jeremyhamm/home-assistant-moon

Phases of the moon for home assistant

home-assistant-moon's Issues

moon.js

Hello, i have this js code and images(100 photos of moon)，but i do not know how to improve it that can use in HA.
`
// MIT License

// Copyright (c) 2018 Ivan

// Permission is hereby granted, free of charge, to any person obtaining a copy
// of this software and associated documentation files (the "Software"), to deal
// in the Software without restriction, including without limitation the rights
// to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
// copies of the Software, and to permit persons to whom the Software is
// furnished to do so, subject to the following conditions:

// The above copyright notice and this permission notice shall be included in al l
// copies or substantial portions of the Software.

// THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
// IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
// FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
// AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
// LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
// OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
// SOFTWARE.

var synmonth = 29.53058868; // Synodic month (new Moon to new Moon)

// Astronomical constants
var epoch = 2444238.5; // 1989 January 0.0

//Constants defining the Sun's apparent orbit
var elonge = 278.83354; // Ecliptic longitude of the Sun at epoch 1980.0
var elongp = 282.596403; // Ecliptic longitude of the Sun at perigee
var eccent = 0.016718; // Eccentricity of Earth's orbit
var sunsmax = 1.495985e8; // Sun's angular size, degrees, at semi-major axis dis tance
var sunangsiz = 0.533128;

// Elements of the Moon's orbit, epoch 1980.0
var mmlong = 64.975464; // Moon's mean longitude at the epoch
var mmlongp = 349.383063; // Mean longitude of the perigee at the epoch
var mecc = 0.0549; // Eccentricity of the Moon's orbit
var mangsiz = 0.5181; // Moon's angular size at distance a from Earth
var msmax = 384401; // Semi-major axis of Moon's orbit in km

// eslint-disable-next-line no-unused-vars
function MoonPhase(dateparam) {
this._timespace = dateparam.getTime() / 1000;
this._pdata = utcToJulian(this._timespace);

// Calculation of the Sun's position
var day = this._pdata - epoch; // Date within epoch
var n = fixangle((360 / 365.2422) * day); // Mean anomaly of the Sun
var m = fixangle(n + elonge - elongp); // Convert from perigee co-ordinates to epoch 1980.0
var ec = kepler(m, eccent); // Solve equation of Kepler
ec = Math.sqrt((1 + eccent) / (1 - eccent)) * Math.tan(ec / 2);
ec = 2 * rad2deg(Math.atan(ec)); // True anomaly
var lambdasun = fixangle(ec + elongp); // Sun's geocentric ecliptic longitude

var f = (1 + eccent * Math.cos(deg2rad(ec))) / (1 - eccent * eccent); // Orbit al distance factor
var sunDist = sunsmax / f; // Distance to Sun in km
var sunAng = f * sunangsiz; // Sun's angular size in degrees

// Calculation of the Moon's position
var ml = fixangle(13.1763966 * day + mmlong); // Moon's mean longitude
var mm = fixangle(ml - 0.1114041 * day - mmlongp); // Moon's mean anomaly
var ev = 1.2739 * Math.sin(deg2rad(2 * (ml - lambdasun) - mm)); // Evection
var ae = 0.1858 * Math.sin(deg2rad(m)); // Annual equation
var a3 = 0.37 * Math.sin(deg2rad(m)); // Correction term
var mmP = mm + ev - ae - a3; // Corrected anomaly
var mec = 6.2886 * Math.sin(deg2rad(mmP)); // Correction for the equation of t he centre
var a4 = 0.214 * Math.sin(deg2rad(2 * mmP)); // Another correction term
var lP = ml + ev + mec - ae + a4; // Corrected longitude
var v = 0.6583 * Math.sin(deg2rad(2 * (lP - lambdasun))); // constiation
var lPP = lP + v; // True longitude

// Calculation of the phase of the Moon
var moonAge = lPP - lambdasun; // Age of the Moon in degrees
var moonPhase = (1 - Math.cos(deg2rad(moonAge))) / 2; // Phase of the Moon

// Distance of moon from the centre of the Earth
var moonDist =
(msmax * (1 - mecc * mecc)) / (1 + mecc * Math.cos(deg2rad(mmP + mec)));

var moonDFrac = moonDist / msmax;
var moonAng = mangsiz / moonDFrac; // Moon's angular diameter

// store result
this._phase = fixangle(moonAge) / 360; // Phase (0 to 1)
this._illum = moonPhase; // Illuminated fraction (0 to 1)
this._age = synmonth * this.phase; // Age of moon (days)
this._dist = moonDist; // Distance (kilometres)
this._angdia = moonAng; // Angular diameter (degrees)
this._sundist = sunDist; // Distance to Sun (kilometres)
this._sunangdia = sunAng; // Sun's angular diameter (degrees)
//phaseHunt()
this._date = dateparam;

