build: migrate to qt 5.15

1 files changed, 82 insertions, 51 deletions

diff --git a/src/SunClock.cpp b/src/SunClock.cpp
index ead4d54..132c0a6 100644
--- a/src/SunClock.cpp
+++ b/src/SunClock.cpp
@@ -1,5 +1,5 @@
-#include <cmath>
 #include <SunClock.hpp>
+#include <cmath>
 #include <stdexcept>
 
 inline double rad(double degrees) {
@@ -12,7 +12,8 @@ inline double deg(double radians) {
   return radians * radToDeg;
 }
 
-Sunclock::Sunclock(double const &latitude_, double const &longitude_, double const &tz_offset_)
+Sunclock::Sunclock(double const &latitude_, double const &longitude_,
+                   double const &tz_offset_)
     : latitude(latitude_), longitude(longitude_), tz_offset(tz_offset_) {}
 
 double Sunclock::irradiance() { return irradiance(time(0)); }
@@ -32,7 +33,8 @@ double Sunclock::irradiance(time_t when) {
   double _sun_app_long = sun_app_long(_sun_true_long, _julian_century);
   double _eccent_earth_orbit = eccent_earth_orbit(_julian_century);
   double _var_y = var_y(_obliq_corr);
-  double _eq_of_time = eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
+  double _eq_of_time =
+      eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
   double _declination = declination(_obliq_corr, _sun_app_long);
   double _true_solar_time = true_solar_time(_time_of_day, _eq_of_time);
   double _hour_angle = hour_angle(_true_solar_time);
@@ -57,13 +59,16 @@ time_t Sunclock::sunrise(time_t date) {
   double _sun_app_long = sun_app_long(_sun_true_long, _julian_century);
   double _eccent_earth_orbit = eccent_earth_orbit(_julian_century);
   double _var_y = var_y(_obliq_corr);
-  double _eq_of_time = eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
+  double _eq_of_time =
+      eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
   double _declination = declination(_obliq_corr, _sun_app_long);
   double _hour_angle_sunrise = hour_angle_sunrise(_declination);
 
-  double noon_decimal_day = (720 - 4 * longitude - _eq_of_time + tz_offset * 60) / 1440;
+  double noon_decimal_day =
+      (720 - 4 * longitude - _eq_of_time + tz_offset * 60) / 1440;
   double decimal_day = noon_decimal_day - _hour_angle_sunrise * 4 / 1440;
-  return time_from_decimal_day(date, decimal_day) - (time_t)(tz_offset * 60 * 60);
+  return time_from_decimal_day(date, decimal_day) -
+         (time_t)(tz_offset * 60 * 60);
 }
 
 time_t Sunclock::solar_noon() { return solar_noon(time(0)); }
@@ -80,10 +85,13 @@ time_t Sunclock::solar_noon(time_t date) {
   double _obliq_corr = obliq_corr(_mean_obliq_ecliptic, _julian_century);
   double _eccent_earth_orbit = eccent_earth_orbit(_julian_century);
   double _var_y = var_y(_obliq_corr);
-  double _eq_of_time = eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
+  double _eq_of_time =
+      eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
 
-  double decimal_day = (720 - 4 * longitude - _eq_of_time + tz_offset * 60) / 1440;
-  return time_from_decimal_day(date, decimal_day) - (time_t)(tz_offset * 60 * 60);
+  double decimal_day =
+      (720 - 4 * longitude - _eq_of_time + tz_offset * 60) / 1440;
+  return time_from_decimal_day(date, decimal_day) -
+         (time_t)(tz_offset * 60 * 60);
 }
 
 time_t Sunclock::sunset() { return sunset(time(0)); }
@@ -103,13 +111,16 @@ time_t Sunclock::sunset(time_t date) {
   double _sun_app_long = sun_app_long(_sun_true_long, _julian_century);
   double _eccent_earth_orbit = eccent_earth_orbit(_julian_century);
   double _var_y = var_y(_obliq_corr);
-  double _eq_of_time = eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
+  double _eq_of_time =
+      eq_of_time(_var_y, _mean_long_sun, _eccent_earth_orbit, _mean_anom_sun);
   double _declination = declination(_obliq_corr, _sun_app_long);
   double _hour_angle_sunrise = hour_angle_sunrise(_declination);
 
