/**
 * ## Sweph
 * Definitive Swiss Ephemeris bindings for Node.js  
 * 
 * [Official programmer's documentation for the Swiss Ephemeris](https://www.astro.com/swisseph/swephprg.htm)  
 * [Official guide for the Swiss Ephemeris](https://www.astro.com/ftp/swisseph/doc/swisseph.htm)  
 * [Sweph on GitHub](https://github.com/timotejroiko/sweph)  
 * [Sweph on NPM](http://npmjs.com/package/sweph)  
 * 
 * ### Usage
 * ```
 * const { utc_to_jd, calc, houses_ex2, constants, set_ephe_path } = require("sweph");
 * // or import { utc_to_jd, calc, houses_ex2, constants, set_ephe_path } from "sweph";
 *
 * set_ephe_path("./ephemeris"); // folder containing your ephemeris files;
 *
 * const date = utc_to_jd(2020, 1, 25, 15, 35, 0, constants.SE_GREG_CAL); // 25 Jan 2020, 15:35:00, gregorian calendar
 * if(date.flag !== constants.OK) { throw new Error(date.error); }
 *
 * const [ jd_et, jd_ut ] = date.data; // et for planets, ut for houses
 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED; // use the ephemeris files and enable speeds
 * const planets = calc(jd_et, constants.SE_SUN, flags);
 * if(planets.flag !== flags) { console.log(planets.error); } // if the flags are not the same then something went wrong
 *
 * const houses = houses_ex2(jd_ut, 0, 37, 54, "P"); // placidus houses on latitude 37 longitude 54
 * if(houses.flag !== constants.OK) { console.log(houses.error) } // if flag is not equal to OK then something went wrong
 *
 * console.log(planets.data, houses.data)
 * ```
 */
declare module "sweph" {
	export * as default from "sweph"

	/*
	┌──────────────────────────────────────────────────┬────────────┬──────────────────────────────────────────────────┐
	│┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│ Interfaces │┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│
	└──────────────────────────────────────────────────┴────────────┴──────────────────────────────────────────────────┘
	*/

	export interface Flag {
		/**
		 * ### Description
		 * Status flag returned by the function  
		 * Use it to check if the function succeeded, failed, or to check output type  
		 * ```
		 * ```
		 */
		flag: number;
	}

	export interface Error {
		/**
		 * ### Description
		 * Error message  
		 * An error message will be available here when the flag indicates failure  
		 * ```
		 * ```
		 */
		error: string;
	}

	export interface Name {
		/**
		 * ### Description
		 * Star name  
		 * The full star name as it appears in the sefstars.txt file  
		 * ```
		 * ```
		 */
		name: string;
	}

	export interface GetCurrentFileData {
		/**
		 * ### Description
		 * Path to ephemeris file  
		 * ```
		 * ```
		 */
		path: string;
		/**
		 * ### Description
		 * Ephemeris start date for this file  
		 * ```
		 * ```
		 */
		start: number;
		/**
		 * ### Description
		 * Ephemeris end date for this file  
		 * ```
		 * ```
		 */
		end: number;
		/**
		 * ### Description
		 * JPL ephemeris version used to generate the file  
		 * ```
		 * ```
		 */
		denum: number;
	}

	export interface GetOrbitalElements extends Flag, Error {
		/**
		 * ### Description
		 * Array of orbital/kepler elements  
		 * ```
		 * ```
		 */
		data: OrbitalElementsData;
	}

	export interface Calc extends Error, Flag {
		/**
		 * ### Description
		 * Array of values returned by the calculation  
		 * By default the values are in ecliptic coordinates (longitude, latitude, distance)  
		 * If `SEFLG_SPEED` or `SEFLG_SPEED3` are used, the daily speeds for each value are also retured, otherwise they are 0  
		 * If `SEFLG_EQUATORIAL` is used, the values are in equatorial coordinates instead (right ascension, declination, distance)  
		 * If `SELFG_XYZ` is used, the values are in cartesian coordinates instead (X, Y, Z)  
		 * If target object ID is `SE_ECL_NUT`, then the values will contain obliquity and nutation data instead  
		 * ```
		 * ```
		 */
		data: CalcData;
	}

	export interface DateConversion extends Flag {
		/**
		 * ### Description
		 * Julian day value  
		 * ```
		 * ```
		 */
		data: number;
	}

	export interface DeltaT extends Error {
		/**
		 * ### Description
		 * Delta T value  
		 * ```
		 * ```
		 */
		data: number;
	}

	export interface FixStar extends Flag, Name, Error {
		/**
		 * ### Description
		 * Array of values returned by the calculation  
		 * By default the values are in ecliptic coordinates (longitude, latitude, distance)  
		 * If `SEFLG_SPEED` or `SEFLG_SPEED3` are used, the daily speeds for each value are also retured, otherwise they are 0  
		 * If `SEFLG_EQUATORIAL` is used, the values are in equatorial coordinates instead (right ascension, declination, distance)  
		 * If `SELFG_XYZ` is used, the values are in cartesian coordinates instead (X, Y, Z)  
		 * ```
		 * ```
		 */
		data: CalcData2;
	}

	export interface FixStarMag extends Flag, Name, Error {
		/**
		 * ### Description
		 * Magnitude value  
		 * ```
		 * ```
		 */
		data: number;
	}

	export interface GauquelinSector extends Flag, Error {
		/**
		 * ### Description
		 * Gauquelin Sector  
		 * ```
		 * ```
		 */
		data: number;
	}

	export interface Ayanamsa extends Flag, Error {
		/**
		 * ### Description
		 * Ayanamsa Value  
		 * ```
		 * ```
		 */
		data: number;
	}

	export interface HeliacalPheno extends Flag, Error {
		/**
		 * ### Description
		 * Array of values used by heliacal calculations  
		 * ```
		 * ```
		 */
		data: HeliacalPhenoData;
	}

	export interface Heliacal extends Flag, Error {
		/**
		 * ### Description
		 * Event times of the heliacal phenomenon  
		 * ```
		 * ```
		 */
		data: HeliacalData;
	}

	export interface HousePosition extends Error {
		/**
		 * ### Description
		 * House position including fraction  
		 * From 1.0 to 12.999999 for normal houses and 1.0 to 36.9999999 for gauquelin sectors  
		 * ```
		 * ```
		 */
		data: number
	}

	export interface Houses<T> extends Flag {
		/**
		 * ### Description
		 * Calculated positions for the houses and other points  
		 * ```
		 * ```
		 */
		data: HouseData<T>
	}

	export interface HousesEx<T> extends Flag, Error {
		/**
		 * ### Description
		 * Calculated positions for the houses and other points  
		 * Also includes momentary motion speeds  
		 * ```
		 * ```
		 */
		data: HouseExData<T>
	}

	export interface HouseData<T> {
		/**
		 * ### Description
		 * Longitude positions for the houses  
		 * 36 houses for gauquelin sectors, 12 houses for all other systems  
		 * ```
		 * ```
		 */
		houses: T extends 36 ? GauquelinHousesList : HousesList,
		/**
		 * ### Description
		 * Longitude positions for other points of interest in the great circles  
		 * ```
		 * ```
		 */
		points: PointsList
	}

	export interface HouseExData<T> extends HouseData<T> {
		/**
		 * ### Description
		 * Momentary motion speeds of the houses  
		 * ```
		 * ```
		 */
		housesSpeed: T extends 36 ? GauquelinHousesSpeeds : HousesSpeeds,
		/**
		 * ### Description
		 * Momentary motion speeds of other points of interest  
		 * ```
		 * ```
		 */
		pointsSpeed: PointsSpeeds
	}

	export interface DateObject {
		/**
		 * ### Description
		 * Full year  
		 * ```
		 * ```
		 */
		year: number;
		/**
		 * ### Description
		 * Month (1-12)  
		 * ```
		 * ```
		 */
		month: number;
		/**
		 * ### Description
		 * Day (1-31)  
		 * ```
		 * ```
		 */
		day: number;
		/**
		 * ### Description
		 * Hour including fraction (0-23.99999)  
		 * ```
		 * ```
		 */
		hour: number;
	}

	export interface DateObject2 extends DateObject {
		/**
		 * ### Description
		 * Hour (0-23)  
		 * ```
		 * ```
		 */
		hour: number;
		/**
		 * ### Description
		 * Minute (0-59)  
		 * ```
		 * ```
		 */
		minute: number;
		/**
		 * ### Description
		 * Second including fraction (0-59.99999)  
		 * ```
		 * ```
		 */
		second: number;
	}

	export interface LocalApparentTime extends Flag, Error {
		/**
		 * ### Description
		 * Local apparent time in julian day in universal time  
		 * ```
		 * ```
		 */
		data: number
	}

	export interface LocalMeanTime extends Flag, Error {
		/**
		 * ### Description
		 * Local mean time in julian day in universal time  
		 * ```
		 * ```
		 */
		data: number
	}

	export interface OrbitMaxMinTrueDistance extends Flag, Error {
		/**
		 * ### Description
		 * Orbital maximum and minimum possible distances  
		 * ```
		 * ```
		 */
		data: {
			/**
			 * Maximum possible distance
			 */
			max: number,
			/**
			 * Minimum possible distance
			 */
			min: number,
			/**
			 * Current true distance
			 */
			true: number
		}
	}

	export interface LunEclipseHow extends Flag, Error {
		/**
		 * ### Description
		 * Array of data about the lunar eclipse  
		 * ```
		 * ```
		 */
		data: LunEclipseAttributes
	}

	export interface LunEclipseWhenLoc extends Flag, Error {
		/**
		 * ### Description
		 * Array of eclipse timings  
		 * ```
		 * ```
		 */
		data: EclipseTimes2,
		/**
		 * ### Description
		 * Array of additional data about the lunar eclipse  
		 * ```
		 * ```
		 */
		attributes: LunEclipseAttributes
	}

	export interface LunEclipseWhen extends Flag, Error {
		/**
		 * ### Description
		 * Array of eclipse timings  
		 * ```
		 * ```
		 */
		data: EclipseTimes
	}

	export interface EclipseWhenGlob extends Flag, Error {
		/**
		 * ### Description
		 * Array of eclipse timings  
		 * ```
		 * ```
		 */
		data: EclipseTimes3
	}

	export interface LunOccultWhenLoc extends Flag, Error {
		/**
		 * ### Description
		 * Array of eclipse timings  
		 * ```
		 * ```
		 */
		data: EclipseTimes4,
		/**
		 * ### Description
		 * Array of additional data about the lunar eclipse  
		 * ```
		 * ```
		 */
		attributes: EclipseAttributes
	}

	export interface LunOccultWhere extends Flag, Error {
		/**
		 * ### Description
		 * Array of eclipse coordinates  
		 * ```
		 * ```
		 */
		data: EclipseCoords,
		/**
		 * ### Description
		 * Array of additional data about the eclipse  
		 * ```
		 * ```
		 */
		attributes: LunEclipseAttributes2
	}

	export interface NodAps extends Flag, Error {
		/**
		 * ### Description
		 * Object containing ascending node, descending node, aphelion and perihelion values  
		 * Depending on the specific object and the method flag used, the values can be either "mean" or "osculating"  
		 * ```
		 * ```
		 */
		data: {
			/**
			 * ### Description
			 * Array of ascending node values returned by the calculation  
			 * By default the values are in ecliptic coordinates (longitude, latitude, distance)  
			 * If `SEFLG_SPEED` or `SEFLG_SPEED3` are used, the daily speeds for each value are also retured, otherwise they are 0  
			 * If `SEFLG_EQUATORIAL` is used, the values are in equatorial coordinates instead (right ascension, declination, distance)  
			 * If `SELFG_XYZ` is used, the values are in cartesian coordinates instead (X, Y, Z)  
			 * ```
			 * ```
			 */
			ascending: CalcData2;
			/**
			 * ### Description
			 * Array of descending node values returned by the calculation  
			 * By default the values are in ecliptic coordinates (longitude, latitude, distance)  
			 * If `SEFLG_SPEED` or `SEFLG_SPEED3` are used, the daily speeds for each value are also retured, otherwise they are 0  
			 * If `SEFLG_EQUATORIAL` is used, the values are in equatorial coordinates instead (right ascension, declination, distance)  
			 * If `SELFG_XYZ` is used, the values are in cartesian coordinates instead (X, Y, Z)  
			 * ```
			 * ```
			 */
			descending: CalcData2;
			/**
			 * ### Description
			 * Array of perihelion node values returned by the calculation  
			 * By default the values are in ecliptic coordinates (longitude, latitude, distance)  
			 * If `SEFLG_SPEED` or `SEFLG_SPEED3` are used, the daily speeds for each value are also retured, otherwise they are 0  
			 * If `SEFLG_EQUATORIAL` is used, the values are in equatorial coordinates instead (right ascension, declination, distance)  
			 * If `SELFG_XYZ` is used, the values are in cartesian coordinates instead (X, Y, Z)  
			 * ```
			 * ```
			 */
			perihelion: CalcData2;
			/**
			 * ### Description
			 * Array of aphelion values returned by the calculation  
			 * By default the values are in ecliptic coordinates (longitude, latitude, distance)  
			 * If `SEFLG_SPEED` or `SEFLG_SPEED3` are used, the daily speeds for each value are also retured, otherwise they are 0  
			 * If `SEFLG_EQUATORIAL` is used, the values are in equatorial coordinates instead (right ascension, declination, distance)  
			 * If `SELFG_XYZ` is used, the values are in cartesian coordinates instead (X, Y, Z)  
			 * if `SE_NODBIT_FOPOINT` is used, the values are the object's second focus instead  
			 * ```
			 * ```
			 */
			aphelion: CalcData2;
		};
	}

	export interface Pheno extends Flag, Error {
		/**
		 * ### Description
		 * Array containing data for planetary phenomena  
		 * ```
		 * ```
		 */
		data: PhenoData;
	}

	export interface RefracExtended {
		/**
		 * ### Description
		 * Converted altitude value  
		 * ```
		 * ```
		 */
		data: number;
		/**
		 * ### Description
		 * Array containing additional output from altitude conversion  
		 * ```
		 * ```
		 */
		extended: RefracExtendedData;
	}

	export interface RiseTrans extends Flag, Error {
		/**
		 * ### Description
		 * Time of transit in julian days in universal time  
		 * ```
		 * ```
		 */
		data: number;
	}

	export interface SolEclipseHow extends Flag, Error {
		/**
		 * ### Description
		 * Array of data about the solar eclipse  
		 * ```
		 * ```
		 */
		data: EclipseAttributes2;
	}

	export interface SolEclipseWhenLoc extends Flag, Error {
		/**
		 * ### Description
		 * Array of eclipse timings  
		 * ```
		 * ```
		 */
		data: EclipseTimes4;
		/**
		 * ### Description
		 * Array of additional data about the solar eclipse  
		 * ```
		 * ```
		 */
		attributes: EclipseAttributes2;
	}

	export interface SolEclipseWhere extends Flag, Error {
		/**
		 * ### Description
		 * Array of eclipse coordinates  
		 * ```
		 * ```
		 */
		data: EclipseCoords;
		/**
		 * ### Description
		 * Array of additional data about the solar eclipse  
		 * ```
		 * ```
		 */
		attributes: EclipseAttributes2;
	}

	export interface SplitDeg {
		/**
		 * ### Description
		 * Degrees value  
		 * ```
		 * ```
		 */
		degree: number;
		/**
		 * ### Description
		 * Minutes value  
		 * ```
		 * ```
		 */
		minute: number;
		/**
		 * ### Description
		 * Seconds value  
		 * ```
		 * ```
		 */
		second: number;
		/**
		 * ### Description
		 * Seconds fraction value  
		 * ```
		 * ```
		 */
		fraction: number;
		/**
		 * ### Description
		 * Zodiac sign or nakshatra number  
		 * ```
		 * ```
		 */
		sign: number;
	}

	export interface TimeEqu extends Flag, Error {
		/**
		 * ### Description
		 * Value of the equation of time (difference between LMT and LAT)  
		 * ```
		 * ```
		 */
		data: number;
	}

	export interface UtcToJd extends Flag, Error {
		/**
		 * ### Description
		 * Array containing julian day in both ephemeris and universal time  
		 * ```
		 * ```
		 */
		data: JdEtUt;
	}

	export interface VisLimitMag extends Flag, Error {
		/**
		 * ### Description
		 * Array containing the altitude, azimuth and magnitude data of the object along with the altitude and azimuth of the sun and the moon  
		 * ```
		 * ```
		 */
		data: VisLimitMagData;
	}

	export interface Cross extends Error {
		/**
		 * ### Description
		 * Date when the next crossing happens in julian days  
		 * The julian day value is in universal time when using the `_ut` variant of the function, otherwise its in ephemeris/terrestrial time  
		 * ```
		 * ```
		 */
		date: number;
	}

	export interface NodeCross extends Cross {
		/**
		 * ### Description
		 * Ecliptic longitude where the crossing happens  
		 * ```
		 * ```
		 */
		longitude: number;
		/**
		 * ### Description
		 * Ecliptic latitude margin of precision for the crossing date  
		 * ```
		 * ```
		 */
		latitude: number;
	}