// eslint-disable-next-line no-unused-vars
function phaseHunt() {
var sdate = utcToJulian(this._timespace);
var adate = sdate - 45;
var ats = this._timespace - 86400 * 45;
var t = new Date(ats * 1000);
// const t = time.Unix(int64(ats), 0)
var yy = t.getFullYear();
var mm = t.getMonth();

var k1 = Math.floor((yy + (mm - 1) * (1 / 12) - 1900) * 12.3685);
var nt1 = meanPhase(adate, k1);
adate = nt1;
var nt2, k2;

// eslint-disable-next-line no-constant-condition
while (true) {
  adate += synmonth;
  k2 = k1 + 1;
  nt2 = meanPhase(adate, k2);
  console.log(nt2);
  if (Math.abs(nt2 - sdate) < 0.75) {
    nt2 = truePhase(k2, 0.0);
  }
  if (nt1 <= sdate && nt2 > sdate) {
    break;
  }
  nt1 = nt2;
  k1 = k2;
}

// const data [8]
var data = [];

data[0] = truePhase(k1, 0.0);
data[1] = truePhase(k1, 0.25);
data[2] = truePhase(k1, 0.5);
data[3] = truePhase(k1, 0.75);
data[4] = truePhase(k2, 0.0);
data[5] = truePhase(k2, 0.25);
data[6] = truePhase(k2, 0.5);
data[7] = truePhase(k2, 0.75);
this._quarters = [];
for (var i = 0; i < 8; i++) {
  this._quarters[i] = (data[i] - 2440587.5) * 86400; // convert to UNIX time
}

}

/**
Calculates time of the mean new Moon for a given
base date. This argument K to this function is the
precomputed synodic month index, given by:
K = (year - 1900) * 12.3685
where year is expressed as a year aand fractional year
*/
function meanPhase(sdate, k) {
// Time in Julian centuries from 1900 January 0.5
var t = (sdate - 2415020.0) / 36525;
var t2 = t * t;
var t3 = t2 * t;

return (
  2415020.75933 +
  synmonth * k +
  0.0001178 * t2 -
  0.000000155 * t3 +
  0.00033 * Math.sin(deg2rad(166.56 + 132.87 * t - 0.009173 * t2))
);

}

function truePhase(k, phase) {
k += phase; // Add phase to new moon time
var t = k / 1236.85; // Time in Julian centures from 1900 January 0.5
var t2 = t * t;
var t3 = t2 * t;
var pt =
2415020.75933 +
synmonth * k +
0.0001178 * t2 -
0.000000155 * t3 +
0.00033 * Math.sin(deg2rad(166.56 + 132.87 * t - 0.009173 * t2));

var m = 359.2242 + 29.10535608 * k - 0.0000333 * t2 - 0.00000347 * t3; // Su                                                                                                 n's mean anomaly
var mprime = 306.0253 + 385.81691806 * k + 0.0107306 * t2 + 0.00001236 * t3;                                                                                                  // Moon's mean anomaly
var f = 21.2964 + 390.67050646 * k - 0.0016528 * t2 - 0.00000239 * t3; // Mo                                                                                                 on's argument of latitude

