029, "grain_initial_height": 0.11986670781368569, "grain_separation": 0.0043804774372666125, "grains_center_of_mass_position": 0.39749334004739806, "center_of_dry_mass_position": 0.317, "nozzle_position": 0.00012776739944301812, "throat_radius": 0.011558987272317063, "interpolate": "linear", "coordinate_system_orientation": "nozzle_to_combustion_chamber", "position": -1.2554668494646906}], "aerodynamic_surfaces": [{"length": 0.5585738309196118, "kind": "vonKarman", "base_radius": 0.0635, "bluffness": 0, "rocket_radius": 0.0635, "name": "Nose Cone", "position": [0, 0, 1.133607250248703]}, {"n": 4, "root_chord": 0.11954751546671595, "tip_chord": 0.05966602935963838, "span": 0.10964031934715668, "rocket_radius": 0.0635, "cant_angle": 0.5, "sweep_length": 0.06, "sweep_angle": null, "airfoil": ["../../../data/calisto/NACA0012-radians.csv", "radians"], "name": "Fins", "position": [0, 0, -1.0514983708842365]}, {"top_radius": 0.06343918078680816, "bottom_radius": 0.04325007199856578, "length": 0.060394317313238605, "rocket_radius": 0.0635, "name": "Tail", "position": [0, 0, [0, 0, -1.194656]]}], "rail_buttons": [{"buttons_distance": 0.6974746622933771, "angular_position": 45, "name": "Rail Buttons", "lower_button_position": -0.6188258915052254, "upper_button_position": 0.07864877078815169}], "rail_length": 5, "inclination": 84.44167248190685, "heading": 54.43860091183173}

docs/notebooks/monte_carlo_analysis/monte_carlo_analysis_outputs/monte_carlo_class_example.inputs.txt

@@ -1,4 +1,5 @@
 import matplotlib.pyplot as plt
+import numpy as np
 
 from ..tools import generate_monte_carlo_ellipses, import_optional_dependency
 
@@ -54,14 +55,27 @@ def ellipses(
                     "The image file was not found. Please check the path."
                 ) from e
 
-        (
-            impact_ellipses,
-            apogee_ellipses,
+        try:
+            apogee_x = np.array(self.monte_carlo.results["apogee_x"])
+            apogee_y = np.array(self.monte_carlo.results["apogee_y"])
+        except KeyError:
+            print("No apogee data found. Skipping apogee ellipses.")
+            apogee_x = np.array([])
+            apogee_y = np.array([])
+        try:
+            impact_x = np.array(self.monte_carlo.results["x_impact"])
+            impact_y = np.array(self.monte_carlo.results["y_impact"])
+        except KeyError:
+            print("No impact data found. Skipping impact ellipses.")
+            impact_x = np.array([])
+            impact_y = np.array([])
+
+        impact_ellipses, apogee_ellipses = generate_monte_carlo_ellipses(
             apogee_x,
             apogee_y,
             impact_x,
             impact_y,
-        ) = generate_monte_carlo_ellipses(self.monte_carlo.results)
+        )
 
         # Create plot figure
         plt.figure(figsize=(8, 6), dpi=150)
@@ -97,9 +111,7 @@ def ellipses(
             )
 
         plt.legend()
-        ax.set_title(
-            "1$\\sigma$, 2$\\sigma$ and 3$\\sigma$ Monte Carlo Ellipses: Apogee and Landing Points"
-        )
+        ax.set_title("1$\\sigma$, 2$\\sigma$ and 3$\\sigma$ Monte Carlo Ellipses")
         ax.set_ylabel("North (m)")
         ax.set_xlabel("East (m)")
 

docs/notebooks/monte_carlo_analysis/monte_carlo_analysis_outputs/monte_carlo_class_example.kml

@@ -772,7 +772,7 @@ def export_ellipses_to_kml(  # pylint: disable=too-many-statements
         origin_lon,
         type="all",  # TODO: Don't use "type" as a parameter name, it's a reserved word  # pylint: disable=redefined-builtin
         resolution=100,
-        color="ff0000ff",
+        colors=("ffff0000", "ff00ff00"),  # impact, apogee
     ):
         """
         Generates a KML file with the ellipses on the impact point, which can be
@@ -793,9 +793,11 @@ def export_ellipses_to_kml(  # pylint: disable=too-many-statements
             Number of points to be used to draw the ellipse. Default is 100. You
             can increase this number to make the ellipse smoother, but it will
             increase the file size. It is recommended to keep it below 1000.
-        color : str, optional
-            Color of the ellipse. Default is 'ff0000ff', which is red. Kml files
-            use an 8 digit HEX color format, see its docs.
+        colors : tuple[str, str], optional
+            Colors of the ellipses. Default is ['ffff0000', 'ff00ff00'], which
+            are blue and green, respectively. The first element is the color of
+            the impact ellipses, and the second element is the color of the
+            apogee. The colors are in hexadecimal format (aabbggrr).
 