	/*
	┌──────────────────────────────────────────────────┬───────────┬──────────────────────────────────────────────────┐
	│┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│   Types   │┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│
	└──────────────────────────────────────────────────┴───────────┴──────────────────────────────────────────────────┘
	*/

	export type OrbitalElementsData = [
		/**
		 * Semimajor axis
		 */
		a: number,
		/**
		 * Eccentricity
		 */
		e: number,
		/**
		 * Inclination
		 */
		i: number,
		/**
		 * Longitude of ascending node
		 */
		Ω: number,
		/**
		 * Argument of periapsis
		 */
		ω: number,
		/**
		 * Longitude of periapsis
		 */
		ϖ: number,
		/**
		 * Mean anomaly at epoch
		 */
		M0: number,
		/**
		 * True anomaly at epoch
		 */
		v0: number,
		/**
		 * Eccentric anomaly at epoch
		 */
		E0: number,
		/**
		 * Mean longitude at epoch
		 */
		L0: number,
		/**
		 * Sidereal orbital period in tropical years
		 */
		sidereal_period: number,
		/**
		 * Mean daily motion
		 */
		daily_motion: number,
		/**
		 * Tropical period in years
		 */
		tropical_period: number,
		/**
		 * Synodic period in days  
		 * Negative, if inner planet (Venus, Mercury, Aten asteroids) or Moon
		 */
		synodic_period: number,
		/**
		 * Time of perihelion passage
		 */
		perihelion_passage: number,
		/**
		 * Perihelion distance
		 */
		perihelion_distance: number,
		/**
		 * Aphelion distance
		 */
		aphelion_distance: number
	]

	export type CalcData = [
		/**
		 * (`λ`) Ecliptic longitude  
		 * (`α`) Equatorial right ascension if `SEFLG_EQUATORIAL`  
		 * (`x`) Cartesian X if `SEFLG_XYZ`  
		 * (`ε`) True obliquity of the ecliptic if object ID is `SE_ECL_NUT`
		 */
		lon: number,
		/**
		 * (`β`) Ecliptic latitude  
		 * (`δ`) Equatorial declination if `SEFLG_EQUATORIAL`  
		 * (`y`) Cartesian Y if `SEFLG_XYZ`  
		 * (`ε`) Mean obliquity of the ecliptic if object ID is `SE_ECL_NUT`
		 */
		lat: number,
		/**
		 * (`au`) Distance in AU  
		 * (`z`) Cartesian Z if `SEFLG_XYZ`  
		 * (`Δψ`) Nutation in longitude if oject ID is `SE_ECL_NUT`
		 */
		dist: number,
		/**
		 * (`λs`) Ecliptic longitude daily speed  
		 * (`αs`) Equatorial right ascension daily speed if `SEFLG_EQUATORIAL`  
		 * (`xs`) Cartesian daily speed if `SEFLG_XYZ`  
		 * (`Δε`) Nutation in obliquity if oject ID is `SE_ECL_NUT`
		 */
		lonSpd: number,
		/**
		 * (`βs`) Ecliptic latitude daily speed  
		 * (`δs`) Equatorial declination daily speed if `SEFLG_EQUATORIAL`  
		 * (`ys`) Cartesian Y daily speed if `SEFLG_XYZ` 
		 */
		latSpd: number,
		/**
		 * (`aus`) Distance daily speed in AU  
		 * (`zs`) Cartesian Z daily speed if `SEFLG_XYZ`
		 */
		distSpd: number
	]

	export type CalcData2 = [
		/**
		 * (`λ`) Ecliptic longitude  
		 * (`α`) Equatorial right ascension if `SEFLG_EQUATORIAL`  
		 * (`x`) Cartesian X if `SEFLG_XYZ`
		 */
		lon: number,
		/**
		 * (`β`) Ecliptic latitude  
		 * (`δ`) Equatorial declination if `SEFLG_EQUATORIAL`  
		 * (`y`) Cartesian Y if `SEFLG_XYZ`
		 */
		lat: number,
		/**
		 * (`au`) Distance in AU  
		 * (`z`) Cartesian Z if `SEFLG_XYZ`
		 */
		dist: number,
		/**
		 * (`λs`) Ecliptic longitude daily speed  
		 * (`αs`) Equatorial right ascension daily speed if `SEFLG_EQUATORIAL`  
		 * (`xs`) Cartesian daily speed if `SEFLG_XYZ`
		 */
		lonSpd: number,
		/**
		 * (`βs`) Ecliptic latitude daily speed  
		 * (`δs`) Equatorial declination daily speed if `SEFLG_EQUATORIAL`  
		 * (`ys`) Cartesian Y daily speed if `SEFLG_XYZ` 
		 */
		latSpd: number,
		/**
		 * (`aus`) Distance daily speed in AU  
		 * (`zs`) Cartesian Z daily speed if `SEFLG_XYZ`
		 */
		distSpd: number
	]

	export type HeliacalPhenoData = [
		/**
		 * Topocentric altitude of object in degrees (unrefracted)
		 */
		AltO: number,
		/**
		 * Apparent altitude of object in degrees (refracted)
		 */
		AppAltO: number,
		/**
		 * Geocentric altitude of object in degrees
		 */
		GeoAltO: number,
		/**
		 * Azimuth of object in degrees
		 */
		AziO: number,
		/**
		 * Topocentric altitude of Sun in degrees
		 */
		AltS: number,
		/**
		 * Azimuth of Sun in degrees
		 */
		AziS:number,
		/**
		 * Actual topocentric arcus visionis in degrees
		 */
		TAVact: number,
		/**
		 * Actual (geocentric) arcus visionis in degrees
		 */
		ARCVact: number,
		/**
		 * Actual difference between object's and sun's azimuth in degrees
		 */
		DAZact: number,
		/**
		 * Actual longitude difference between object and sun in degrees
		 */
		ARCLact: number,
		/**
		 * Extinction coefficient
		 */
		kact: number,
		/**
		 * Smallest topocentric arcus visionis in degrees
		 */
		minTAV: number,
		/**
		 * First time object is visible:number, according to VR in JD
		 */
		TfistVR: number,
		/**
		 * optimum time the object is visible:number, according to VR in JD
		 */
		TbVR: number,
		/**
		 * last time object is visible:number, according to VR in JD
		 */
		TlastVR: number,
		/**
		 * best time the object is visible:number, according to Yallop in JD
		 */
		TbYallop: number,
		/**
		 * crescent width of Moon in degrees
		 */
		WMoon: number,
		/**
		 * q-test value of Yallop
		 */
		qYal: number,
		/**
		 * q-test criterion of Yallop
		 */
		qCrit: number,
		/**
		 * parallax of object in degrees
		 */
		ParO: number,
		/**
		 * magnitude of object
		 */
		Magn: number,
		/**
		 * rise/set time of object in JD
		 */
		RiseO: number,
		/**
		 * rise/set time of Sun in JD
		 */
		RiseS: number,
		/**
		 * rise/set time of object minus rise/set time of Sun in JD
		 */
		Lag: number,
		/**
		 * visibility duration in JD
		 */
		TvisVR: number,
		/**
		 * crescent length of Moon in degrees
		 */
		LMoon: number,
		/**
		 * CVAact in degrees
		 */
		CVAact: number,
		/**
		 * Illum in percentage
		 */
		Illum: number,
		/**
		 * CVAact in degrees
		 */
		CVAact: number,
		/**
		 * MSk
		 */
		MSk: number
	]

	export type HeliacalData = [
		/**
		 * Start visibility in JD
		 */
		vis_start: number,
		/**
		 * Optimum visibility in JD (zero if hel_flag >= SE_HELFLAG_AV)
		 */
		vis_opt: number,
		/**
		 * End of visibility in JD (zero if hel_flag >= SE_HELFLAG_AV)
		 */
		vis_end: number
	]

	export type AzaltRev = [
		/**
		 * (λ) Ecliptic longitude if SE_HOR2ECL  
		 * (α) Equatorial right ascension if SE_HOR2EQU
		 */
		lon: number,
		/**
		 * (β) Ecliptic latitude if SE_HOR2ECL  
		 * (δ) Equatorial declination if SE_HOR2EQU
		 */
		lat: number
	]

	export type Azalt = [
		/**
		 * Azimuth
		 */
		az: number,
		/**
		 * True altitude
		 */
		alt: number,
		/**
		 * Apparent altitude (with refraction)
		 */
		ap: number
	]

	export type CoTransSp = [
		...cotrans: CoTrans,
		/**
		 * Daily speed for lon
		 */
		lonSpd: number,
		/**
		 * Daily speed for lat
		 */
		latSpd: number,
		/**
		 * Daily speed for dist (unchanged)
		 */
		distSpd: number
	]

	export type CoTrans = [
		/**
		 * (λ) Ecliptic longitude or (α) Equatorial right ascension
		 */
		lon: number,
		/**
		 * (β) Ecliptic latitude or (δ) Equatorial declination
		 */
		lat: number,
		/**
		 * Distance in AU (unchanged)
		 */
		dist: number,
	]

	export type HouseSystems = "B" | "Y" | "X" | "H" | "C" | "F" | "A" | "E" | "D" | "N" | "G" | "I" | "i" | "K" | "U" | "M" | "P" | "T" | "O" | "L" | "Q" | "R" | "S" | "V" | "W";

	export type HousesList = [
		/**
		 * 1st House
		 */
		house_1: number,
		/**
		 * 2nd House
		 */
		house_2: number,
		/**
		 * 3rd House
		 */
		house_3: number,
		/**
		 * 4th House
		 */
		house_4: number,
		/**
		 * 5th House
		 */
		house_5: number,
		/**
		 * 6th House
		 */
		house_6: number,
		/**
		 * 7th House
		 */
		house_7: number,
		/**
		 * 8th House
		 */
		house_8: number,
		/**
		 * 9th House
		 */
		house_9: number,
		/**
		 * 10th House
		 */
		house_10: number,
		/**
		 * 11th House
		 */
		house_11: number,
		/**
		 * 12th House
		 */
		house_12: number,
	]

	export type PointsList = [
		/**
		 * Longitude of the Ascendant
		 */
		asc: number,
		/**
		 * Longitude of the Midheaven
		 */
		mc: number,
		/**
		 * Right Ascension of the Midheaven
		 */
		armc: number,
		/**
		 * Longitude of the Vertex
		 */
		vertex: number,
		/**
		 * Longitude of the Equatorial Ascendant
		 */
		equasc: number,
		/**
		 * Longitude of Walter Koch's Co-Ascendant
		 */
		coasc1: number,
		/**
		 * Longitude of Michael Munkasey's Co-Ascendant
		 */
		coasc2: number,
		/**
		 * Longitude of Michael Munkasey's Polar Ascendant
		 */
		polasc: number
	]

	export type HousesSpeeds = [
		/**
		 * Momentary speed for the 1st House
		 */
		house_1_speed: number,
		/**
		 * Momentary speed for the 2nd House
		 */
		house_2_speed: number,
		/**
		 * Momentary speed for the 3rd House
		 */
		house_3_speed: number,
		/**
		 * Momentary speed for the 4th House
		 */
		house_4_speed: number,
		/**
		 * Momentary speed for the 5th House
		 */
		house_5_speed: number,
		/**
		 * Momentary speed for the 6th House
		 */
		house_6_speed: number,
		/**
		 * Momentary speed for the 7th House
		 */
		house_7_speed: number,
		/**
		 * Momentary speed for the 8th House
		 */
		house_8_speed: number,
		/**
		 * Momentary speed for the 9th House
		 */
		house_9_speed: number,
		/**
		 * Momentary speed for the 10th House
		 */
		house_10_speed: number,
		/**
		 * Momentary speed for the 11th House
		 */
		house_11_speed: number,
		/**
		 * Momentary speed for the 12th House
		 */
		house_12_speed: number,
	]

	export type PointsSpeeds = [
		/**
		 * Momentary speed of the Ascendant
		 */
		asc_speed: number,
		/**
		 * Momentary speed of the Midheaven
		 */
		mc_speed: number,
		/**
		 * Momentary speed in Right Ascension of the Midheaven
		 */
		armc_speed: number,
		/**
		 * Momentary speed of the Vertex
		 */
		vertex_speed: number,
		/**
		 * Momentary speed of the Equatorial Ascendant
		 */
		equasc_speed: number,
		/**
		 * Momentary speed of Walter Koch's Co-Ascendant
		 */
		coasc1_speed: number,
		/**
		 * Momentary speed of Michael Munkasey's Co-Ascendant
		 */
		coasc2_speed: number,
		/**
		 * Momentary speed of Michael Munkasey's Polar Ascendant
		 */
		polasc_speed: number
	]

	export type GauquelinHousesList = [
		...houses: HousesList,
		/**
		 * 13th House
		 */
		house_13: number,
		/**
		 * 14th House
		 */
		house_14: number,
		/**
		 * 15th House
		 */
		house_15: number,
		/**
		 * 16th House
		 */
		house_16: number,
		/**
		 * 17th House
		 */
		house_17: number,
		/**
		 * 18th House
		 */
		house_18: number,
		/**
		 * 19th House
		 */
		house_19: number,
		/**
		 * 20th House
		 */
		house_20: number,
		/**
		 * 21th House
		 */
		house_21: number,
		/**
		 * 22th House
		 */
		house_22: number,
		/**
		 * 23th House
		 */
		house_23: number,
		/**
		 * 24th House
		 */
		house_24: number,
		/**
		 * 25th House
		 */
		house_25: number,
		/**
		 * 26th House
		 */
		house_26: number,
		/**
		 * 27th House
		 */
		house_27: number,
		/**
		 * 28th House
		 */
		house_28: number,
		/**
		 * 29th House
		 */
		house_29: number,
		/**
		 * 30th House
		 */
		house_30: number,
		/**
		 * 31th House
		 */
		house_31: number,
		/**
		 * 32th House
		 */
		house_32: number,
		/**
		 * 33th House
		 */
		house_33: number,
		/**
		 * 34th House
		 */
		house_34: number,
		/**
		 * 35th House
		 */
		house_35: number,
		/**
		 * 36th House
		 */
		house_36: number,
	]

	export type GauquelinHousesSpeeds = [
		...houses: HousesSpeeds,
		/**
		 * Momentary speed for the 13th House
		 */
		house_13_speed: number,
		/**
		 * Momentary speed for the 14th House
		 */
		house_14_speed: number,
		/**
		 * Momentary speed for the 15th House
		 */
		house_15_speed: number,
		/**
		 * Momentary speed for the 16th House
		 */
		house_16_speed: number,
		/**
		 * Momentary speed for the 17th House
		 */
		house_17_speed: number,
		/**
		 * Momentary speed for the 18th House
		 */
		house_18_speed: number,
		/**
		 * Momentary speed for the 19th House
		 */
		house_19_speed: number,
		/**
		 * Momentary speed for the 20th House
		 */
		house_20_speed: number,
		/**
		 * Momentary speed for the 21th House
		 */
		house_21_speed: number,
		/**
		 * Momentary speed for the 22th House
		 */
		house_22_speed: number,
		/**
		 * Momentary speed for the 23th House
		 */
		house_23_speed: number,
		/**
		 * Momentary speed for the 24th House
		 */
		house_24_speed: number,
		/**
		 * Momentary speed for the 25th House
		 */
		house_25_speed: number,
		/**
		 * Momentary speed for the 26th House
		 */
		house_26_speed: number,
		/**
		 * Momentary speed for the 27th House
		 */
		house_27_speed: number,
		/**
		 * Momentary speed for the 28th House
		 */
		house_28_speed: number,
		/**
		 * Momentary speed for the 29th House
		 */
		house_29_speed: number,
		/**
		 * Momentary speed for the 30th House
		 */
		house_30_speed: number,
		/**
		 * Momentary speed for the 31th House
		 */
		house_31_speed: number,
		/**
		 * Momentary speed for the 32th House
		 */
		house_32_speed: number,
		/**
		 * Momentary speed for the 33th House
		 */
		house_33_speed: number,
		/**
		 * Momentary speed for the 34th House
		 */
		house_34_speed: number,
		/**
		 * Momentary speed for the 35th House
		 */
		house_35_speed: number,
		/**
		 * Momentary speed for the 36th House
		 */
		house_36_speed: number,
	]