if (phase < 0.01 || Math.abs(phase - 0.5) < 0.01) {
  // Corrections for New and Full Moon
  pt +=
    (0.1734 - 0.000393 * t) * Math.sin(deg2rad(m)) +
    0.0021 * Math.sin(deg2rad(2 * m)) -
    0.4068 * Math.sin(deg2rad(mprime)) +
    0.0161 * Math.sin(deg2rad(2 * mprime)) -
    0.0004 * Math.sin(deg2rad(3 * mprime)) +
    0.0104 * Math.sin(deg2rad(2 * f)) -
    0.0051 * Math.sin(deg2rad(m + mprime)) -
    0.0074 * Math.sin(deg2rad(m - mprime)) +
    0.0004 * Math.sin(deg2rad(2 * f + m)) -
    0.0004 * Math.sin(deg2rad(2 * f - m)) -
    0.0006 * Math.sin(deg2rad(2 * f + mprime)) +
    0.001 * Math.sin(deg2rad(2 * f - mprime)) +
    0.0005 * Math.sin(deg2rad(m + 2 * mprime));
} else if (Math.abs(phase - 0.25) < 0.01 || Math.abs(phase - 0.75) < 0.01) {
  pt +=
    (0.1721 - 0.0004 * t) * Math.sin(deg2rad(m)) +
    0.0021 * Math.sin(deg2rad(2 * m)) -
    0.628 * Math.sin(deg2rad(mprime)) +
    0.0089 * Math.sin(deg2rad(2 * mprime)) -
    0.0004 * Math.sin(deg2rad(3 * mprime)) +
    0.0079 * Math.sin(deg2rad(2 * f)) -
    0.0119 * Math.sin(deg2rad(m + mprime)) -
    0.0047 * Math.sin(deg2rad(m - mprime)) +
    0.0003 * Math.sin(deg2rad(2 * f + m)) -
    0.0004 * Math.sin(deg2rad(2 * f - m)) -
    0.0006 * Math.sin(deg2rad(2 * f + mprime)) +
    0.0021 * Math.sin(deg2rad(2 * f - mprime)) +
    0.0003 * Math.sin(deg2rad(m + 2 * mprime)) +
    0.0004 * Math.sin(deg2rad(m - 2 * mprime)) -
    0.0003 * Math.sin(deg2rad(2 * m + mprime));
  if (phase < 0.5) {
    // First quarter correction
    pt +=
      0.0028 -
      0.0004 * Math.cos(deg2rad(m)) +
      0.0003 * Math.cos(deg2rad(mprime));
  } else {
    // Last quarter correction
    pt +=
      -0.0028 +
      0.0004 * Math.cos(deg2rad(m)) -
      0.0003 * Math.cos(deg2rad(mprime));
  }
}

return pt;

}

function kepler(m, ecc) {
var epsilon = 0.000001;
m = deg2rad(m);
var e = m;
var delta = e - ecc * Math.sin(e) - m;
e -= delta / (1 - ecc * Math.cos(e));
while (Math.abs(delta) > epsilon) {
delta = e - ecc * Math.sin(e) - m;
e -= delta / (1 - ecc * Math.cos(e));
}
return e;
}

function utcToJulian(time) {
return time / 86400 + 2440587.5;
}

function fixangle(a) {
return a - 360 * Math.floor(a / 360);
}

function rad2deg(r) {
return (r * 180) / Math.PI;
}

function deg2rad(d) {
return (d * Math.PI) / 180;
}

this.date = function () {
return this._date;
};

this.pdata = function () {
return this._pdata;
};

this.phase = function () {
return this._phase;
};

this.illum = function () {
return this._illum;
};

this.age = function () {
return this._age;
};

this.dist = function () {
return this._dist;
};

this.angdia = function () {
return this._angdia;
};

this.sundist = function () {
return this._sundist;
};

this.sunangdia = function () {
return this._sunangdia;
};

this.newMoon = function () {
return this._quarters[0];
};

this.firstQuarter = function () {
return this._quarters[1];
};

this.fullMoon = function () {
return this._quarters[2];
};

this.lastQuarter = function () {
return this._quarters[3];
};

this.nextNewMoon = function () {
return this._quarters[4];
};

this.nextFirstQuarter = function () {
return this._quarters[1];
};

this.nextFullMoon = function () {
return this._quarters[6];
};

this.nextLastQuarter = function () {
return this._quarters[7];
};

this.phaseName = function () {
var names = {
0: 'New Moon',
1: 'Waxing Crescent',
2: 'First Quarter',
3: 'Waxing Gibbous',
4: 'Full Moon',
5: 'Waning Gibbous',
6: 'Third Quarter',
7: 'Waning Crescent',
8: 'New Moon',
};

var i = Math.floor((this._phase + 0.0625) * 8);
return names[i];

};
}
`

Moon image not displayed

I am on HA 2022.8.7 and trying to use the moon-phases card. I have installed per the instructions and the card displays the date and moon phase text but not the image. When I try to display the image in a new window it states not found. The moon-phases folder is in the www folder and the images folder in in the moon-phases folder. Any thoughts on the problem?

Phase undefined error

Getting a 'phase is undefined' error. Card was working and now reports the error. The HA Moon card reports correctly. I have verified that all of the png files are present and reloaded the moon.js file. Image shows comparison of the two cards.

HACS Integration

Hi,

Please add HACS compatibility.

Thanks

Moon-phases card not show

Hello, I have HA installed on Debian 11. I add:

sensor:
- platform: moon

to my configuration.yaml file and copy images and moon.js file to /homeassistant/www/moon-phases/ folder.
I add to Configuration>Dashboards>Resources:
url: /local/moon-phases/moon.js
select type javascript module

I add homeassistant user/group and 777 permissions.
but canot see any card or entity in HA. I reboot server and cleas browser cache.

Regards.