use of android.icu.impl.CalendarAstronomer.Equatorial in project j2objc by google.
the class AstroTest method TestSolarLongitude.
@Test
public void TestSolarLongitude() {
GregorianCalendar gc = new GregorianCalendar(new SimpleTimeZone(0, "UTC"));
CalendarAstronomer astro = new CalendarAstronomer();
// year, month, day, hour, minute, longitude (radians), ascension(radians), declination(radians)
final double[][] tests = { { 1980, 7, 27, 00, 00, 2.166442986535465, 2.2070499713207730, 0.3355704075759270 }, { 1988, 7, 27, 00, 00, 2.167484927693959, 2.2081183335606176, 0.3353093444275315 } };
logln("");
for (int i = 0; i < tests.length; i++) {
gc.clear();
gc.set((int) tests[i][0], (int) tests[i][1] - 1, (int) tests[i][2], (int) tests[i][3], (int) tests[i][4]);
astro.setDate(gc.getTime());
double longitude = astro.getSunLongitude();
if (longitude != tests[i][5]) {
if ((float) longitude == (float) tests[i][5]) {
logln("longitude(" + longitude + ") != tests[i][5](" + tests[i][5] + ") in double for test " + i);
} else {
errln("FAIL: longitude(" + longitude + ") != tests[i][5](" + tests[i][5] + ") for test " + i);
}
}
Equatorial result = astro.getSunPosition();
if (result.ascension != tests[i][6]) {
if ((float) result.ascension == (float) tests[i][6]) {
logln("result.ascension(" + result.ascension + ") != tests[i][6](" + tests[i][6] + ") in double for test " + i);
} else {
errln("FAIL: result.ascension(" + result.ascension + ") != tests[i][6](" + tests[i][6] + ") for test " + i);
}
}
if (result.declination != tests[i][7]) {
if ((float) result.declination == (float) tests[i][7]) {
logln("result.declination(" + result.declination + ") != tests[i][7](" + tests[i][7] + ") in double for test " + i);
} else {
errln("FAIL: result.declination(" + result.declination + ") != tests[i][7](" + tests[i][7] + ") for test " + i);
}
}
}
}
use of android.icu.impl.CalendarAstronomer.Equatorial in project j2objc by google.
the class AstroTest method TestCoordinates.
@Test
public void TestCoordinates() {
CalendarAstronomer astro = new CalendarAstronomer();
Equatorial result = astro.eclipticToEquatorial(139.686111 * PI / 180.0, 4.875278 * PI / 180.0);
logln("result is " + result + "; " + result.toHmsString());
}
use of android.icu.impl.CalendarAstronomer.Equatorial in project j2objc by google.
the class AstroTest method TestLunarPosition.
@Test
public void TestLunarPosition() {
GregorianCalendar gc = new GregorianCalendar(new SimpleTimeZone(0, "UTC"));
CalendarAstronomer astro = new CalendarAstronomer();
// year, month, day, hour, minute, ascension(radians), declination(radians)
final double[][] tests = { { 1979, 2, 26, 16, 00, -0.3778379118188744, -0.1399698825594198 } };
logln("");
for (int i = 0; i < tests.length; i++) {
gc.clear();
gc.set((int) tests[i][0], (int) tests[i][1] - 1, (int) tests[i][2], (int) tests[i][3], (int) tests[i][4]);
astro.setDate(gc.getTime());
Equatorial result = astro.getMoonPosition();
if (result.ascension != tests[i][5]) {
if ((float) result.ascension == (float) tests[i][5]) {
logln("result.ascension(" + result.ascension + ") != tests[i][5](" + tests[i][5] + ") in double for test " + i);
} else {
errln("FAIL: result.ascension(" + result.ascension + ") != tests[i][5](" + tests[i][5] + ") for test " + i);
}
}
if (result.declination != tests[i][6]) {
if ((float) result.declination == (float) tests[i][6]) {
logln("result.declination(" + result.declination + ") != tests[i][6](" + tests[i][6] + ") in double for test " + i);
} else {
errln("FAIL: result.declination(" + result.declination + ") != tests[i][6](" + tests[i][6] + ") for test " + i);
}
}
}
}
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