	export type EclipseTimes = [
		/**
		 * time of maximum eclipse in jd
		 */
		eclipse_max: number,
		/**
		 * Unused
		 */
		_: number,
		/**
		 * time of partial phase start
		 */
		partial_start: number,
		/**
		 * time of partial phase end
		 */
		partial_end: number,
		/**
		 * time of totality start
		 */
		total_start: number,
		/**
		 * time of totality end
		 */
		total_end: number,
		/**
		 * time of penumbral phase start
		 */
		penumbral_start: number,
		/**
		 * time of penumbral phase end
		 */
		penumbral_end: number
	]

	export type EclipseTimes2 = [
		...times: EclipseTimes,
		/**
		 * Time of moonrise, if it occurs during the eclipse
		 */
		rise: number,
		/**
		 * Time of moonset, if it occurs during the eclipse
		 */
		set: number,
	]

	export type EclipseTimes3 = [
		/**
		 * time of maximum eclipse in jd
		 */
		eclipse_max: number,
		/**
		 * time when eclipse takes place at local apparent noon
		 */
		local_noon: number,
		/**
		 * time of eclipse start
		 */
		eclipse_start: number,
		/**
		 * time of eclipse end
		 */
		eclipse_end: number,
		/**
		 * time of totality start
		 */
		total_start: number,
		/**
		 * time of totality end
		 */
		total_end: number,
		/**
		 * time of center line start
		 */
		center_start: number,
		/**
		 * time of center line end
		 */
		center_end: number,
		/**
		 * time when annular-total eclipse becomes total
		 */
		annular_total: number,
		/**
		 * time when annular-total eclipse becomes annular again
		 */
		total_annular: number
	]

	export type EclipseTimes4 = [
		/**
		 * Time of maximum eclipse
		 */
		max_eclipse: number,
		/**
		 * Time of first contact
		 */
		first_contact: number,
		/**
		 * Time of second contact
		 */
		second_contact: number,
		/**
		 * Time of third contact
		 */
		third_contact: number,
		/**
		 * Time of fourth contact
		 */
		fourth_contact: number,
		/**
		 * Time of sunrise between first and forth contact
		 */
		sunrise: number,
		/**
		 * Time of sunset between first and forth contact
		 */
		sunset: number
	]

	export type EclipseCoords = [
		/**
		 * Geographic longitude of central line
		 */
		central_long: number,
		/**
		 * Geographic latitude of central line
		 */
		central_lat: number,
		/**
		 * Geographic longitude of northern limit of umbra
		 */
		north_umbra_long: number,
		/**
		 * Geographic latitude of northern limit of umbra
		 */
		north_umbra_lat: number,
		/**
		 * Geographic longitude of southern limit of umbra
		 */
		south_umbra_long: number,
		/**
		 * Geographic latitude of southern limit of umbra
		 */
		south_umbra_lat: number,
		/**
		 * Geographic longitude of northern limit of penumbra
		 */
		north_penumbra_long: number,
		/**
		 * Geographic latitude of northern limit of penumbra
		 */
		north_penumbra_lat: number,
		/**
		 * Geographic longitude of southern limit of penumbra
		 */
		south_penumbra_long: number,
		/**
		 * Geographic latitude of southern limit of penumbra
		 */
		south_penumbra_lat: number
	]

	export type EclipseAttributes = [
		/**
		 * Fraction of solar diameter covered by moon (magnitude)
		 */
		solar_diameter: number,
		/**
		 * Ratio of lunar diameter to solar one
		 */
		lunar_diameter: number,
		/**
		 * Fraction of solar disc covered by moon (obscuration)
		 */
		solar_disc: number,
		/**
		 * Diameter of core shadow in km
		 */
		core_shadow: number,
		/**
		 * Azimuth of sun at tjd
		 */
		sun_azimuth: number,
		/**
		 * True altitude of sun above horizon at tjd
		 */
		true_altitude: number,
		/**
		 * Apparent altitude of sun above horizon at tjd
		 */
		mean_altitude: number,
		/**
		 * Elongation of moon in degrees
		 */
		elongation: number
	]

	export type EclipseAttributes2 = [
		...attr: EclipseAttributes,
		/**
		 * Eclipse magnitude (same as solar_diameter or lunar_diameter depending on the eclipse type)
		 */
		mag: number,
		/**
		 * Saros series number (if available, otherwise -99999999)
		 */
		saros: number,
		/**
		 * Saros series member number (if available, otherwise -99999999)
		 */
		saros_member: number
	]

	export type LunEclipseAttributes = [
		/**
		 * Umbral magnitude at jd
		 */
		umbral: number,
		/**
		 * Penumbral magnitude
		 */
		penumbral: number,
		/**
		 * Unused
		 */
		_: number,
		/**
		 * Unused
		 */
		_: number,
		/**
		 * Azimuth of the moon at jd
		 */
		azimuth: number,
		/**
		 * True altitude of the moon above horizon at jd
		 */
		true_altitude: number,
		/**
		 * Apparent altitude of the moon above horizon at jd
		 */
		apparent_altitude: number,
		/**
		 * Distance of the moon from opposition in degrees
		 */
		distance: number,
		/**
		 * Eclipse magnitude (same as umbral magnitude)
		 */
		mag: number,
		/**
		 * Saros series number (if available, otherwise -99999999)
		 */
		saros: number,
		/**
		 * Saros series member number (if available, otherwise -99999999)
		 */
		saros_member: number
	]

	export type LunEclipseAttributes2 = [
		/**
		 * Fraction of object's diameter covered by moon (magnitude)
		 */
		object_diameter: number,
		/**
		 * Ratio of lunar diameter to object's diameter
		 */
		lunar_diameter: number,
		/**
		 * Fraction of object's disc covered by moon (obscuration)
		 */
		object_disc: number,
		/**
		 * Diameter of core shadow in km
		 */
		core_shadow: number,
		/**
		 * Azimuth of object at tjd
		 */
		object_azimuth: number,
		/**
		 * True altitude of object above horizon at tjd
		 */
		true_altitude: number,
		/**
		 * Apparent altitude of object above horizon at tjd
		 */
		apparent_altitude: number,
		/**
		 * Angular distance of moon from object in degrees
		 */
		angular_distance: number,
	]

	export type PhenoData = [
		/**
		 * Phase angle (Earth-planet-sun)
		 */
		phase_angle: number,
		/**
		 * Phase (illumined fraction of disc)
		 */
		phase: number,
		/**
		 * Elongation of planet
		 */
		elongation: number,
		/**
		 * Apparent diameter of disc
		 */
		diameter: number,
		/**
		 * Apparent magnitude
		 */
		magnitude: number
	]

	export type RefracExtendedData = [
		/**
		 * True altitude if possible, otherwise input value
		 */
		true_altitude: number,
		/**
		 * Apparent altitude if possible, otherwise input value
		 */
		apparent_altitude: number,
		/**
		 * Refraction value
		 */
		refraction: number,
		/**
		 * Dip of the horizon
		 */
		dip: number
	]

	export type JdEtUt = [
		/**
		 * Julian day in ephemeris/terrestrial time
		 */
		et: number,
		/**
		 * Julian day in universal time
		 */
		ut: number
	]

	export type VisLimitMagData = [
		/**
		 * Limiting visual magnitude (object is visible if this value is bigger than the object's magnitude value)
		 */
		visual_mag: number,
		/**
		 * Altitude of the object
		 */
		obj_altitude: number,
		/**
		 * Azimuth of the object
		 */
		obj_azimuth: number,
		/**
		 * Altitude of the sun
		 */
		sun_altitude: number,
		/**
		 * Azimuth of the sun
		 */
		sun_azimuth: number,
		/**
		 * Altitude of the moon
		 */
		moon_altitude: number,
		/**
		 * Azimuth of the moon
		 */
		moon_azimuth: number,
		/**
		 * The object's magnitude
		 */
		magnitude: number
	]

	/*
	┌──────────────────────────────────────────────────┬───────────┬──────────────────────────────────────────────────┐
	│┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│ Functions │┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│
	└──────────────────────────────────────────────────┴───────────┴──────────────────────────────────────────────────┘
	*/

	/**
	 * ### Description
	 * Transform horizontal coordinates into ecliptic or equatorial coordinates based on the observer's location
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • calc_flag: number // Calculation flag, SE_HOR2ECL or SE_HOR2EQU
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • xin: Array<number> // Horizontal coordinates [azimuth, true altitude]
	 * ```
	 * ### Returns
	 * ```
	 * Array<number> [
	 *   lon, // (λ) Ecliptic longitude if SE_HOR2ECL, (α) Equatorial right ascension if SE_HOR2EQU
	 *   lat // (β) Ecliptic latitude if SE_HOR2ECL, (δ) Equatorial declination if SE_HOR2EQU
	 * ]
	 * ```
	 * ### Example
	 * ```
	 * const result = azalt_rev(2314234, constants.SE_HOR2ECL, [34, 40, 0], [75, 67]);
	 * console.log(`Longitude: ${result[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function azalt_rev(tjd_ut: number, calc_flag: number, geopos: [longitude: number, latitude: number, elevation: number], xin: [azimuth: number, true_altitude: number]): AzaltRev;

	/**
	 * ### Description
	 * Transform ecliptic or equatorial coordinates into horizontal coordinates based on the observer's location
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • calc_flag: number // Calculation flag, SE_ECL2HOR or SE_EQU2HOR
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • atpress: number // Atmospheric pressure in mbar/hpa
	 * • attemp: number // Atmospheric temperature in celcius
	 * • xin: Array<number> // Ecliptic or equatorial coordinates [lon/ra, lat/dec, distance]
	 * ```
	 * ### Returns
	 * ```
	 * Array<number> [
	 *   az, // Azimuth
	 *   alt, // True altitude
	 *   ap // Apparent altitude (with refraction)
	 * ]
	 * ```
	 * ### Example
	 * ```
	 * const result = azalt(2314234, constants.SE_ECL2HOR, [34, 40, 0], 0, 0, [75, 67, 0]);
	 * console.log(`Azimuth: ${result[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function azalt(tjd_ut: number, calc_flag: number, geopos: [longitude: number, latitude: number, elevation: number], atpress: number, attemp: number, xin: [lon_or_ra: number, lat_or_dec: number, distance: number]): Azalt;

	/**
	 * ### Description
	 * Compute planetocentric positions of planets as observed from a different planet, for example Jupiter-centric ephemerides
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in terrestrial/ephemeris time
	 * • ipl: number // Target object ID
	 * • iplctr: number // Center object ID
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // Computed flags or ERR
	 *   error: string, // Error message if ERR or if incompatible flags
	 *   data: Array<number> [
	 *     lon, // Longitude, right ascension, cartesian X, or true obliquity depending on the flags
	 *     lat, // Latitude, declination, cartesian Y, or mean obliquity depending on the flags
	 *     dist, // Distance in AU, cartesian Z or nutation in longitude depending on the flags
	 *     lonSpd, // Daily speed for lon or nutation in obliquity depending on the flags
	 *     latSpd, // Daily speed for lat
	 *     distSpd, // Daily speed for dist
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED;
	 * const result = calc_pctr(2314234, constants.SE_EARTH, constants.SE_MARS, flags);
	 * if(result.flag === constants.ERR) throw new Error(result.error);
	 * if(result.flag !== flags) console.log(result.error);
	 * console.log(`Longitude: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function calc_pctr(tjd_et: number, ipl: number, iplctr: number, iflag: number): Calc;

	/**
	 * ### Description
	 * Compute positions of planets, asteroids, lunar nodes and apogees from universal time
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ipl: number // Target object ID
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // Computed flags or ERR
	 *   error: string, // Error message if ERR or if incompatible flags
	 *   data: Array<number> [
	 *     lon, // Longitude, right ascension, cartesian X, or true obliquity depending on the flags
	 *     lat, // Latitude, declination, cartesian Y, or mean obliquity depending on the flags
	 *     dist, // Distance in AU, cartesian Z or nutation in longitude depending on the flags
	 *     lonSpd, // Daily speed for lon or nutation in obliquity depending on the flags
	 *     latSpd, // Daily speed for lat
	 *     distSpd, // Daily speed for dist
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED;
	 * const result = calc_ut(2314234, constants.SE_MOON, flags);
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * if(result.flag !== flags) { console.log(result.error); }
	 * console.log(`Longitude: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function calc_ut(tjd_ut: number, ipl: number, iflag: number): Calc;

	/**
	 * ### Description
	 * Compute positions of planets, asteroids, lunar nodes and apogees from ephemeris time
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in terrestrial/ephemeris time
	 * • ipl: number // Target object ID
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // Computed flags or ERR
	 *   error: string, // Error message if ERR or if incompatible flags
	 *   data: Array<number> [
	 *     lon, // Longitude, right ascension, cartesian X, or true obliquity depending on the flags
	 *     lat, // Latitude, declination, cartesian Y, or mean obliquity depending on the flags
	 *     dist, // Distance in AU, cartesian Z or nutation in longitude depending on the flags
	 *     lonSpd, // Daily speed for lon or nutation in obliquity depending on the flags
	 *     latSpd, // Daily speed for lat
	 *     distSpd, // Daily speed for dist
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED;
	 * const result = calc(2314234, constants.SE_VENUS, flags);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * if(result.flag !== flags) { console.log(result.error); }
	 * console.log(`Longitude: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function calc(tjd_et: number, ipl: number, iflag: number): Calc;

	/**
	 * ### Description
	 * Reset swisseph internals and cleanup file handles  
	 * Not usually required as Node cleans after itself
	 * ### Example
	 * ```
	 * close();
	 * ```
	 * &nbsp;
	 */
	export function close(): void;

	/**
	 * ### Description
	 * Transform between ecliptic and equatorial coordinate systems including motion speeds  
	 * From equatorial to ecliptic, obliquity must be positive  
	 * From ecliptic to equatorial, obliquity must be negative  
	 * Distances are not affected and can be 0
	 * ### Params
	 * ```
	 * • xpo: Array<number> // Input coordinates in ecliptic or equatorial coordinates [lon, lat, dist, lonSpd, latSpd, distSpd]
	 * • eps: number // Positive or negative obliquity of the ecliptic
	 * ```
	 * ### Returns
	 * ```
	 * Array<number> [
	 *   lon, // (λ) Ecliptic longitude or (α) Equatorial right ascension
	 *   lat // (β) Ecliptic latitude or (δ) Equatorial declination
	 *   dist, // Distance in AU (unchanged)
	 *   lonSpd, // Daily speed for lon
	 *   latSpd, // Daily speed for lat
	 *   distSpd, // Daily speed for dist (unchanged)
	 * ]
	 * ```
	 * ### Example
	 * ```
	 * const obliquity = calc(2314234, constants.SE_ECL_NUT, constants.SEFLG_SWIEPH).data[0];
	 * const result = cotrans_sp([345, 10, 0, 1.5, 0.01, 0], -obliquity);
	 * console.log(`Right Ascension: ${result[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function cotrans_sp(xpo: [lon: number, lat: number, dist: number, lonSpd: number, latSpd: number, distSpd: number], eps: number): CoTransSp;

	/**
	 * ### Description
	 * Transform between ecliptic and equatorial coordinate systems  
	 * From equatorial to ecliptic, obliquity must be positive  
	 * From ecliptic to equatorial, obliquity must be negative  
	 * Distance is not affected and can be 0
	 * ### Params
	 * ```
	 * • xpo: Array<number> // Input coordinates in ecliptic or equatorial coordinates [lon, lat, dist]
	 * • eps: number // Positive or negative obliquity of the ecliptic
	 * ```
	 * ### Returns
	 * ```
	 * Array<number> [
	 *   lon, // Longitude or right ascension
	 *   lat, // Latitude or declination
	 *   dist, // Distance in AU (unchanged)
	 * ]
	 * ```
	 * ### Example
	 * ```
	 * const obliquity = calc(2314234, constants.SE_ECL_NUT, constants.SEFLG_SWIEPH).data[0];
	 * const result = cotrans([345, 10, 0], -obliquity);
	 * console.log(`Right Ascension: ${result[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function cotrans(xpo: [lon: number, lat: number, dist: number], eps: number): CoTrans;

