Okay I tried something and extended the code of suncalc with some lines at the end so that the script returns azimuth and altitude. Not really elegant, but it works for me. From here I have no idea how to get it in the sunrise plugin.

/* (c) 2011-2015, Vladimir Agafonkin SunCalc is a JavaScript library for calculating sun/moon position and light phases. https://github.com/mourner/suncalc */ (function () { 'use strict'; // shortcuts for easier to read formulas var PI = Math.PI, sin = Math.sin, cos = Math.cos, tan = Math.tan, asin = Math.asin, atan = Math.atan2, acos = Math.acos, rad = PI / 180; // sun calculations are based on http://aa.quae.nl/en/reken/zonpositie.html formulas // date/time constants and conversions var dayMs = 1000 * 60 * 60 * 24, J1970 = 2440588, J2000 = 2451545; function toJulian(date) { return date.valueOf() / dayMs - 0.5 + J1970; } function fromJulian(j) { return new Date((j + 0.5 - J1970) * dayMs); } function toDays(date) { return toJulian(date) - J2000; } // general calculations for position var e = rad * 23.4397; // obliquity of the Earth function rightAscension(l, b) { return atan(sin(l) * cos(e) - tan(b) * sin(e), cos(l)); } function declination(l, b) { return asin(sin(b) * cos(e) + cos(b) * sin(e) * sin(l)); } function azimuth(H, phi, dec) { return atan(sin(H), cos(H) * sin(phi) - tan(dec) * cos(phi)); } function altitude(H, phi, dec) { return asin(sin(phi) * sin(dec) + cos(phi) * cos(dec) * cos(H)); } function siderealTime(d, lw) { return rad * (280.16 + 360.9856235 * d) - lw; } function astroRefraction(h) { if (h < 0) // the following formula works for positive altitudes only. h = 0; // if h = -0.08901179 a div/0 would occur. // formula 16.4 of "Astronomical Algorithms" 2nd edition by Jean Meeus (Willmann-Bell, Richmond) 1998. // 1.02 / tan(h + 10.26 / (h + 5.10)) h in degrees, result in arc minutes -> converted to rad: return 0.0002967 / Math.tan(h + 0.00312536 / (h + 0.08901179)); } // general sun calculations function solarMeanAnomaly(d) { return rad * (357.5291 + 0.98560028 * d); } function eclipticLongitude(M) { var C = rad * (1.9148 * sin(M) + 0.02 * sin(2 * M) + 0.0003 * sin(3 * M)), // equation of center P = rad * 102.9372; // perihelion of the Earth return M + C + P + PI; } function sunCoords(d) { var M = solarMeanAnomaly(d), L = eclipticLongitude(M); return { dec: declination(L, 0), ra: rightAscension(L, 0) }; } var SunCalc = {}; // calculates sun position for a given date and latitude/longitude SunCalc.getPosition = function (date, lat, lng) { var lw = rad * -lng, phi = rad * lat, d = toDays(date), c = sunCoords(d), H = siderealTime(d, lw) - c.ra; return { azimuth: azimuth(H, phi, c.dec), altitude: altitude(H, phi, c.dec) }; }; // sun times configuration (angle, morning name, evening name) var times = SunCalc.times = [ [-0.833, 'sunrise', 'sunset' ], [ -0.3, 'sunriseEnd', 'sunsetStart' ], [ -6, 'dawn', 'dusk' ], [ -12, 'nauticalDawn', 'nauticalDusk'], [ -18, 'nightEnd', 'night' ], [ 6, 'goldenHourEnd', 'goldenHour' ] ]; // adds a custom time to the times config SunCalc.addTime = function (angle, riseName, setName) { times.push([angle, riseName, setName]); }; // calculations for sun times var J0 = 0.0009; function julianCycle(d, lw) { return Math.round(d - J0 - lw / (2 * PI)); } function approxTransit(Ht, lw, n) { return J0 + (Ht + lw) / (2 * PI) + n; } function solarTransitJ(ds, M, L) { return J2000 + ds + 0.0053 * sin(M) - 0.0069 * sin(2 * L); } function hourAngle(h, phi, d) { return acos((sin(h) - sin(phi) * sin(d)) / (cos(phi) * cos(d))); } // returns set time for the given sun altitude function getSetJ(h, lw, phi, dec, n, M, L) { var w = hourAngle(h, phi, dec), a = approxTransit(w, lw, n); return solarTransitJ(a, M, L); } // calculates sun times for a given date and latitude/longitude SunCalc.getTimes = function (date, lat, lng) { var lw = rad * -lng, phi = rad * lat, d = toDays(date), n = julianCycle(d, lw), ds = approxTransit(0, lw, n), M = solarMeanAnomaly(ds), L = eclipticLongitude(M), dec = declination(L, 0), Jnoon = solarTransitJ(ds, M, L), i, len, time, Jset, Jrise; var result = { solarNoon: fromJulian(Jnoon), nadir: fromJulian(Jnoon - 0.5) }; for (i = 0, len = times.length; i < len; i += 1) { time = times[i]; Jset = getSetJ(time[0] * rad, lw, phi, dec, n, M, L); Jrise = Jnoon - (Jset - Jnoon); result[time[1]] = fromJulian(Jrise); result[time[2]] = fromJulian(Jset); } return