code cleanup

meson.build

@@ -26,10 +26,3 @@ subdir('src')
 subdir('po')
 
 meson.add_install_script('build-aux/meson/postinstall.py')
-
-gnome.post_install(
-  gtk_update_icon_cache: true,
-  glib_compile_schemas: true,
-  update_desktop_database: true,
-)
-

src/calculations/calculations_moon.c

@@ -30,8 +30,11 @@ float
   longitude_moon = calc_deg_to_rad (longitude_moon);
   latitude_moon = calc_deg_to_rad (latitude_moon);
 
-  right_ascension = atan2(cos(ecliptic)*sin(longitude_moon)-sin(ecliptic)*tan(latitude_moon), cos(longitude_moon));
-  declination = asin(cos(ecliptic)*sin(latitude_moon)+sin(ecliptic)*cos(latitude_moon)*sin(longitude_moon));
+  right_ascension = atan2(cos(ecliptic)*sin(longitude_moon)
+                          -sin(ecliptic)*tan(latitude_moon), cos(longitude_moon));
+
+  declination = asin(cos(ecliptic)*sin(latitude_moon)
+                     +sin(ecliptic)*cos(latitude_moon)*sin(longitude_moon));
 
   /* g_print("time_jd: %f, ecliptic: %f, longitude_moon: %f, latitude_moon: %f, right_ascension %f\n", time_jd, ecliptic, longitude_moon, latitude_moon, right_ascension); */
 

src/calculations/calculations_transformations.c

@@ -20,7 +20,8 @@ calc_rad_to_deg (float rad)
 
 
 int
-max_day_in_month (int month, int year)
+max_day_in_month (int month,
+                  int year)
 {
   int max_days = 30;
   /* check which month is set */
@@ -45,7 +46,10 @@ max_day_in_month (int month, int year)
 
 
 int
-times_to_time_zone (int day_utc, int hour_utc, int day_local, int hour_local)
+times_to_time_zone (int day_utc,
+                    int hour_utc,
+                    int day_local,
+                    int hour_local)
 {
   int time_zone;
   if (day_utc == day_local){
@@ -85,7 +89,14 @@ int
 
   time_zone = times_to_time_zone (tmp->tm_mday, tmp->tm_hour, tmp_local.tm_mday, tmp_local.tm_hour);
 
-  g_print ("UTC: %02d:%02d - %d.%d.%d, Time zone: %d\n", tmp->tm_hour, tmp->tm_min, tmp->tm_mday, tmp->tm_mon+1, tmp->tm_year+1900, time_zone);
+  g_print ("UTC: %02d:%02d - %d.%d.%d, Time zone: %d\n",
+           tmp->tm_hour,
+           tmp->tm_min,
+           tmp->tm_mday,
+           tmp->tm_mon+1,
+           tmp->tm_year+1900,
+           time_zone
+           );
 
   time_utc[0] = tmp->tm_year+1900;
   time_utc[1] = tmp->tm_mon+1;
@@ -189,7 +200,12 @@ calc_jd (int *time_utc)
     month += 12;
   }
 
-  time_jd = (int)(365.25*(year+4716.)) + (int)(30.6001*(month+1.)) - (int)(year/100.) + (int)(year/400.) + day + 2. - 1524.5;
+  time_jd = (int)(365.25*(year+4716.))
+            + (int)(30.6001*(month+1.))
+            - (int)(year/100.)
+            + (int)(year/400.)
+            + day + 2. - 1524.5;
+
   /* g_print ("Julian Day: %f, Day JD: %f, hour JD %f\n", *time_jd, day, hour); */
 
   /*Explanation:
@@ -231,7 +247,8 @@ calc_jd (int *time_utc)
 
 /* Calculate the Sidereal time in degree (German: Sternzeit) */
 double
-time_jd_to_sidereal_time(float longitude, double time_jd)
+time_jd_to_sidereal_time(float longitude,
+                         double time_jd)
 {
   float   hours_passed;
   double  T;
@@ -256,7 +273,10 @@ time_jd_to_sidereal_time(float longitude, double time_jd)
    * This formular is NOT allowed to get julian days which end on .5 (00:00), because the formular below only considers the rotation around the sun NOT its' own prcession.
    * So we only want to know in which "direktion" we look every day at 00:00 in Greenwich in comparison to the "fixed" stars. */
 
-  sidereal_time = 100.46061837 + T*(36000.770053608 + T*(0.000387933 - T/38710000.0)) + longitude + hours_passed*1.00273790935*15;
+  sidereal_time = 100.46061837
+                  + T*(36000.770053608 + T*(0.000387933 - T/38710000.0))
+                  + longitude + hours_passed*1.00273790935*15;
+
   sidereal_time = remainder(sidereal_time, 360);
 
   /* g_print("time_jd: %f, sidereal_time %f, hours_passed: %f\n", *time_jd, *sidereal_time, hours_passed); */
@@ -289,7 +309,9 @@ time_jd_to_sidereal_time(float longitude, double time_jd)
 
 /* Convert between the rotation coordinate system and the horizontal coordinate system */
 float
-*convert_rotational_to_horizontal_coordinate_system (float *coordinates_rot, float latitude, double time_sidereal)
+*convert_rotational_to_horizontal_coordinate_system (float *coordinates_rot,
+                                                     float latitude,
+                                                     double time_sidereal)
 {
   float x, y;
   float azimuth, elevation;
@@ -301,7 +323,9 @@ float
   right_ascension = calc_deg_to_rad (coordinates_rot[0]);
   declination = calc_deg_to_rad (coordinates_rot[1]);
 
-  x = -cos (latitude) * sin (declination) + sin (latitude) * cos (declination) * cos (time_sidereal - right_ascension);
+  x = -cos (latitude) * sin (declination)
+      + sin (latitude) * cos (declination) * cos (time_sidereal - right_ascension);
+
   y = cos (declination) * sin (time_sidereal - right_ascension);
 
   if (x < 0 && y <= 0)
@@ -330,7 +354,8 @@ float
     g_print("Error calculating azimuth!");
   }
 
-  elevation = asin (sin (latitude) * sin (declination) + cos (latitude) * cos (declination) * cos (time_sidereal - right_ascension));
+  elevation = asin (sin (latitude) * sin (declination)
+                    + cos (latitude) * cos (declination) * cos (time_sidereal - right_ascension));
 
   /* TODO
    * explanation missing!!

src/meson.build

@@ -18,7 +18,7 @@ picplanner_deps = [
 gnome = import('gnome')
 
 picplanner_sources += gnome.compile_resources('picplanner-resources',
-  'picplanner.gresource.xml', source_dir: '.',
+  'picplanner.gresource.xml',
   c_name: 'picplanner'
 )