	/**
	 * ### Description
	 * Convert centiseconds to degrees string
	 * ### Params
	 * ```
	 * • csec: number // Centiseconds value
	 * ```
	 * ### Returns
	 * ```
	 * string
	 * ```
	 * ### Example
	 * ```
	 * const deg = cs2degstr(2345464); // " 6°30'54"
	 * ```
	 * &nbsp;
	 */
	export function cs2degstr(csec: number): string;

	/**
	 * ### Description
	 * Convert centiseconds to longitude or latitude string with user defined sign character
	 * ### Params
	 * ```
	 * • csec: number // Centiseconds value
	 * • pchar: string // Sign character for positive values
	 * • mchar: string // Sign character for negative values
	 * ```
	 * ### Returns
	 * ```
	 * string
	 * ```
	 * ### Example
	 * ```
	 * const lon = cs2lonlatstr(2345464, "+", "-"); // "6+30'55"
	 * ```
	 * &nbsp;
	 */
	export function cs2lonlatstr(csec: number, pchar: string, mchar: string): string;

	/**
	 * ### Description
	 * Convert centiseconds to time string
	 * ### Params
	 * ```
	 * • csec: number // Centiseconds value
	 * • sep: string // Separator character
	 * • suppresszero: boolean // Omit seconds if they are zero
	 * ```
	 * ### Returns
	 * ```
	 * string
	 * ```
	 * ### Example
	 * ```
	 * const time = cs2timestr(2345464, ":", true); // "6:30:55"
	 * ```
	 * &nbsp;
	 */
	export function cs2timestr(csec: number, sep: string, suppresszero: boolean): string;

	/**
	 * ### Description
	 * Normalize centiseconds to 360 degrees range
	 * ### Params
	 * ```
	 * • csec: number // Centiseconds value
	 * ```
	 * ### Returns
	 * ```
	 * number
	 * ```
	 * ### Example
	 * ```
	 * const cs = csnorm(234546424235); // 8022955
	 * ```
	 * &nbsp;
	 */
	export function csnorm(csec: number): number;

	/**
	 * ### Description
	 * Round centiseconds to nearest second
	 * ### Params
	 * ```
	 * • csec: number // Centiseconds value
	 * ```
	 * ### Returns
	 * ```
	 * number
	 * ```
	 * ### Example
	 * ```
	 * const cs = csroundsec(14235235); // 14235200
	 * ```
	 * &nbsp;
	 */
	export function csroundsec(csec: number): number;

	/**
	 * ### Description
	 * Round double precision value to long integer
	 * ### Params
	 * ```
	 * • double: number // Double value
	 * ```
	 * ### Returns
	 * ```
	 * number
	 * ```
	 * ### Example
	 * ```
	 * const long = d2l(546546.7868); // 546547
	 * ```
	 * &nbsp;
	 */
	export function d2l(double: number): number;

	/**
	 * ### Description
	 * Calculate julian day and check if the date is valid
	 * ### Params
	 * ```
	 * • year: number // Full year
	 * • month: number // Month (1-12)
	 * • day: number // Day (1-31)
	 * • hour: number // Hour with decimal fraction (0-23.999)
	 * • calendar: string // Calendar system, 'g' for gregorian calendar, 'j' for julian calendar
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   data: number // Julian day value
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const jd = date_conversion(1995, 5, 15, 13.75, "g");
	 * if(jd.flag !== constants.OK) { throw new Error("Invalid date"); }
	 * console.log(`Julian Day: ${jd.data}`);
	 * ```
	 * &nbsp;
	 */
	export function date_conversion(year: number, month: number, day: number, hour: number, calendar: "g" | "j" | (string & {})): DateConversion;

	/**
	 * ### Description
	 * Find which day of the week a particular date is
	 * ### Params
	 * ```
	 * • jd: number // Julian day value in universal time
	 * ```
	 * ### Returns
	 * ```
	 * number // 0 = monday, ... 6 = sunday;
	 * ```
	 * ### Example
	 * ```
	 * const day = day_of_week(2459311); // 1 (tuesday)
	 * ```
	 * &nbsp;
	 */
	export function day_of_week(jd: number): number;

	/**
	 * ### Description
	 * Normalize degree value to 0-360 range
	 * ### Params
	 * ```
	 * • deg: number // degree value
	 * ```
	 * ### Returns
	 * ```
	 * number // Normalized degree value;
	 * ```
	 * ### Example
	 * ```
	 * const deg = degnorm(523.546); // 163.546
	 * ```
	 * &nbsp;
	 */
	export function degnorm(deg: number): number;

	/**
	 * ### Description
	 * Obtain the Delta T value for a date using a particular ephemeris system
	 * ### Params
	 * ```
	 * • tjd: number // Julian day value in Universal Time
	 * • ephe: number // Ephemeris flag (SEFLG_SWIEPH, SEFLG_JPLEPH or SEFLG_MOSEPH)
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   error: string // Warning message if any
	 *   data: number // Delta T value
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const deltaT = deltat_ex(2431232, constants.SEFLG_MOSEPH); // 0.00032552915335235926
	 * ```
	 * &nbsp;
	 */
	export function deltat_ex(tjd: number, ephe: number): DeltaT;

	/**
	 * ### Description
	 * Obtain the Delta T value for a particular date
	 * ### Params
	 * ```
	 * • tjd: number // Julian day value in Universal Time
	 * ```
	 * ### Returns
	 * ```
	 * number // Delta T value
	 * ```
	 * ### Example
	 * ```
	 * const deltaT = deltat(2431232); // 0.00032554160173271644
	 * ```
	 * &nbsp;
	 */
	export function deltat(tjd: number): number;

	/**
	 * ### Description
	 * Arc distance between two points in centiseconds
	 * ### Params
	 * ```
	 * • csec1: number // First point in centiseconds
	 * • csec2: number // Second point in centiseconds
	 * ```
	 * ### Returns
	 * ```
	 * number // Distance in centiseconds from -64800000 to 64800000 (negative if second point is ahead of the first)
	 * ```
	 * ### Example
	 * ```
	 * const distance = difcs2n(155, 160); // -5
	 * ```
	 * &nbsp;
	 */
	export function difcs2n(csec1: number, csec2: number): number;

	/**
	 * ### Description
	 * Arc distance between two points in centiseconds in a single direction
	 * ### Params
	 * ```
	 * • csec1: number // First point in centiseconds
	 * • csec2: number // Second point in centiseconds
	 * ```
	 * ### Returns
	 * ```
	 * number // Distance in centiseconds from 0 to 129600000
	 * ```
	 * ### Example
	 * ```
	 * const distance = difcsn(155, 160); // 129599995
	 * ```
	 * &nbsp;
	 */
	export function difcsn(csec1: number, csec2: number): number;

	/**
	 * ### Description
	 * Arc distance between two points in degrees
	 * ### Params
	 * ```
	 * • deg1: number // First point in degrees
	 * • deg2: number // Second point in degrees
	 * ```
	 * ### Returns
	 * ```
	 * number // Distance in degrees from -180 to 180 (negative if second point is ahead of the first)
	 * ```
	 * ### Example
	 * ```
	 * const distance = difdeg2n(120, 130); // -10
	 * ```
	 * &nbsp;
	 */
	export function difdeg2n(deg1: number, deg2: number): number;

	/**
	 * ### Description
	 * Arc distance between two points in degrees in a single direction
	 * ### Params
	 * ```
	 * • deg1: number // First point in degrees
	 * • deg2: number // Second point in degrees
	 * ```
	 * ### Returns
	 * ```
	 * number // Distance in degrees from 0 to 360
	 * ```
	 * ### Example
	 * ```
	 * const distance = difdegn(120, 130); // 350
	 * ```
	 * &nbsp;
	 */
	export function difdegn(deg1: number, deg2: number): number;

	/**
	 * ### Description
	 * Get the visual magnitude (brightness) of a fixed star
	 * ### Params
	 * ```
	 * • star: string // Name of the star to search for in the sefstars.txt file
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   name: string, // The name of the matched star from the sefstars.txt file
	 *   data: number // The star's magnitude value
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = fixStar_mag("Aldebaran");
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * console.log(`
	 *   Star: ${result.name}
	 *   Magnitude: ${result.data}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function fixstar_mag(star: string): FixStarMag;

	/**
	 * ### Description
	 * Calculate the positions of a star from universal time
	 * ### Params
	 * ```
	 * • star: string // Name of the star to search for in the sefstars.txt file
	 * • tjd_ut: number // Julian day in universal time
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   name: string, // The name of the matched star from the sefstars.txt file
	 *   data: Array<number> [
	 *     lon, // Longitude, right ascension or cartesian X
	 *     lat, // Latitude, declination or cartesian Y
	 *     dist, // Distance in AU or cartesian Z
	 *     lonSpd, // Daily speed for lon
	 *     latSpd, // Daily speed for lat
	 *     distSpd, // Daily speed for dist
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED;
	 * const result = fixstar_ut("Aldebaran", 2413256, flags);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * if(result.flag !== flags) { console.log(result.error); }
	 * console.log(`
	 *   Name: ${result.name}
	 *   Longitude: ${result.data[0]}
	 * `);
	 * ```
	 * &nbsp;
	 */
	export function fixstar_ut(star: string, tjd_ut: number, iflag: number): FixStar;

	/**
	 * ### Description
	 * Calculate the positions of a star from ephemeris/terrestrial time
	 * ### Params
	 * ```
	 * • star: string // Name of the star to search for in the sefstars.txt file
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   name: string, // The name of the matched star from the sefstars.txt file
	 *   data: Array<number> [
	 *     lon, // Longitude, right ascension or cartesian X
	 *     lat, // Latitude, declination or cartesian Y
	 *     dist, // Distance in AU or cartesian Z
	 *     lonSpd, // Daily speed for lon
	 *     latSpd, // Daily speed for lat
	 *     distSpd, // Daily speed for dist
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED;
	 * const result = fixstar("Aldebaran", 2413256, flags);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * if(result.flag !== flags) { console.log(result.error); }
	 * console.log(`
	 *   Name: ${result.name}
	 *   Longitude: ${result.data[0]}
	 * `);
	 * ```
	 * &nbsp;
	 */
	export function fixstar(star: string, tjd_et: number, iflag: number): FixStar;

	/**
	 * ### Description
	 * Get the visual magnitude (brightness) of a fixed star
	 * ### Params
	 * ```
	 * • star: string // Name of the star to search for in the sefstars.txt file
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   name: string, // The name of the matched star from the sefstars.txt file
	 *   data: number // The star's magnitude value
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = fixStar2_mag("Aldebaran");
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * console.log(`
	 *   Star: ${result.name}
	 *   Magnitude: ${result.data}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function fixstar2_mag(star: string): FixStarMag;

	/**
	 * ### Description
	 * Calculate the positions of a star from universal time
	 * ### Params
	 * ```
	 * • star: string // Name of the star to search for in the sefstars.txt file
	 * • tjd_ut: number // Julian day in universal time
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   name: string, // The name of the matched star from the sefstars.txt file
	 *   data: Array<number> [
	 *     lon, // Longitude, right ascension or cartesian X
	 *     lat, // Latitude, declination or cartesian Y
	 *     dist, // Distance in AU or cartesian Z
	 *     lonSpd, // Daily speed for lon
	 *     latSpd, // Daily speed for lat
	 *     distSpd, // Daily speed for dist
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED;
	 * const result = fixstar2_ut("Aldebaran", 2413256, flags);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * if(result.flag !== flags) { console.log(result.error); }
	 * console.log(`
	 *   Name: ${result.name}
	 *   Longitude: ${result.data[0]}
	 * `);
	 * ```
	 * &nbsp;
	 */
	export function fixstar2_ut(star: string, tjd_ut: number, iflag: number): FixStar;

	/**
	 * ### Description
	 * Calculate the positions of a star from ephemeris/terrestrial time
	 * ### Params
	 * ```
	 * • star: string // Name of the star to search for in the sefstars.txt file
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   name: string, // The name of the matched star from the sefstars.txt file
	 *   data: Array<number> [
	 *     lon, // Longitude, right ascension or cartesian X
	 *     lat, // Latitude, declination or cartesian Y
	 *     dist, // Distance in AU or cartesian Z
	 *     lonSpd, // Daily speed for lon
	 *     latSpd, // Daily speed for lat
	 *     distSpd, // Daily speed for dist
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH | constants.SEFLG_SPEED;
	 * const result = fixstar2("Aldebaran", 2413256, flags);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * if(result.flag !== flags) { console.log(result.error); }
	 * console.log(`
	 *   Name: ${result.name}
	 *   Longitude: ${result.data[0]}
	 * `);
	 * ```
	 * &nbsp;
	 */
	export function fixstar2(star: string, tjd_et: number, iflag: number): FixStar;

	/**
	 * ### Description
	 * Calculate the Gauquelin Sector position of an object
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time time
	 * • ipl: number // Object ID (This is ignored if starname is not null)
	 * • starname: string | null // Star name if star
	 * • iflag: number // Calculation flags
	 * • imeth: number // Gauquelin sector calculation method
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • atpress: number // Atmospheric pressure in mbar/hpa
	 * • attemp: number // Atmospheric temperature in celcius
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR or other warnings
	 *   data: number // The gauquelin sector with fraction
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = gauquelin_sector(2413256, constants.SE_MOON, null, constants.SEFLG_SWIEPH, 0, [15,10,0], 0, 0);
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * if(result.error) { console.log(result.error); }
	 * console.log(`Sector: ${Math.floor(result.data)}`);
	 * ```
	 * &nbsp;
	 */
	export function gauquelin_sector(tjd_ut: number, ipl: number, starname: string | null, iflag: number, imeth: number, geopos: [longitude: number, latitude: number, elevation: number], atpress: number, attemp: number): GauquelinSector;

	/**
	 * ### Description
	 * Get Ayanamsa value from universal time with nutation
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ephe_flag: number // Ephemeris flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // Computed ephemeris flag or ERR
	 *   error: string, // Error message if ERR
	 *   data: number // Ayanamsa value
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = get_ayanamsa_ex_ut(2314234, constants.SEFLG_SWIEPH);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * ```
	 * &nbsp;
	 */
	export function get_ayanamsa_ex_ut(tjd_ut: number, ephe_flag: number): Ayanamsa;

	/**
	 * ### Description
	 * Get Ayanamsa value from ephemeris/terrestrial time with nutation
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • ephe_flag: number // Ephemeris flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // Computed ephemeris flag or ERR
	 *   error: string, // Error message if ERR
	 *   data: number // Ayanamsa value
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = get_ayanamsa_ex(2314234, constants.SEFLG_SWIEPH);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * ```
	 * &nbsp;
	 */
	export function get_ayanamsa_ex(tjd_et: number, ephe_flag: number): Ayanamsa;

	/**
	 * ### Description
	 * Get name of predefined ayanamsa ID
	 * ### Params
	 * ```
	 * • aya: number // Predefined ayanamsa ID
	 * ```
	 * ### Returns
	 * ```
	 * string // Ayanamsa name
	 * ```
	 * ### Example
	 * ```
	 * const sidname = get_ayanamsa_name(constants.SE_SIDM_LAHIRI); // "Lahiri"
	 * ```
	 * &nbsp;
	 */
	export function get_ayanamsa_name(aya: number): string;

	/**
	 * ### Description
	 * Get ayanamsa value from universal time without nutation
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in universal time
	 * ```
	 * ### Returns
	 * ```
	 * number // Ayanamsa value for given date
	 * ```
	 * ### Example
	 * ```
	 * const ayan = get_ayanamsa_ut(2314234); // 19.493219647880473
	 * ```
	 * &nbsp;
	 */
	export function get_ayanamsa_ut(tjd_ut: number): number;