-  double noon_decimal_day = (720 - 4 * longitude - _eq_of_time + tz_offset * 60) / 1440;
+  double noon_decimal_day =
+      (720 - 4 * longitude - _eq_of_time + tz_offset * 60) / 1440;
   double decimal_day = noon_decimal_day + _hour_angle_sunrise * 4 / 1440;
-  return time_from_decimal_day(date, decimal_day) - (time_t)(tz_offset * 60 * 60);
+  return time_from_decimal_day(date, decimal_day) -
+         (time_t)(tz_offset * 60 * 60);
 }
 
 double Sunclock::time_of_day(time_t date) {
@@ -142,7 +153,8 @@ time_t Sunclock::time_from_decimal_day(time_t date, double decimal_day) {
 int Sunclock::days_since_1900(struct tm *t) {
   int year = t->tm_year;
   if (year < 0 || year > 199) {
-    throw std::invalid_argument("days_since_1900 - Date must be between 1900 and 2099");
+    throw std::invalid_argument(
+        "days_since_1900 - Date must be between 1900 and 2099");
   }
   int month = t->tm_mon + 1;
   int days = t->tm_mday;
@@ -157,33 +169,44 @@ int Sunclock::days_since_1900(struct tm *t) {
   return (yearDays + monthDays + days - 63);
 }
 
-double Sunclock::julian_day(struct tm *t, double const &time_of_day, double const &tz_offset) {
+double Sunclock::julian_day(struct tm *t, double const &time_of_day,
+                            double const &tz_offset) {
   return days_since_1900(t) + 2415018.5 + time_of_day - tz_offset / 24;
 }
 
-double Sunclock::julian_century(double _julian_day) { return (_julian_day - 2451545.0) / 36525.0; }
+double Sunclock::julian_century(double _julian_day) {
+  return (_julian_day - 2451545.0) / 36525.0;
+}
 
 double Sunclock::mean_long_sun(double _julian_century) {
-  return (280.46646 + fmod(_julian_century * (36000.76983 + _julian_century * 0.0003032), 360));
+  return (
+      280.46646 +
+      fmod(_julian_century * (36000.76983 + _julian_century * 0.0003032), 360));
 }
 
 double Sunclock::mean_anom_sun(double _julian_century) {
-  return 357.52911 + _julian_century * (35999.05029 - 0.0001537 * _julian_century);
+  return 357.52911 +
+         _julian_century * (35999.05029 - 0.0001537 * _julian_century);
 }
 
-double Sunclock::sun_eq_of_centre(double _mean_anom_sun, double _julian_century) {
-  return sin(rad(_mean_anom_sun))
-             * (1.914602 - _julian_century * (0.004817 + 0.000014 * _julian_century))
-         + sin(rad(2 * _mean_anom_sun)) * (0.019993 - 0.000101 * _julian_century)
-         + sin(rad(3 * _mean_anom_sun)) * 0.000289;
+double Sunclock::sun_eq_of_centre(double _mean_anom_sun,
+                                  double _julian_century) {
+  return sin(rad(_mean_anom_sun)) *
+             (1.914602 -
+              _julian_century * (0.004817 + 0.000014 * _julian_century)) +
+         sin(rad(2 * _mean_anom_sun)) *
+             (0.019993 - 0.000101 * _julian_century) +
+         sin(rad(3 * _mean_anom_sun)) * 0.000289;
 }
 
-double Sunclock::sun_true_long(double _mean_long_sun, double _sun_eq_of_centre) {
+double Sunclock::sun_true_long(double _mean_long_sun,
+                               double _sun_eq_of_centre) {
   return _mean_long_sun + _sun_eq_of_centre;
 }
 
 double Sunclock::eccent_earth_orbit(double _julian_century) {
-  return 0.016708634 - _julian_century * (0.000042037 + 0.0001537 * _julian_century);
+  return 0.016708634 -
+         _julian_century * (0.000042037 + 0.0001537 * _julian_century);
 }
 
 double Sunclock::var_y(double _obliq_corr) {
@@ -191,55 +214,63 @@ double Sunclock::var_y(double _obliq_corr) {
 }
 
 double Sunclock::mean_obliq_ecliptic(double _julian_century) {
-  return (23
-          + (26
-             + ((21.448
-                 - _julian_century
-                       * (46.815 + _julian_century * (0.00059 - _julian_century * 0.001813))))
-                   / 60)
-                / 60);
+  return (23 + (26 + ((21.448 - _julian_century *
+                                    (46.815 + _julian_century *
+                                                  (0.00059 - _julian_century *
+                                                                 0.001813)))) /
+                         60) /
+                   60);
 }
 