result; }; // moon calculations, based on http://aa.quae.nl/en/reken/hemelpositie.html formulas function moonCoords(d) { // geocentric ecliptic coordinates of the moon var L = rad * (218.316 + 13.176396 * d), // ecliptic longitude M = rad * (134.963 + 13.064993 * d), // mean anomaly F = rad * (93.272 + 13.229350 * d), // mean distance l = L + rad * 6.289 * sin(M), // longitude b = rad * 5.128 * sin(F), // latitude dt = 385001 - 20905 * cos(M); // distance to the moon in km return { ra: rightAscension(l, b), dec: declination(l, b), dist: dt }; } SunCalc.getMoonPosition = function (date, lat, lng) { var lw = rad * -lng, phi = rad * lat, d = toDays(date), c = moonCoords(d), H = siderealTime(d, lw) - c.ra, h = altitude(H, phi, c.dec), // formula 14.1 of "Astronomical Algorithms" 2nd edition by Jean Meeus (Willmann-Bell, Richmond) 1998. pa = atan(sin(H), tan(phi) * cos(c.dec) - sin(c.dec) * cos(H)); h = h + astroRefraction(h); // altitude correction for refraction return { azimuth: azimuth(H, phi, c.dec), altitude: h, distance: c.dist, parallacticAngle: pa }; }; // calculations for illumination parameters of the moon, // based on http://idlastro.gsfc.nasa.gov/ftp/pro/astro/mphase.pro formulas and // Chapter 48 of "Astronomical Algorithms" 2nd edition by Jean Meeus (Willmann-Bell, Richmond) 1998. SunCalc.getMoonIllumination = function (date) { var d = toDays(date || new Date()), s = sunCoords(d), m = moonCoords(d), sdist = 149598000, // distance from Earth to Sun in km phi = acos(sin(s.dec) * sin(m.dec) + cos(s.dec) * cos(m.dec) * cos(s.ra - m.ra)), inc = atan(sdist * sin(phi), m.dist - sdist * cos(phi)), angle = atan(cos(s.dec) * sin(s.ra - m.ra), sin(s.dec) * cos(m.dec) - cos(s.dec) * sin(m.dec) * cos(s.ra - m.ra)); return { fraction: (1 + cos(inc)) / 2, phase: 0.5 + 0.5 * inc * (angle < 0 ? -1 : 1) / Math.PI, angle: angle }; }; function hoursLater(date, h) { return new Date(date.valueOf() + h * dayMs / 24); } // calculations for moon rise/set times are based on http://www.stargazing.net/kepler/moonrise.html article SunCalc.getMoonTimes = function (date, lat, lng, inUTC) { var t = new Date(date); if (inUTC) t.setUTCHours(0, 0, 0, 0); else t.setHours(0, 0, 0, 0); var hc = 0.133 * rad, h0 = SunCalc.getMoonPosition(t, lat, lng).altitude - hc, h1, h2, rise, set, a, b, xe, ye, d, roots, x1, x2, dx; // go in 2-hour chunks, each time seeing if a 3-point quadratic curve crosses zero (which means rise or set) for (var i = 1; i <= 24; i += 2) { h1 = SunCalc.getMoonPosition(hoursLater(t, i), lat, lng).altitude - hc; h2 = SunCalc.getMoonPosition(hoursLater(t, i + 1), lat, lng).altitude - hc; a = (h0 + h2) / 2 - h1; b = (h2 - h0) / 2; xe = -b / (2 * a); ye = (a * xe + b) * xe + h1; d = b * b - 4 * a * h1; roots = 0; if (d >= 0) { dx = Math.sqrt(d) / (Math.abs(a) * 2); x1 = xe - dx; x2 = xe + dx; if (Math.abs(x1) <= 1) roots++; if (Math.abs(x2) <= 1) roots++; if (x1 < -1) x1 = x2; } if (roots === 1) { if (h0 < 0) rise = i + x1; else set = i + x1; } else if (roots === 2) { rise = i + (ye < 0 ? x2 : x1); set = i + (ye < 0 ? x1 : x2); } if (rise && set) break; h0 = h2; } var result = {}; if (rise) result.rise = hoursLater(t, rise); if (set) result.set = hoursLater(t, set); if (!rise && !set) result[ye > 0 ? 'alwaysUp' : 'alwaysDown'] = true; return result; }; // export as Node module / AMD module / browser variable if (typeof exports === 'object' && typeof module !== 'undefined') module.exports = SunCalc; else if (typeof define === 'function' && define.amd) define(SunCalc); else window.SunCalc = SunCalc; // OrTiN /////////////////////////////////////////////////////////////////////////////////////////////////// var sunrisePos = SunCalc.getPosition(new Date(), yourLatitude, yourLongitude); var sunriseAzimuth = sunrisePos.azimuth * 180 / Math.PI + 180; var sunriseAltitude = sunrisePos.altitude * 180 / Math.PI; console.log("Azimuth = "+sunriseAzimuth); console.log("Altitude = "+sunriseAltitude); /////////////////////////////////////////////////////////////////////////////////////////////////// }());

You must only replace yourLatitude and yourLongitude with your location relevant values.

The script can be started with:
node suncalc.js.

It returns:

Azimuth = 318.18168274069535 Altitude = -23.440472955763354

From here I fill two variables in Pimatic via curl patch.