	/**
	 * ### Description
	 * Get ayanamsa value from ephemeris time without nutation
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * ```
	 * ### Returns
	 * ```
	 * number // Ayanamsa value for given date
	 * ```
	 * ### Example
	 * ```
	 * const ayan = get_ayanamsa(2314234); // 19.493219620078364
	 * ```
	 * &nbsp;
	 */
	export function get_ayanamsa(tjd_et: number): number;

	/**
	 * ### Description
	 * Get information from the last used ephemeris file
	 * ### Params
	 * ```
	 * • ifno: number // file type
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   path: string, // Path to ephemeris file
	 *   start: number, // Ephemeris start date
	 *   end: number, // Ephemeris end date
	 *   denum: number // JPL version used to generate the file
	 * }
	 * ```
	 * ### Example
	 * ```
	 * // call calc to load the ephemeris file
	 * calc(2342342, constants.SE_VENUS, constants.SEFLG_SWIEPH);
	 * const fileinfo = get_current_file_data(0);
	 * ```
	 * &nbsp;
	 */
	export function get_current_file_data(ifno: number): GetCurrentFileData;

	/**
	 * ### Description
	 * Get library path  
	 * Returns the location of the node executable
	 * ### Returns
	 * ```
	 * string // Library path
	 * ```
	 * ### Example
	 * ```
	 * const path = get_library_path();
	 * ```
	 * &nbsp;
	 */
	export function get_library_path(): string;

	/**
	 * ### Description
	 * Get an object's orbital elements for a given date in ephemeris/terrestrial time
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • ipl: number // Object ID
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message if ERR
	 *   data: number [
	 *     a, // Semimajor axis
	 *     e, // Eccentricity
	 *     i, // Inclination
	 *     Ω, // Longitude of ascending node
	 *     ω, // Argument of periapsis
	 *     ϖ, // Longitude of periapsis
	 *     M0, // Mean anomaly at epoch
	 *     ν0, // True anomaly at epoch
	 *     E0, // Eccentric anomaly at epoch
	 *     L0, // Mean longitude at epoch
	 *     sidereal_period, // Sidereal orbital period in tropical years
	 *     daily_motion, // Mean daily motion
	 *     tropical_period, // Tropical period in years
	 *     synodic_period, // Synodic period in days
	 *     perihelion_passage, // Time of perihelion passage
	 *     perihelion_distance, // Perihelion distance
	 *     aphelion_distance // Aphelion distance
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = get_orbital_elements(2314234, constants.SE_MARS, constants.SEFLG_SWIEPH);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * ```
	 * &nbsp;
	 */
	export function get_orbital_elements(tjd_et: number, ipl: number, iflag: number): GetOrbitalElements

	/**
	 * ### Description
	 * Get an object's name
	 * ### Params
	 * ```
	 * • ipl: number // Object ID
	 * ```
	 * ### Returns
	 * ```
	 * string // Object's name
	 * ```
	 * ### Example
	 * ```
	 * const name = get_planet_name(constants.SE_PLUTO); // "Pluto"
	 * ```
	 * &nbsp;
	 */
	export function get_planet_name(ipl: number): string;

	/**
	 * ### Description
	 * Get internal tidal acceleration value
	 * ### Returns
	 * ```
	 * number // Tidal acceleration
	 * ```
	 * ### Example
	 * ```
	 * const tidacc = get_tid_acc();
	 * ```
	 * &nbsp;
	 */
	export function get_tid_acc(): number;

	/**
	 * ### Description
	 * Obtain additional data used for calculation of heliacal risings and settings
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • dgeo: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • datm: Array<number> // Atmospheric conditions [pressure, temperature, humidity, meteorological range]
	 * • dobs: Array<number> // Observer description [age, sellen ratio, optical type, optical magnification, optical aperture, optical transmission]
	 * • object_name: string // Name of fixed star or planet
	 * • event_type: number // Event type
	 * • hel_flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message if ERR
	 *   data: number [
	 *     AltO, // topocentric altitude of object in degrees (unrefracted)
	 *     AppAltO, // apparent altitude of object in degrees (refracted)
	 *     GeoAltO, // geocentric altitude of object in degrees
	 *     AziO, // azimuth of object in degrees
	 *     AltS, // topocentric altitude of Sun in degrees
	 *     AziS, // azimuth of Sun in degrees
	 *     TAVact, // actual topocentric arcus visionis in degrees
	 *     ARCVact, // actual (geocentric) arcus visionis in degrees
	 *     DAZact, // actual difference between object's and sun's azimuth in degrees
	 *     ARCLact, // actual longitude difference between object and sun in degrees
	 *     kact, // extinction coefficient
	 *     minTAV, // smallest topocentric arcus visionis in degrees
	 *     TfistVR, // first time object is visible, according to VR in JD
	 *     TbVR, // optimum time the object is visible, according to VR in JD
	 *     TlastVR, // last time object is visible, according to VR in JD
	 *     TbYallop, // best time the object is visible, according to Yallop in JD
	 *     WMoon, // crescent width of Moon in degrees
	 *     qYal, // q-test value of Yallop
	 *     qCrit, // q-test criterion of Yallop
	 *     ParO, // parallax of object in degrees
	 *     Magn, // magnitude of object
	 *     RiseO, // rise/set time of object in JD
	 *     RiseS, // rise/set time of Sun in JD
	 *     Lag, // rise/set time of object minus rise/set time of Sun in JD
	 *     TvisVR, // visibility duration in JD
	 *     LMoon, // crescent length of Moon in degrees
	 *     CVAact, // CVAact in degrees
	 *     Illum, // Illum in percentage
	 *     CVAact, // CVAact in degrees
	 *     MSk // MSk
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = heliacal_pheno_ut(2415362, [8,47,900], [1000,10,50,-0.15], [21,0,0,0,0,0], "moon", 0, 0);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(result.data);
	 * ```
	 * &nbsp;
	 */
	export function heliacal_pheno_ut(tjd_ut: number, dgeo: [longitude: number, latitude: number, elevation: number], datm: [pressure: number, temperature: number, humidity: number, meteorological_range: number], dobs: [age: number, sellen_ratio: number, optical_type: number, optical_magnification: number, optical_aperture: number, optical_transmission: number], object_name: string, event_type: number, hel_flag: number): HeliacalPheno;

	/**
	 * ### Description
	 * Calculate the next heliacal phenomenon after a given start date  
	 * It works between geographic latitudes -60 and 60
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • dgeo: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • datm: Array<number> // Atmospheric conditions [pressure, temperature, humidity, meteorological range]
	 * • dobs: Array<number> // Observer description [age, sellen ratio, optical type, optical magnification, optical aperture, optical transmission]
	 * • object_name: string // Name of fixed star or planet
	 * • event_type: number // Event type
	 * • hel_flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message if ERR
	 *   data: number [
	 *     vis_start, // Start visibility in JD
	 *     vis_opt, // Optimum visibility in JD (zero if hel_flag >= SE_HELFLAG_AV)
	 *     vis_end // End of visibility in JD (zero if hel_flag >= SE_HELFLAG_AV)
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = heliacal_ut(2415362, [8,47,900], [1000,10,50,-0.15], [21,0,0,0,0,0], "venus", 0, 0);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(`Visibility Start: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function heliacal_ut(tjd_ut: number, dgeo: [longitude: number, latitude: number, elevation: number], datm: [pressure: number, temperature: number, humidity: number, meteorological_range: number], dobs: [age: number, sellen_ratio: number, optical_type: number, optical_magnification: number, optical_aperture: number, optical_transmission: number], object_name: string, event_type: number, hel_flag: number): Heliacal;

	/**
	 * ### Description
	 * Compute a planets heliocentric crossing over some longitude
	 * ### Params
	 * ```
	 * • ipl: number // Object ID
	 * • x2cross: number // Longitude point to search for
	 * • jd_ut: number // Start date in julian days in universal time
	 * • flag: number // Calculation flag
	 * • dir: number // Search direction, 0 = forwards, -1 = backwards
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message if ERR
	 *   date: number // Next crossing date in julian days in universal time
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = helio_cross_ut(constants.SE_MARS, 134.5, 2415362, constants.SEFLG_SWIEPH, 0);
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function helio_cross_ut(ipl: number, x2cross: number, jd_ut: number, flag: number, dir: number): Cross & Flag;

	/**
	 * ### Description
	 * Compute a planets heliocentric crossing over some longitude
	 * ### Params
	 * ```
	 * • ipl: number // Object ID
	 * • x2cross: number // Longitude point to search for
	 * • jd_et: number // Start date in julian days in ephemeris/terrestrial time
	 * • flag: number // Calculation flag
	 * • dir: number // Search direction, 0 = forwards, -1 = backwards
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message if ERR
	 *   date: number // Next crossing date in julian days in ephemeris/terrestrial time
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = helio_cross(constants.SE_MARS, 134.5, 2415362, constants.SEFLG_SWIEPH, 0);
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function helio_cross(ipl: number, x2cross: number, jd_et: number, flag: number, dir: number): Cross & Flag;

	/**
	 * ### Description
	 * Get the name of a house system
	 * ### Params
	 * ```
	 * • hsys: string // House system ID
	 * ```
	 * ### Returns
	 * ```
	 * string // House system name
	 * ```
	 * ### Example
	 * ```
	 * const name = house_name("P"); // "Placidus"
	 * ```
	 * &nbsp;
	 */
	export function house_name(hsys: HouseSystems | string & {}): string;

	/**
	 * ### Description
	 * Calculate the house position of an object  
	 * This function attempts to obtain a visually accurate house position by also taking latitude/declination into account
	 * ### Params
	 * ```
	 * • armc: number // Right ascension
	 * • geolat: number // Geographic latitude
	 * • eps: number // Obliquity of the ecliptic
	 * • hsys: string // House system ID
	 * • xpin: Array<number> // Object position in ecliptic tropical coordinates [longitude, latitude]
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   error: string, // Error message if any
	 *   data: number // House position including fraction
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = house_pos(50, 45, 23, "p", [256, 2]);
	 * if(result.error) { throw new Error(result.error); }
	 * console.log(`House: ${Math.floor(result.data)}`);
	 * ```
	 * &nbsp;
	 */
	export function house_pos(armc: number, geolat: number, eps: number, hsys: HouseSystems | string & {}, xpin: [longitude: number, latitude: number]): HousePosition;

	/**
	 * ### Description
	 * Calculate houses and other points from right ascension and obliquity including momentary motion speeds  
	 * This function can be used to calculate houses without a date, such as composite houses  
	 * It also returns an error message in case something goes wrong
	 * ### Params
	 * ```
	 * • armc: number // Right ascension of the midheaven
	 * • geolat: number // Geographic latitude
	 * • eps: number // Obliquity of the ecliptic
	 * • hsys: string // House system ID
	 * • decl?: number // Declination of the Sun (sunshine/makransky houses only)
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   data: Object {
	 *     houses: Array<number> [
	 *       house_1: number, // Longitude of the first house
	 *       house_2: number, // Longitude of the second house
	 *       house_3: number, // Longitude of the third house
	 *       ... // 36 houses if gauquelin sectors, 12 houses otherwise
	 *     ],
	 *     points: Array<number> [
	 *       asc: number, // Ascendant
	 *       mc: number, // Midheaven
	 *       armc: number, // Right Ascension of the midheaven
	 *       vertex: number, // Vertex
	 *       equasc: number, // Equatorial Ascendant
	 *       coasc1: number, // Co-Ascendant (Walter Koch)
	 *       coasc2: number, // Co-Ascendant (Michael Munkasey)
	 *       polasc: number, // Polar Ascendant (Michael Munkasey)
	 *     ],
	 *     housesSpeed: Array<number> [
	 *       ... // Longitude speeds for the houses
	 *     ],
	 *     pointsSpeed: Array<number> [
	 *       ... // Longitude speeds for the points
	 *     ]
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = houses_armc_ex2(34, 10, 23, "P");
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(`Ascendant: ${result.data.points[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function houses_armc_ex2(armc: number, geolat: number, eps: number, hsys: "G", decl?: number): HousesEx<36>;
	export function houses_armc_ex2(armc: number, geolat: number, eps: number, hsys: HouseSystems, decl?: number): HousesEx<12>;
	export function houses_armc_ex2(armc: number, geolat: number, eps: number, hsys: string, decl?: number): HousesEx<12> | HousesEx<36>;

	/**
	 * ### Description
	 * Calculate houses and other points from right ascension and obliquity  
	 * This function can be used to calculate houses without a date, such as composite houses
	 * ### Params
	 * ```
	 * • armc: number // Right ascension of the midheaven
	 * • geolat: number // Geographic latitude
	 * • eps: number // Obliquity of the ecliptic
	 * • hsys: string // House system ID
	 * • decl?: number // Declination of the Sun (sunshine/makransky houses only)
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   data: Object {
	 *     houses: Array<number> [
	 *       house_1: number, // Longitude of the first house
	 *       house_2: number, // Longitude of the second house
	 *       house_3: number, // Longitude of the third house
	 *       ... // 36 houses if gauquelin sectors, 12 houses otherwise
	 *     ],
	 *     points: Array<number> [
	 *       asc: number, // Ascendant
	 *       mc: number, // Midheaven
	 *       armc: number, // Right Ascension of the midheaven
	 *       vertex: number, // Vertex
	 *       equasc: number, // Equatorial Ascendant
	 *       coasc1: number, // Co-Ascendant (Walter Koch)
	 *       coasc2: number, // Co-Ascendant (Michael Munkasey)
	 *       polasc: number, // Polar Ascendant (Michael Munkasey)
	 *     ]
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = houses_armc(34, 10, 23, "P");
	 * if(result.flag !== constants.OK) { console.log("something went wrong, check output") }
	 * console.log(`Ascendant: ${result.data.points[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function houses_armc(armc: number, geolat: number, eps: number, hsys: "G", decl?: number): Houses<36>;
	export function houses_armc(armc: number, geolat: number, eps: number, hsys: HouseSystems, decl?: number): Houses<12>;
	export function houses_armc(armc: number, geolat: number, eps: number, hsys: string, decl?: number): Houses<12> | Houses<36>;

	/**
	 * ### Description
	 * Calculate houses and other points with support for calculation flags
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • iflag: number // Calculation flags
	 * • geolat: number // Geographic latitude
	 * • geolon: number // Geographic longitude
	 * • hsys: string // House system ID
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   data: Object {
	 *     houses: Array<number> [
	 *       house_1: number, // Longitude of the first house
	 *       house_2: number, // Longitude of the second house
	 *       house_3: number, // Longitude of the third house
	 *       ... // 36 houses if gauquelin sectors, 12 houses otherwise
	 *     ],
	 *     points: Array<number> [
	 *       asc: number, // Ascendant
	 *       mc: number, // Midheaven
	 *       armc: number, // Right Ascension of the midheaven
	 *       vertex: number, // Vertex
	 *       equasc: number, // Equatorial Ascendant
	 *       coasc1: number, // Co-Ascendant (Walter Koch)
	 *       coasc2: number, // Co-Ascendant (Michael Munkasey)
	 *       polasc: number, // Polar Ascendant (Michael Munkasey)
	 *     ]
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = houses_ex(2413654, 0, 35.234, 45.324, "P");
	 * if(result.flag !== constants.OK) { console.log("something went wrong, check output") }
	 * console.log(`Ascendant: ${result.data.points[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function houses_ex(tjd_ut: number, iflag: number, geolat: number, geolon: number, hsys: "G"): Houses<36>;
	export function houses_ex(tjd_ut: number, iflag: number, geolat: number, geolon: number, hsys: HouseSystems): Houses<12>;
	export function houses_ex(tjd_ut: number, iflag: number, geolat: number, geolon: number, hsys: string): Houses<12> | Houses<36>;

	/**
	 * ### Description
	 * Calculate the houses and other points with support for calculation flags and including momentary motion speeds  
	 * This function also outputs an error message in case something goes wrong
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • iflag: number // Calculation flags
	 * • geolat: number // Geographic latitude
	 * • geolon: number // Geographic longitude
	 * • hsys: string // House system ID
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of ERR
	 *   data: Object {
	 *     houses: Array<number> [
	 *       house_1: number, // Longitude of the first house
	 *       house_2: number, // Longitude of the second house
	 *       house_3: number, // Longitude of the third house
	 *       ... // 36 houses if gauquelin sectors, 12 houses otherwise
	 *     ],
	 *     points: Array<number> [
	 *       asc: number, // Ascendant
	 *       mc: number, // Midheaven
	 *       armc: number, // Right Ascension of the midheaven
	 *       vertex: number, // Vertex
	 *       equasc: number, // Equatorial Ascendant
	 *       coasc1: number, // Co-Ascendant (Walter Koch)
	 *       coasc2: number, // Co-Ascendant (Michael Munkasey)
	 *       polasc: number, // Polar Ascendant (Michael Munkasey)
	 *     ],
	 *     housesSpeed: Array<number> [
	 *       ... // Longitude speeds for the houses
	 *     ],
	 *     pointsSpeed: Array<number> [
	 *       ... // Longitude speeds for the points
	 *     ]
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = houses_ex2(2413654, 0, 35.234, 45.324, "P");
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(`Ascendant: ${result.data.points[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function houses_ex2(tjd_ut: number, iflag: number, geolat: number, geolon: number, hsys: "G"): HousesEx<36>;
	export function houses_ex2(tjd_ut: number, iflag: number, geolat: number, geolon: number, hsys: HouseSystems): HousesEx<12>;
	export function houses_ex2(tjd_ut: number, iflag: number, geolat: number, geolon: number, hsys: string): HousesEx<12> | HousesEx<36>;

	/**
	 * ### Description
	 * Calculate houses and other points
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • geolat: number // Geographic latitude
	 * • geolon: number // Geographic longitude
	 * • hsys: string // House system ID
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   data: Object {
	 *     houses: Array<number> [
	 *       house_1: number, // Longitude of the first house
	 *       house_2: number, // Longitude of the second house
	 *       house_3: number, // Longitude of the third house
	 *       ... // 36 houses if gauquelin sectors, 12 houses otherwise
	 *     ],
	 *     points: Array<number> [
	 *       asc: number, // Ascendant
	 *       mc: number, // Midheaven
	 *       armc: number, // Right Ascension of the midheaven
	 *       vertex: number, // Vertex
	 *       equasc: number, // Equatorial Ascendant
	 *       coasc1: number, // Co-Ascendant (Walter Koch)
	 *       coasc2: number, // Co-Ascendant (Michael Munkasey)
	 *       polasc: number, // Polar Ascendant (Michael Munkasey)
	 *     ]
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = houses(2413654, 35.234, 45.324, "P");
	 * if(result.flag !== constants.OK) { console.log("something went wrong, check output") }
	 * console.log(`Ascendant: ${result.data.points[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function houses(tjd_ut: number, geolat: number, geolon: number, hsys: "G"): Houses<36>;
	export function houses(tjd_ut: number, geolat: number, geolon: number, hsys: HouseSystems): Houses<12>;
	export function houses(tjd_ut: number, geolat: number, geolon: number, hsys: string): Houses<12> | Houses<36>;

	/**
	 * ### Description
	 * Convert julian day in ephemeris/terrestrial time to calendar date
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • gregflag: number // Calendar system, SE_GREG_CAL for gregorian calendar, SE_JUL_CAL for julian calendar
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   year: number; // Full year
	 *   month: number; // Month (1-12)
	 *   day: number; // Day (1-31)
	 *   hour: number; // Hour (0-23)
	 *   minute: number; // Minute (0-59)
	 *   second: number; // Second including fraction (0-59.99999)
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const date = jdet_to_utc(2415423, constants.GREG_CAL);
	 * console.log(date);
	 * ```
	 * &nbsp;
	 */
	export function jdet_to_utc(tjd_et: number, gregflag: number): DateObject2;