-double Sunclock::obliq_corr(double _mean_obliq_ecliptic, double _julian_century) {
-  return _mean_obliq_ecliptic + 0.00256 * cos(deg(125.04 - 1934.136 * _julian_century));
+double Sunclock::obliq_corr(double _mean_obliq_ecliptic,
+                            double _julian_century) {
+  return _mean_obliq_ecliptic +
+         0.00256 * cos(deg(125.04 - 1934.136 * _julian_century));
 }
 
 double Sunclock::sun_app_long(double _sun_true_long, double _julian_century) {
-  return (_sun_true_long - 0.00569 - 0.00478 * sin(deg(125.04 - 1934.136 * _julian_century)));
+  return (_sun_true_long - 0.00569 -
+          0.00478 * sin(deg(125.04 - 1934.136 * _julian_century)));
 }
 
 double Sunclock::declination(double _obliq_corr, double _sun_app_long) {
   return deg(asin(sin(rad(_obliq_corr)) * sin(rad(_sun_app_long))));
 }
 
-double Sunclock::eq_of_time(double _var_y, double _mean_long_sun, double _eccent_earth_orbit,
-                            double _mean_anom_sun) {
-  return 4
-         * deg(_var_y * sin(2 * rad(_mean_long_sun))
-               - 2 * _eccent_earth_orbit * sin(rad(_mean_anom_sun))
-               + 4 * _eccent_earth_orbit * _var_y * sin(rad(_mean_anom_sun))
-                     * cos(2 * rad(_mean_long_sun))
-               - 0.5 * _var_y * _var_y * sin(4 * rad(_mean_long_sun))
-               - 1.25 * _eccent_earth_orbit * _eccent_earth_orbit * sin(2 * rad(_mean_anom_sun)));
+double Sunclock::eq_of_time(double _var_y, double _mean_long_sun,
+                            double _eccent_earth_orbit, double _mean_anom_sun) {
+  return 4 * deg(_var_y * sin(2 * rad(_mean_long_sun)) -
+                 2 * _eccent_earth_orbit * sin(rad(_mean_anom_sun)) +
+                 4 * _eccent_earth_orbit * _var_y * sin(rad(_mean_anom_sun)) *
+                     cos(2 * rad(_mean_long_sun)) -
+                 0.5 * _var_y * _var_y * sin(4 * rad(_mean_long_sun)) -
+                 1.25 * _eccent_earth_orbit * _eccent_earth_orbit *
+                     sin(2 * rad(_mean_anom_sun)));
 }
 
 double Sunclock::true_solar_time(double _time_of_day, double _eq_of_time) {
-  return fmod((_time_of_day * 1440 + _eq_of_time + 4 * longitude - 60 * tz_offset), 1440);
+  return fmod(
+      (_time_of_day * 1440 + _eq_of_time + 4 * longitude - 60 * tz_offset),
+      1440);
 }
 
 double Sunclock::hour_angle(double _true_solar_time) {
-  return (_true_solar_time / 4 < 0 ? _true_solar_time / 4 + 180 : _true_solar_time / 4 - 180);
+  return (_true_solar_time / 4 < 0 ? _true_solar_time / 4 + 180
+                                   : _true_solar_time / 4 - 180);
 }
 
 double Sunclock::hour_angle_sunrise(double _declination) {
-  return deg(acos(cos(rad(90.833)) / (cos(rad(latitude)) * cos(rad(_declination)))
-                  - tan(rad(latitude)) * tan(rad(_declination))));
+  return deg(
+      acos(cos(rad(90.833)) / (cos(rad(latitude)) * cos(rad(_declination))) -
+           tan(rad(latitude)) * tan(rad(_declination))));
 }
 
 double Sunclock::solar_zenith(double _declination, double _hour_angle) {
-  return deg(acos(sin(rad(latitude)) * sin(rad(_declination))
-                  + cos(rad(latitude)) * cos(rad(_declination)) * cos(rad(_hour_angle))));
+  return deg(acos(sin(rad(latitude)) * sin(rad(_declination)) +
+                  cos(rad(latitude)) * cos(rad(_declination)) *
+                      cos(rad(_hour_angle))));
 }
 
-double Sunclock::solar_elevation(double _solar_zenith) { return 90 - _solar_zenith; }
-
+double Sunclock::solar_elevation(double _solar_zenith) {
+  return 90 - _solar_zenith;
+}