         Returns
         -------
@@ -812,50 +814,88 @@ def export_ellipses_to_kml(  # pylint: disable=too-many-statements
             large distances offsets, as the atmospheric conditions may change.
         """
         # TODO: The lat and lon should be optional arguments, we can get it from the env
-        (
-            impact_ellipses,
-            apogee_ellipses,
-            *_,
-        ) = generate_monte_carlo_ellipses(self.results)
+        # Retrieve monte carlo data por apogee and impact XY position
+        if type not in ["all", "impact", "apogee"]:
+            raise ValueError("Invalid type. Options are 'all', 'impact' and 'apogee'")
+
+        apogee_x = np.array([])
+        apogee_y = np.array([])
+        impact_x = np.array([])
+        impact_y = np.array([])
+        if type in ["all", "apogee"]:
+            try:
+                apogee_x = np.array(self.results["apogee_x"])
+                apogee_y = np.array(self.results["apogee_y"])
+            except KeyError as e:
+                raise KeyError("No apogee data found. Skipping apogee ellipses.") from e
+
+        if type in ["all", "impact"]:
+            try:
+                impact_x = np.array(self.results["x_impact"])
+                impact_y = np.array(self.results["y_impact"])
+            except KeyError as e:
+                raise KeyError("No impact data found. Skipping impact ellipses.") from e
+
+        (apogee_ellipses, impact_ellipses) = generate_monte_carlo_ellipses(
+            impact_x,
+            impact_y,
+            apogee_x,
+            apogee_y,
+        )
+
         outputs = []
 
         if type in ["all", "impact"]:
-            outputs = outputs + generate_monte_carlo_ellipses_coordinates(
-                impact_ellipses, origin_lat, origin_lon, resolution=resolution
+            outputs.extend(
+                generate_monte_carlo_ellipses_coordinates(
+                    impact_ellipses, origin_lat, origin_lon, resolution=resolution
+                )
             )
 
         if type in ["all", "apogee"]:
-            outputs = outputs + generate_monte_carlo_ellipses_coordinates(
-                apogee_ellipses, origin_lat, origin_lon, resolution=resolution
+            outputs.extend(
+                generate_monte_carlo_ellipses_coordinates(
+                    apogee_ellipses, origin_lat, origin_lon, resolution=resolution
+                )
             )
 
-        # TODO: Non-iterable value output is used in an iterating context PylintE1133:
-        kml_data = [[(coord[1], coord[0]) for coord in output] for output in outputs]
+        if all(isinstance(output, list) for output in outputs):
+            kml_data = [
+                [(coord[1], coord[0]) for coord in output] for output in outputs
+            ]
+        else:
+            raise ValueError("Each element in outputs must be a list")
 
         kml = simplekml.Kml()
 
-        for i in range(len(outputs)):
-            if (type == "all" and i < 3) or (type == "impact"):
-                ellipse_name = "Impact \u03C3" + str(i + 1)
-            elif type == "all" and i >= 3:
-                ellipse_name = "Apogee \u03C3" + str(i - 2)
+        for i, points in enumerate(kml_data):
+            if i < len(impact_ellipses):
+                name = f"Impact Ellipse {i+1}"
+                ellipse_color = colors[0]  # default is blue
             else:
-                ellipse_name = "Apogee \u03C3" + str(i + 1)
+                name = f"Apogee Ellipse {i +1- len(impact_ellipses)}"
+                ellipse_color = colors[1]  # default is green
 
-            mult_ell = kml.newmultigeometry(name=ellipse_name)
+            mult_ell = kml.newmultigeometry(name=name)
             mult_ell.newpolygon(
-                outerboundaryis=kml_data[i],
-                name="Ellipse " + str(i),
+                outerboundaryis=points,
+                name=name,
             )
             # Setting ellipse style
             mult_ell.tessellate = 1
             mult_ell.visibility = 1
-            mult_ell.style.linestyle.color = color
+            mult_ell.style.linestyle.color = ellipse_color
             mult_ell.style.linestyle.width = 3
             mult_ell.style.polystyle.color = simplekml.Color.changealphaint(
-                100, simplekml.Color.blue
+                80, ellipse_color
             )
 
+        kml.newpoint(
+            name="Launch Pad",
+            coords=[(origin_lon, origin_lat)],
+            description="Flight initial position",
+        )
+
         kml.save(filename)
 
     def info(self):