	/**
	 * ### Description
	 * Convert julian day in universal time to calendar date
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • gregflag: number // Calendar system, SE_GREG_CAL for gregorian calendar, SE_JUL_CAL for julian calendar
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   year: number; // Full year
	 *   month: number; // Month (1-12)
	 *   day: number; // Day (1-31)
	 *   hour: number; // Hour (0-23)
	 *   minute: number; // Minute (0-59)
	 *   second: number; // Second including fraction (0-59.99999)
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const date = jdut1_to_utc(2415423, constants.GREG_CAL);
	 * console.log(date);
	 * ```
	 * &nbsp;
	 */
	export function jdut1_to_utc(tjd_ut: number, gregflag: number): DateObject2;

	/**
	 * ### Description
	 * Convert a calendar date to julian day in universal time
	 * ### Params
	 * ```
	 * • year: number // Full year
	 * • month: number // Month (1-12)
	 * • day: number // Day (1-31)
	 * • hour: number // Hour with fraction (0-23.99999)
	 * • gregflag: number // Calendar system, SE_GREG_CAL for gregorian calendar, SE_JUL_CAL for julian calendar
	 * ```
	 * ### Returns
	 * ```
	 * number // Julian day value in universal time
	 * ```
	 * ### Example
	 * ```
	 * const jd = julday(2010, 5, 25, 14.5, constants.SE_GREG_CAL); // 2455342.1041666665
	 * ```
	 * &nbsp;
	 */
	export function julday(year: number, month: number, day: number, hour: number, gregflag: number): number

	/**
	 * ### Description
	 * Transform local apparent time to local mean time
	 * ### Params
	 * ```
	 * • tjd_lat: number // Local apparent time in julian day in universal time
	 * • geolon: number // Geographic longitude
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of error
	 *   data: number // Local mean time in julian day in universal time
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lat_to_lmt(2416547, -115.156);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(`LMT: ${result.data}`)
	 * ```
	 * &nbsp;
	 */
	export function lat_to_lmt(tjd_lat: number, geolon: number): LocalMeanTime;

	/**
	 * ### Description
	 * Transform local mean time to local apparent time
	 * ### Params
	 * ```
	 * • tjd_lmt: number // Local mean time in julian day in universal time
	 * • geolon: number // Geographic longitude
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message in case of error
	 *   data: number // Local apparent time in julian day in universal time
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lmt_to_lat(2416547, -115.156);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(`LMT: ${result.data}`)
	 * ```
	 * &nbsp;
	 */
	export function lmt_to_lat(tjd_lmt: number, geolon: number): LocalApparentTime;

	/**
	 * ### Description
	 * Get lunar eclipse data for a given date
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ifl: number // Ephemeris flag
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type (SE_ECL_TOTAL, SE_ECL_PENUMBRAL, SE_ECL_PARTIAL) or 0 if no eclipse
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     umbral_mag, // Umbral magnitude at jd
	 *     penumbral_mag, // Penumbral magnitude
	 *     -, // Unused
	 *     -, // Unused
	 *     azimuth, // Azimuth of the moon at jd
	 *     true_altitude, // True altitude of the moon above horizon at jd
	 *     apparent_altitude, // Apparent altitude of the moon above horizon at jd
	 *     distance, // Distance of the moon from opposition in degrees
	 *     eclipse_mag, // Eclipse magnitude (same as umbral magnitude)
	 *     saros_number, // Saros series number (if available, otherwise -99999999)
	 *     saros_member // Saros series member number (if available, otherwise -99999999)
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lun_eclipse_how(2416547, constants.SEFLG_SWIEPH, [10,45,500]);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   magnitude: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function lun_eclipse_how(tjd_ut: number, ifl: number, geopos: [longitude: number, latitude: number, elevation: number]): LunEclipseHow;

	/**
	 * ### Description
	 * Search for lunar eclipses at a given location
	 * ### Params
	 * ```
	 * • tjd_start: number // Julian day in universal time to start searching from
	 * • ifl: number // Ephemeris flag
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • backwards: boolean // Search backwards in time instead
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type (SE_ECL_TOTAL, SE_ECL_PENUMBRAL, SE_ECL_PARTIAL) or 0 if no eclipse found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     eclipse_max, // Time of maximum eclipse in jd
	 *     -, // Unused
	 *     partial_start, // Time of partial phase start
	 *     partial_end, // Time of partial phase end
	 *     total_start, // Time of totality start
	 *     total_end, // Time of totality end
	 *     penumbral_start, // Time of penumbral phase start
	 *     penumbral_end, // Time of penumbral phase end
	 *     rise, // Time of moonrise, if it occurs during the eclipse
	 *     set, // Time of moonset, if it occurs during the eclipse
	 *   ],
	 *   attributes: Array<number> [
	 *     umbral_mag, // Umbral magnitude at jd
	 *     penumbral_mag, // Penumbral magnitude
	 *     -, // Unused
	 *     -, // Unused
	 *     azimuth, // Azimuth of the moon at jd
	 *     true_altitude, // True altitude of the moon above horizon at jd
	 *     apparent_altitude, // Apparent altitude of the moon above horizon at jd
	 *     distance, // Distance of the moon from opposition in degrees
	 *     eclipse_mag, // Eclipse magnitude (same as umbral magnitude)
	 *     saros_number, // Saros series number (if available, otherwise -99999999)
	 *     saros_member // Saros series member number (if available, otherwise -99999999)
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lun_eclipse_when_loc(2416547, constants.SEFLG_SWIEPH, [10,45,500], false);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   eclipse_max: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function lun_eclipse_when_loc(tjd_start: number, ifl: number, geopos: [longitude: number, latitude: number, elevation: number], backwards: boolean): LunEclipseWhenLoc;

	/**
	 * ### Description
	 * Search for lunar eclipses
	 * ### Params
	 * ```
	 * • tjd_start: number // Julian day in universal time to start searching from
	 * • ifl: number // Ephemeris flag
	 * • ifltype: number // Eclipse type (SE_ECL_TOTAL, SE_ECL_PENUMBRAL, SE_ECL_PARTIAL or 0 for any)
	 * • backwards: boolean // Search backwards in time instead
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type (SE_ECL_TOTAL, SE_ECL_PENUMBRAL, SE_ECL_PARTIAL) or 0 if no eclipse found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     eclipse_max, // Time of maximum eclipse in jd
	 *     -, // Unused
	 *     partial_start, // Time of partial phase start
	 *     partial_end, // Time of partial phase end
	 *     total_start, // Time of totality start
	 *     total_end, // Time of totality end
	 *     penumbral_start, // Time of penumbral phase start
	 *     penumbral_end, // Time of penumbral phase end
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lun_eclipse_when(2416547, constants.SEFLG_SWIEPH, 0, false);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   eclipse_max: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function lun_eclipse_when(tjd_start: number, ifl: number, ifltype: number, backwards: boolean): LunEclipseWhen;

	/**
	 * ### Description
	 * Search for lunar eclipses globally
	 * ### Params
	 * ```
	 * • tjd_start: number // Julian day in universal time to start searching from
	 * • ipl: number // Object ID
	 * • starname: string | null // Star name if star, otherwise set to null
	 * • ifl: number // Ephemeris flag
	 * • ifltype: number // Eclipse type (SE_ECL_TOTAL, SE_ECL_ANNULAR, SE_ECL_PARTIAL, SE_ECL_ANNULAR_TOTAL, SE_ECL_CENTRAL, SE_ECL_NONCENTRAL or 0 for any)
	 * • backwards: boolean // Search backwards in time instead
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type (SE_ECL_TOTAL, SE_ECL_ANNULAR, SE_ECL_PARTIAL, SE_ECL_ANNULAR_TOTAL, SE_ECL_CENTRAL, SE_ECL_NONCENTRAL) or 0 if no eclipse found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     eclipse_max, // Time of maximum eclipse in jd
	 *     local_noon, // Time when eclipse takes place at local apparent noon
	 *     eclipse_start, // Time of eclipse start
	 *     eclipse_end, // Time of eclipse end
	 *     total_start, // Time of totality start
	 *     total_end, // Time of totality end
	 *     center_start, // Time of center line start
	 *     center_end, // Time of center line end
	 *     annular_total, // Time when annular-total eclipse becomes total
	 *     total_annular // Time when annular-total eclipse becomes annular again
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lun_occult_when_glob(2416547, constants.SE_MARS, null, constants.SEFLG_SWIEPH, 0, false);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   eclipse_max: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function lun_occult_when_glob(tjd_start: number, ipl: number, starname: string | null, ifl: number, ifltype: number, backwards: boolean): EclipseWhenGlob;

	/**
	 * ### Description
	 * Search for lunar eclipses locally
	 * ### Params
	 * ```
	 * • tjd_start: number // Julian day in universal time to start searching from
	 * • ipl: number // Object ID
	 * • starname: string | null // Star name if star, otherwise set to null
	 * • ifl: number // Ephemeris flag
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • backwards: boolean // Search backwards in time instead
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse/occulation type or 0 if none found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     max_eclipse: number, // Time of maximum eclipse
	 *     first_contact: number, // Time of first contact
	 *     second_contact: number, // Time of second contact
	 *     third_contact: number, // Time of third contact
	 *     fourth_contact: number, // Time of fourth contact
	 *     sunrise: number, // Time of sunrise between first and forth contact
	 *     sunset: number // Time of sunset between first and forth contact
	 *   ],
	 *   attributes: Array<number> [
	 *     solar_diameter: number, // Fraction of solar diameter covered by moon (magnitude)
	 *     lunar_diameter: number, // Ratio of lunar diameter to solar one
	 *     solar_disc: number, // Fraction of solar disc covered by moon (obscuration)
	 *     core_shadow: number, // Diameter of core shadow in km
	 *     sun_azimuth: number, // Azimuth of sun at tjd
	 *     true_altitude: number, // True altitude of sun above horizon at tjd
	 *     mean_altitude: number, // Apparent altitude of sun above horizon at tjd
	 *     elongation: number // Elongation of moon in degrees
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lun_occult_when_loc(2416547, constants.SE_MARS, null, constants.SEFLG_SWIEPH, [135, 45, 0], false);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   eclipse_max: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function lun_occult_when_loc(tjd_start: number, ipl: number, starname: string | null, ifl: number, geopos: [longitude: number, latitude: number, elevation: number], backwards: boolean): LunOccultWhenLoc;

	/**
	 * ### Description
	 * Get geographical coordinates for an eclipse
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ipl: number // Object ID
	 * • starname: string | null // Star name if star, otherwise set to null
	 * • ifl: number // Ephemeris flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse/occulation type or 0 if none found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     central_long: number, // Geographic longitude of central line
	 *     central_lat: number, // Geographic latitude of central line
	 *     north_umbra_long: number, // Geographic longitude of northern limit of umbra
	 *     north_umbra_lat: number, // Geographic latitude of northern limit of umbra
	 *     south_umbra_long: number, // Geographic longitude of southern limit of umbra
	 *     south_umbra_lat: number, // Geographic latitude of southern limit of umbra
	 *     north_penumbra_long: number, // Geographic longitude of northern limit of penumbra
	 *     north_penumbra_lat: number, // Geographic latitude of northern limit of penumbra
	 *     south_penumbra_long: number, // Geographic longitude of southern limit of penumbra
	 *     south_penumbra_lat: number // Geographic latitude of southern limit of penumbra
	 *   ],
	 *   attributes: Array<number> [
	 *     diameter_fraction: number, // Fraction of object's diameter covered by moon (magnitude)
	 *     diameter_ratio: number, // Ratio of lunar diameter to object's diameter
	 *     disc_fraction: number, // Fraction of object's disc covered by moon (obscuration)
	 *     core_shadow: number, // Diameter of core shadow in km
	 *     azimuth: number, // Azimuth of object at tjd
	 *     true_altitude: number, // True altitude of object above horizon at tjd
	 *     apparent_altitude: number, // Apparent altitude of object above horizon at tjd
	 *     angular_distance: number, // Angular distance of moon from object in degrees
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = lun_occult_where(2416547, constants.SE_MARS, null, constants.SEFLG_SWIEPH);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   longitude: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function lun_occult_where(tjd_ut: number, ipl: number, starname: string | null, ifl: number): LunOccultWhere;

	/**
	 * ### Description
	 * Compute the next Moon crossing over its node, by finding zero latitude crossing  
	 * ### Params
	 * ```
	 * • jd_ut: number // Start date in julian days in universal time
	 * • flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   date: number, // Date of the crossing in julian days in universal time
	 *   error: string, // Error message if resulting date is smaller than starting date
	 *   longitude: number, // Ecliptic longitude where the crossing happens
	 *   latitude: number // Ecliptic latitude precision margin for the crossing date
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const jd = 2415362;
	 * const result = mooncross_node_ut(jd, constants.SEFLG_SWIEPH);
	 * if(result.date < jd) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function mooncross_node_ut(jd_ut: number, flag: number): NodeCross;

	/**
	 * ### Description
	 * Compute the next Moon crossing over its node, by finding zero latitude crossing  
	 * ### Params
	 * ```
	 * • jd_et: number // Start date in julian days in ephemeris/terrestrial time
	 * • flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   date: number, // Date of the crossing in julian days in ephemeris/terrestrial time
	 *   error: string, // Error message if resulting date is smaller than starting date
	 *   longitude: number, // Ecliptic longitude where the crossing happens
	 *   latitude: number // Ecliptic latitude precision margin for the crossing date
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const jd = 2415362;
	 * const result = mooncross_node(jd, constants.SEFLG_SWIEPH);
	 * if(result.date < jd) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function mooncross_node(jd_et: number, flag: number): NodeCross;

	/**
	 * ### Description
	 * Compute Moon's crossing over some longitude
	 * ### Params
	 * ```
	 * • x2cross: number // Ecliptic latitude position to search for
	 * • jd_ut: number // Start date in julian days in universal time
	 * • flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   date: number, // Date of the crossing in julian days in universal time
	 *   error: string, // Error message if resulting date is smaller than starting date
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const jd = 2415362;
	 * const result = mooncross_ut(185.25 ,jd , constants.SEFLG_SWIEPH);
	 * if(result.date < jd) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function mooncross_ut(x2cross: number, jd_ut: number, flag: number): Cross;

	/**
	 * ### Description
	 * Compute Moon's crossing over some longitude
	 * ### Params
	 * ```
	 * • x2cross: number // Ecliptic latitude position to search for
	 * • jd_et: number // Start date in julian days in ephemeris/terrestrial time
	 * • flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   date: number, // Date of the crossing in julian days in ephemeris/terrestrial time
	 *   error: string, // Error message if resulting date is smaller than starting date
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const jd = 2415362;
	 * const result = mooncross(185.25 ,jd , constants.SEFLG_SWIEPH);
	 * if(result.date < jd) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function mooncross(x2cross: number, jd_et: number, flag: number): Cross;

	/**
	 * ### Description
	 * Calculate an object's nodes and apsides from universal time  
	 * If the calculation method includes `SE_NODBIT_FOPOINT`, the `aphelion` field contains the values for the object's "second focus" instead
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ipl: number // Object ID
	 * • iflag: number // Calculation flags
	 * • method: number // Calculation method flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // Computed flags or ERR
	 *   error: string, // Error message in case of error
	 *   data: Object {
	 *     ascending: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *     descending: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *     perihelion: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *     aphelion: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH;
	 * const result = nod_aps_ut(2416547, constants.SE_MARS, flags, 0);
	 * if(result.flag !== flags) { console.log(new Error(result.error)); }
	 * console.log(`Longitude of the Ascending node: ${result.data.ascending[0]}`)
	 * ```
	 * &nbsp;
	 */
	export function nod_aps_ut(tjd_ut: number, ipl: number, iflag: number, method: number): NodAps;

	/**
	 * ### Description
	 * Calculate an object's nodes and apsides from ephemeris/terrestrial time  
	 * If the calculation method includes `SE_NODBIT_FOPOINT`, the `aphelion` field contains the values for the object's "second focus" instead
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • ipl: number // Object ID
	 * • iflag: number // Calculation flags
	 * • method: number // Calculation method flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // Computed flags or ERR
	 *   error: string, // Error message in case of error
	 *   data: Object {
	 *     ascending: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *     descending: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *     perihelion: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *     aphelion: Array<number> [
	 *       lon, // Longitude, right ascension, or cartesian X
	 *       lat, // Latitude, declination or cartesian Y
	 *       dist, // Distance in AU or cartesian Z
	 *       lonSpd, // Daily speed for lon
	 *       latSpd, // Daily speed for lat
	 *       distSpd, // Daily speed for dist
	 *     ],
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const flags = constants.SEFLG_SWIEPH;
	 * const result = nod_aps(2416547, constants.SE_MARS, flags, 0);
	 * if(result.flag !== flags) { console.log(new Error(result.error)); }
	 * console.log(`Longitude of the Ascending node: ${result.data.ascending[0]}`)
	 * ```
	 * &nbsp;
	 */
	export function nod_aps(tjd_et: number, ipl: number, iflag: number, method: number): NodAps;

	/**
	 * ### Description
	 * Get orbital maximum and minimum possible distances
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • ipl: number // Object ID
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message or warning if any
	 *   data: Object {
	 *     max: number, // maximum possible distance
	 *     min: number, // minimum possible distance
	 *     true: number // current true distance
	 *   }
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = orbit_max_min_true_distance(2416547, constants.SE_MOON, constants.SEFLG_SWIEPH);
	 * if(result.error) { console.log(result.error); }
	 * console.log(`Max: ${result.data.max}`)
	 * ```
	 * &nbsp;
	 */
	export function orbit_max_min_true_distance(tjd_et: number, ipl: number, iflag: number): OrbitMaxMinTrueDistance;

	/**
	 * ### Description
	 * Compute phase, phase angle, elongation, apparent diameter, apparent magnitude for the Sun, the Moon, all planets and asteroids
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ipl: number // Object ID
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message or warning if any
	 *   data: Array<number> [
	 *     phase_angle: number, // Phase angle (Earth-planet-sun)
	 *     phase: number, // Phase (illumined fraction of disc)
	 *     elongation: number, // Elongation of planet
	 *     diameter: number, // Apparent diameter of disc
	 *     magnitude: number // Apparent magnitude
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = pheno_ut(2416547, constants.SE_MOON, constants.SEFLG_SWIEPH);
	 * if(result.error) { console.log(result.error); }
	 * console.log(`Phase Angle: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function pheno_ut(tjd_ut: number, ipl: number, iflag: number): Pheno;

	/**
	 * ### Description
	 * Compute phase, phase angle, elongation, apparent diameter, apparent magnitude for the Sun, the Moon, all planets and asteroids
	 * ### Params
	 * ```
	 * • tjd_et: number // Julian day in ephemeris/terrestrial time
	 * • ipl: number // Object ID
	 * • iflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message or warning if any
	 *   data: Array<number> [
	 *     phase_angle: number, // Phase angle (Earth-planet-sun)
	 *     phase: number, // Phase (illumined fraction of disc)
	 *     elongation: number, // Elongation of planet
	 *     diameter: number, // Apparent diameter of disc
	 *     magnitude: number // Apparent magnitude
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = pheno(2416547, constants.SE_MOON, constants.SEFLG_SWIEPH);
	 * if(result.error) { console.log(result.error); }
	 * console.log(`Phase Angle: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function pheno(tjd_et: number, ipl: number, iflag: number): Pheno;

	/**
	 * ### Description
	 * Normalize radians to 0π-2π range
	 * ### Params
	 * ```
	 * • drad: number // Degree value in radians
	 * ```
	 * ### Returns
	 * ```
	 * number // Normalized radian value
	 * ```
	 * ### Example
	 * ```
	 * const rad = radnorm(8.525) // 2.241814692820414
	 * ```
	 * &nbsp;
	 */
	export function radnorm(drad: number): number;

	/**
	 * ### Description
	 * Calculate true altitude from the apparent altitude or apparent altitude from true altitude  
	 * Extended function also supports negative heights and more
	 * ### Params
	 * ```
	 * • inalt: number // Input altitude in degrees above the horizon
	 * • geoalt: number // Altitude of the observer above sea level in meters
	 * • atpress: number // Atmospheric pressure in mbar/hpa
	 * • attemp: number // Atmospheric temperature in celsius
	 * • lapse_rate: number // (attemp/geoalt) = [°K/m]
	 * • calc_flag: number // Calculation flag (SE_TRUE_TO_APP or SE_APP_TO_TRUE)
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   data: number, // Converted altitude
	 *   extended: Array<number> [
	 *     true_altitude, // True altitude if possible, otherwise input value
	 *     apparent_altitude, // Apparent altitude if possible, otherwise input value
	 *     refraction, // Refraction value
	 *     dip // Dip of the horizon
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = refrac_extended(64.323, 500, 1000, 25, 0.0025, constants.SE_APP_TO_TRUE);
	 * console.log(result.data);
	 * ```
	 * &nbsp;
	 */
	export function refrac_extended(inalt: number, geoalt: number, atpress: number, attemp: number, lapse_rate: number, calc_flag: number): RefracExtended;

	/**
	 * ### Description
	 * Calculate true altitude from the apparent altitude or apparent altitude from true altitude
	 * ### Params
	 * ```
	 * • inalt: number // Input altitude in degrees above the horizon
	 * • atpress: number // Atmospheric pressure in mbar/hpa
	 * • attemp: number // Atmospheric temperature in celsius
	 * • calc_flag: number // Calculation flag (SE_TRUE_TO_APP or SE_APP_TO_TRUE)
	 * ```
	 * ### Returns
	 * ```
	 * number // Converted altitude
	 * ```
	 * ### Example
	 * ```
	 * const trueAltitude = refrac(64.323, 1000, 25, constants.SE_APP_TO_TRUE) // 64.3163724577654
	 * ```
	 * &nbsp;
	 */
	export function refrac(inalt: number, atpress: number, attemp: number, calc_flag: number): number;

	/**
	 * ### Description
	 * Compute year, month, day and hour from a julian day number
	 * ### Params
	 * ```
	 * • tjd: number // Julian day in universal time
	 * • gregflag: number // Calendar system, SE_GREG_CAL for gregorian calendar, SE_JUL_CAL for julian calendar
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   year: number, // year
	 *   month: number, // month (1-12)
	 *   day: number, // day (1-31)
	 *   hour: number // hour (0-23.999)
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const date = revjul(2555555, constants.SE_GREG_CAL);
	 * console.log(date);
	 * ```
	 * &nbsp;
	 */
	export function revjul(tjd: number, gregflag: number): DateObject;

	/**
	 * ### Description
	 * Compute the times of rising, setting and meridian transits for all planets, asteroids, the moon, and the fixed stars  
	 * This function also supports custom local horizon altitude
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ipl: number // Object ID
	 * • starname: string | null // Name of the star if a star is desired, null otherwise
	 * • epheflag: number // Ephemeris flag
	 * • rsmi: number // Transit type (SE_CALC_RISE, SE_CALC_SET, SE_CALC_MTRANSIT, SE_CALC_ITRANSIT) plus additional transit flags
	 * • geopos: Array<number> // Geographic coordinates of the observer [longitude, latitude, elevation]
	 * • atpress: number // Atmospheric pressure in mbar/hpa
	 * • attemp: number // Atmospheric temperature in celsius
	 * • horhgt: number // Height of local horizon in degrees at the point where the body rises or sets
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK, ERR or -2 if circumpolar object
	 *   error: string, // Error message if any
	 *   data: number // Transit time in julian days in universal time
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = rise_trans_true_hor(2555555, constants.SE_MOON, null, constants.SEFLG_SWIEPH, constants.SE_CALC_RISE, [95,40,200], 0, 0, 0);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(result.data);
	 * ```
	 * &nbsp;
	 */
	export function rise_trans_true_hor(tjd_ut: number, ipl: number, starname: string | null, epheflag: number, rsmi: number, geopos: [longitude: number, latitude: number, elevation: number], atpress: number, attemp: number, horhgt: number): RiseTrans;

	/**
	 * ### Description
	 * Compute the times of rising, setting and meridian transits for all planets, asteroids, the moon, and the fixed stars
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ipl: number // Object ID
	 * • starname: string | null // Name of the star if a star is desired, null otherwise
	 * • epheflag: number // Ephemeris flag
	 * • rsmi: number // Transit type (SE_CALC_RISE, SE_CALC_SET, SE_CALC_MTRANSIT, SE_CALC_ITRANSIT) plus additional transit flags
	 * • geopos: Array<number> // Geographic coordinates of the observer [longitude, latitude, elevation]
	 * • atpress: number // Atmospheric pressure in mbar/hpa
	 * • attemp: number // Atmospheric temperature in celsius
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK, ERR or -2 if circumpolar object
	 *   error: string, // Error message if any
	 *   data: number // Transit time in julian days in universal time
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = rise_trans_true_hor(2555555, constants.SE_MOON, null, constants.SEFLG_SWIEPH, constants.SE_CALC_RISE, [95,40,200], 0, 0);
	 * if(result.flag !== constants.OK) { console.log(result.error); }
	 * console.log(result.data);
	 * ```
	 * &nbsp;
	 */
	export function rise_trans(tjd_ut: number, ipl: number, starname: string | null, epheflag: number, rsmi: number, geopos: [longitude: number, latitude: number, elevation: number], atpress: number, attemp: number): RiseTrans;

	/**
	 * ### Description
	 * Set custom delta T
	 * ### Params
	 * ```
	 * • t_acc: number // Delta T value
	 * ```
	 * ### Example
	 * ```
	 * // custom delta T
	 * set_delta_t_userdef(66.5);
	 * // reset delta T back to auto
	 * set_delta_t_userdef(constants.SE_DELTAT_AUTOMATIC);
	 * ```
	 * &nbsp;
	 */
	export function set_delta_t_userdef(t_acc: number): void;

	/**
	 * ### Description
	 * Set ephemeris files location
	 * ### Params
	 * ```
	 * • path: string // Ephemeris path
	 * ```
	 * ### Example
	 * ```
	 * set_ephe_path("./ephemeris");
	 * ```
	 * &nbsp;
	 */
	export function set_ephe_path(path: string): void;

	/**
	 * ### Description
	 * Set JPL file  
	 * File must be placed in the ephemeris path
	 * ### Params
	 * ```
	 * • file: string // JPL file name
	 * ```
	 * ### Example
	 * ```
	 * // use custom name
	 * set_jpl_file("de405.eph");
	 * // use predefined name
	 * set_jpl_file(constants.SE_FNAME_DE405);
	 * ```
	 * &nbsp;
	 */
	export function set_jpl_file(file: string): void;

	/**
	 * ### Description
	 * Set ayanamsa for sidereal mode  
	 * For predefined ayanamsas, set second and third parameters to 0
	 * ### Params
	 * ```
	 * • sid_mode: number // Ayanamsa ID
	 * • t0: number // Reference date in jd_ut for custom ayanamsas
	 * • ayan_t0: number // Initial value in degrees for custom ayanamsas
	 * ```
	 * ### Example
	 * ```
	 * // set ayanamsa to Lahiri
	 * set_sid_mode(constants.SE_SIDM_LAHIRI, 0, 0)
	 * // define custom ayanamsa as 25 degrees at J2000
	 * set_sid_mode(constants.SE_SIDM_USER, 2451545, 25)
	 * ```
	 * &nbsp;
	 */
	export function set_sid_mode(sid_mode: number, t0: number, ayan_t0: number): void;

	/**
	 * ### Description
	 * Set custom tidal acceleration
	 * ### Params
	 * ```
	 * • t_acc: number // Tidal acceleration value
	 * ```
	 * ### Example
	 * ```
	 * // set custom value
	 * set_tid_acc(25.90);
	 * // set predefined value
	 * set_tid_acc(constants.SE_TIDAL_DE403);
	 * // reset to auto
	 * set_tid_acc(constants.SE_TIDAL_AUTOMATIC);
	 * ```
	 * &nbsp;
	 */
	export function set_tid_acc(t_acc: number): void;

	/**
	 * ### Description
	 * Set geographic coordinates for topocentric mode
	 * ### Params
	 * ```
	 * • geolon: number // Geographic longitude in degrees
	 * • geolat: number // Geographic latitude in degrees
	 * • elevation: number // Elevation in meters
	 * ```
	 * ### Example
	 * ```
	 * // set observer to 124'30E, 23'30N, 1250 meters above sea level;
	 * set_topo(124.5, 23.5, 1250);
	 * // call function with topocentric flag
	 * let result = calc(2342341, constants.SE_MOON, constants.SEFLG_SWIEPH | constants.SEFLG_TOPOCTR)
	 * ```
	 * &nbsp;
	 */
	export function set_topo(geolon: number, geolat: number, elevation: number): void;

	/**
	 * ### Description
	 * Calculate sidereal time at the greenwich meridian
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * ```
	 * ### Returns
	 * ```
	 * number // Sidereal time in hours (0-23.99999)
	 * ```
	 * ### Example
	 * ```
	 * const time = sidtime(2555555); // 13.176341501003689
	 * ```
	 * &nbsp;
	 */
	export function sidtime(tjd_ut: number): number;

	/**
	 * ### Description
	 * Calculate sidereal time at the greenwich meridian with custom obliquity and nutation
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • eps: number // Obliquity of the ecliptic
	 * • nut: number // Nutation
	 * ```
	 * ### Returns
	 * ```
	 * number // Sidereal time in hours (0-23.99999)
	 * ```
	 * ### Example
	 * ```
	 * const time = sidtime0(2555555, 23.555, 0.25); // 13.191718089387829
	 * ```
	 * &nbsp;
	 */
	export function sidtime0(tjd_ut: number, eps: number, nut: number): number;

	/**
	 * ### Description
	 * Get solar eclipse data for a given date
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ifl: number // Ephemeris flag
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type (SE_ECL_TOTAL, SE_ECL_ANNULAR, SE_ECL_PARTIAL) or 0 if no eclipse
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     solar_diameter, // Fraction of solar diameter covered by moon
	 *     lunar_diameter, // Ratio of lunar diameter to solar one
	 *     solar_disc, // Fraction of the solar disc covered by moon (obscuration)
	 *     core_shadow, // Diameter of core shadow in km
	 *     azimuth, // Azimuth of the sun at jd
	 *     true_altitude, // True altitude of the sun above horizon at jd
	 *     apparent_altitude, // Apparent altitude of the sun above horizon at jd
	 *     elongation, // Elongation of moon in degrees
	 *     mag, // Eclipse magnitude (same as solar_diameter if partial and lunar_diameter if annular or total)
	 *     saros_number, // Saros series number (if available, otherwise -99999999)
	 *     saros_member // Saros series member number (if available, otherwise -99999999)
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = sol_eclipse_how(2416547, constants.SEFLG_SWIEPH, [10,45,500]);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   magnitude: ${result.data[8]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function sol_eclipse_how(tjd_ut: number, ifl: number, geopos: [longitude: number, latitude: number, elevation: number]): SolEclipseHow;

	/**
	 * ### Description
	 * Search for solar eclipses globally
	 * ### Params
	 * ```
	 * • tjd_start: number // Julian day in universal time to start searching from
	 * • ifl: number // Ephemeris flag
	 * • ifltype: number // Eclipse type (SE_ECL_TOTAL, SE_ECL_ANNULAR, SE_ECL_PARTIAL, SE_ECL_ANNULAR_TOTAL, SE_ECL_CENTRAL, SE_ECL_NONCENTRAL or 0 for any)
	 * • backwards: boolean // Search backwards in time instead
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type (SE_ECL_TOTAL, SE_ECL_ANNULAR, SE_ECL_PARTIAL, SE_ECL_ANNULAR_TOTAL, SE_ECL_CENTRAL, SE_ECL_NONCENTRAL) or 0 if no eclipse found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     eclipse_max, // Time of maximum eclipse in jd
	 *     local_noon, // Time when eclipse takes place at local apparent noon
	 *     eclipse_start, // Time of eclipse start
	 *     eclipse_end, // Time of eclipse end
	 *     total_start, // Time of totality start
	 *     total_end, // Time of totality end
	 *     center_start, // Time of center line start
	 *     center_end, // Time of center line end
	 *     annular_total, // Time when annular-total eclipse becomes total
	 *     total_annular // Time when annular-total eclipse becomes annular again
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = sol_eclipse_when_glob(2416547, constants.SEFLG_SWIEPH, 0, false);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   eclipse_max: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function sol_eclipse_when_glob(tjd_start: number, ifl: number, iftype: number, backwards: number): EclipseWhenGlob;

	/**
	 * ### Description
	 * Search for solar eclipses locally
	 * ### Params
	 * ```
	 * • tjd_start: number // Julian day in universal time to start searching from
	 * • ifl: number // Ephemeris flag
	 * • geopos: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • backwards: boolean // Search backwards in time instead
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type or 0 if none found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     max_eclipse: number, // Time of maximum eclipse
	 *     first_contact: number, // Time of first contact
	 *     second_contact: number, // Time of second contact
	 *     third_contact: number, // Time of third contact
	 *     fourth_contact: number, // Time of fourth contact
	 *     sunrise: number, // Time of sunrise between first and forth contact
	 *     sunset: number // Time of sunset between first and forth contact
	 *   ],
	 *   attributes: Array<number> [
	 *     solar_diameter: number, // Fraction of solar diameter covered by moon (magnitude)
	 *     lunar_diameter: number, // Ratio of lunar diameter to solar one
	 *     solar_disc: number, // Fraction of solar disc covered by moon (obscuration)
	 *     core_shadow: number, // Diameter of core shadow in km
	 *     sun_azimuth: number, // Azimuth of sun at tjd
	 *     true_altitude: number, // True altitude of sun above horizon at tjd
	 *     mean_altitude: number, // Apparent altitude of sun above horizon at tjd
	 *     elongation: number // Elongation of moon in degrees
	 *     mag, // Magnitude according to NASA (same as solar_diameter if partial and lunar_diameter if annular or total)
	 *     saros_number, // Saros series number (if available, otherwise -99999999)
	 *     saros_member // Saros series member number (if available, otherwise -99999999)
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = sol_eclipse_when_loc(2416547, constants.SEFLG_SWIEPH, [135, 45, 0], false);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   eclipse_max: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function sol_eclipse_when_loc(tjd_start: number, ifl: number, geopos: [longitude: number, latitude: number, elevation: number], backwards: boolean): SolEclipseWhenLoc;

	/**
	 * ### Description
	 * Get geographical coordinates for an eclipse
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • ifl: number // Ephemeris flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // ERR, eclipse type or 0 if none found
	 *   error: string, // Error message in case of error
	 *   data: Array<number> [
	 *     central_long: number, // Geographic longitude of central line
	 *     central_lat: number, // Geographic latitude of central line
	 *     north_umbra_long: number, // Geographic longitude of northern limit of umbra
	 *     north_umbra_lat: number, // Geographic latitude of northern limit of umbra
	 *     south_umbra_long: number, // Geographic longitude of southern limit of umbra
	 *     south_umbra_lat: number, // Geographic latitude of southern limit of umbra
	 *     north_penumbra_long: number, // Geographic longitude of northern limit of penumbra
	 *     north_penumbra_lat: number, // Geographic latitude of northern limit of penumbra
	 *     south_penumbra_long: number, // Geographic longitude of southern limit of penumbra
	 *     south_penumbra_lat: number // Geographic latitude of southern limit of penumbra
	 *   ],
	 *   attributes: Array<number> [
	 *     diameter_fraction: number, // Fraction of solar diameter covered by moon (magnitude)
	 *     diameter_ratio: number, // Ratio of lunar diameter to solar diameter
	 *     disc_fraction: number, // Fraction of solar disc covered by moon (obscuration)
	 *     core_shadow: number, // Diameter of core shadow in km
	 *     azimuth: number, // Azimuth of the sun at tjd
	 *     true_altitude: number, // True altitude of the sun above horizon at tjd
	 *     apparent_altitude: number, // Apparent altitude of the sun above horizon at tjd
	 *     angular_distance: number, // Angular distance of the moon from the sun in degrees
	 *     mag, // Eclipse magnitude (same as solar_diameteror lunar_diameter depending on the eclipse type)
	 *     saros_number, // Saros series number (if available, otherwise -99999999)
	 *     saros_member // Saros series member number (if available, otherwise -99999999)
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = sol_eclipse_where(2416547, constants.SEFLG_SWIEPH);
	 * if(result.flag === constants.ERR) { throw new Error(result.error); }
	 * console.log(`
	 *   type: ${result.flag}
	 *   longitude: ${result.data[0]}
	 * `)
	 * ```
	 * &nbsp;
	 */
	export function sol_eclipse_where(tjd_ut: number, ifl: number): SolEclipseWhere;

	/**
	 * ### Description
	 * Compute Sun's crossing over some longitude
	 * ### Params
	 * ```
	 * • x2cross: number // Ecliptic latitude position to search for
	 * • jd_ut: number // Start date in julian days in universal time
	 * • flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   date: number, // Date of the crossing in julian days in universal time
	 *   error: string, // Error message if resulting date is smaller than starting date
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const jd = 2415362;
	 * const result = solcross_ut(185.25 ,jd , constants.SEFLG_SWIEPH);
	 * if(result.date < jd) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function solcross_ut(x2cross: number, jd_ut: number, flag: number): Cross;

	/**
	 * ### Description
	 * Compute Sun's crossing over some longitude
	 * ### Params
	 * ```
	 * • x2cross: number // Ecliptic latitude position to search for
	 * • jd_et: number // Start date in julian days in ephemeris/terrestrial time
	 * • flag: number // Calculation flag
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   date: number, // Date of the crossing in julian days in ephemeris/terrestrial time
	 *   error: string, // Error message if resulting date is smaller than starting date
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const jd = 2415362;
	 * const result = solcross(185.25 ,jd , constants.SEFLG_SWIEPH);
	 * if(result.date < jd) { throw new Error(result.error); }
	 * console.log(`Date: ${result.date}`);
	 * ```
	 * &nbsp;
	 */
	export function solcross(x2cross: number, jd_et: number, flag: number): Cross;

	/**
	 * ### Description
	 * Convert decimal degrees value to degree, minute, second, sign and/or nakshatras
	 * ### Params
	 * ```
	 * • ddeg: number // Input degrees value
	 * • roundflag: number // Split and rounding methods
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   degree: number, // degrees value
	 *   minute: number, // minutes value
	 *   second: number, // seconds value
	 *   fraction: number, // fraction of a second
	 *   sign: number // sign or nakshatra number
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = split_deg(130.234, constants.SE_SPLIT_DEG_ZODIACAL);
	 * console.log(result.degree); // 10
	 * console.log(result.sign); // 4
	 * ```
	 * &nbsp;
	 */
	export function split_deg(ddeg: number, roundflag: number): SplitDeg;

	/**
	 * ### Description
	 * Calculate the equation of time (difference between LMT and LAT)
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message if any
	 *   data: number // Value of the equation of time
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = time_equ(2555555);
	 * if(result.error) { console.log(result.error); }
	 * console.log(result.data);
	 * ```
	 * &nbsp;
	 */
	export function time_equ(tjd_ut: number): TimeEqu;

	/**
	 * ### Description
	 * Convert between local time and UTC using a timezone offset.  
	 * For time zones east of Greenwich, d_timezone should be positive.  
	 * For time zones west of Greenwich, d_timezone should be negative.  
	 * To convert from UTC back to local time, invert d_timezone's sign.
	 * ### Params
	 * ```
	 * • iyear: number // Full year
	 * • imonth: number // Month (1-12)
	 * • iday: number // Day (1-31)
	 * • ihour: number // Hour (0-23)
	 * • imin: number // Minute (0-59)
	 * • dsec: number // Seconds including fraction (0-59.99999)
	 * • d_timezone: number // Timezone offset in decimal hours (0-23.99999), positive or negative 
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   year: number; // Full year
	 *   month: number; // Month (1-12)
	 *   day: number; // Day (1-31)
	 *   hour: number; // Hour (0-23)
	 *   minute: number; // Minute (0-59)
	 *   second: number; // Second including fraction (0-59.99999)
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = utc_time_zone(2010, 5, 23, 15, 30, 0, 5.5);
	 * console.log(result.hour); // 10;
	 * ```
	 * &nbsp;
	 */
	export function utc_time_zone(iyear: number, imonth: number, iday: number, ihour: number, imin: number, dsec: number, d_timezone: number): DateObject2;

	/**
	 * ### Description
	 * Convert UTC date and time to julian day in ephemeris time and julian day in universal time
	 * ### Params
	 * ```
	 * • iyear: number // Full year
	 * • imonth: number // Month (1-12)
	 * • iday: number // Day (1-31)
	 * • ihour: number // Hour (0-23)
	 * • imin: number // Minute (0-59)
	 * • dsec: number // Seconds including fraction (0-59.99999)
	 * • gregflag: number // Calendar system, SE_GREG_CAL for gregorian calendar, SE_JUL_CAL for julian calendar
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK or ERR
	 *   error: string, // Error message if ERR
	 *   data: Array<number> [
	 *     et: number, // Julian day in ephemeris/terrestrial time
	 *     ut: number // Julian day in universal time
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = utc_to_jd(2010, 5, 23, 15, 30, 0, constants.SE_GREG_CAL);
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * console.log(`JD_ET: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function utc_to_jd(iyear: number, imonth: number, iday: number, ihour: number, imin: number, dsec: number, gregflag: number): UtcToJd;


	/**
	 * ### Description
	 * Get current swisseph version
	 * ### Returns
	 * ```
	 * string // Swisseph version
	 * ```
	 * ### Example
	 * ```
	 * const version = version(); // "2.10"
	 * ```
	 * &nbsp;
	 */
	export function version(): string;

	/**
	 * ### Description
	 * Determine an object's visibility
	 * ### Params
	 * ```
	 * • tjd_ut: number // Julian day in universal time
	 * • dgeo: Array<number> // Geographic coordinates [longitude, latitude, elevation]
	 * • datm: Array<number> // Atmospheric conditions [pressure, temperature, humidity, meteorological_range]
	 * • dobs: Array<number> // Observer description [age, sellen ratio, optical type, optical magnification, optical aperture, optical transmission]
	 * • objectname: string // Name of fixed star or planet
	 * • helflag: number // Calculation flags
	 * ```
	 * ### Returns
	 * ```
	 * Object {
	 *   flag: number, // OK, ERR, -2 if object is below horizon, 1 if scotopic vision or 2 if near limit photopic/scotopic vision
	 *   error: string, // Error message if ERR
	 *   data: Array<number> [
	 *     visual_mag: number, // Limiting visual magnitude (object is visible if this value is bigger than the object's magnitude value)
	 *     obj_altitude: number, // Altitude of the object
	 *     obj_azimuth: number, // Azimuth of the object
	 *     sun_altitude: number, // Altitude of the sun
	 *     sun_azimuth: number, // Azimuth of the sun
	 *     moon_altitude: number, // Altitude of the moon
	 *     moon_azimuth: number, // Azimuth of the moon
	 *     magnitude: number // The object's magnitude
	 *   ]
	 * }
	 * ```
	 * ### Example
	 * ```
	 * const result = vis_limit_mag(2555555, [65,47,900], [1000,10,50,-0.15], [21,0,0,0,0,0], "venus", 0);
	 * if(result.flag !== constants.OK) { throw new Error(result.error); }
	 * console.log(`JD_ET: ${result.data[0]}`);
	 * ```
	 * &nbsp;
	 */
	export function vis_limit_mag(tjd_ut: number, dgeo: [longitude: number, latitude: number, elevation: number], datm: [pressure: number, temperature: number, humidity: number, meteorological_range: number], dobs: [age: number, sellen_ratio: number, optical_type: number, optical_magnification: number, optical_aperture: number, optical_transmission: number], objectname: string, helflag: number): VisLimitMag;

	/*
	┌──────────────────────────────────────────────────┬───────────┬──────────────────────────────────────────────────┐
	│┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│ Constants │┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼┼│
	└──────────────────────────────────────────────────┴───────────┴──────────────────────────────────────────────────┘
	*/

	/**
	 * ### Description
	 * Swisseph Constants  
	 * Contains aliases and predefined constant values used in the swiss ephemeris
	 */
	export const constants: {
		OK: 0,
		ERR: -1,
		SE_AUNIT_TO_KM: 149597870.7,
		SE_AUNIT_TO_LIGHTYEAR: 0.000015812507409819728,
		SE_AUNIT_TO_PARSEC: 0.000004848136811095274,
		SE_JUL_CAL: 0,
		SE_GREG_CAL: 1,
		SE_ECL_NUT: -1,
		SE_SUN: 0,
		SE_MOON: 1,
		SE_MERCURY: 2,
		SE_VENUS: 3,
		SE_MARS: 4,
		SE_JUPITER: 5,
		SE_SATURN: 6,
		SE_URANUS: 7,
		SE_NEPTUNE: 8,
		SE_PLUTO: 9,
		SE_MEAN_NODE: 10,
		SE_TRUE_NODE: 11,
		SE_MEAN_APOG: 12,
		SE_OSCU_APOG: 13,
		SE_EARTH: 14,
		SE_CHIRON: 15,
		SE_PHOLUS: 16,
		SE_CERES: 17,
		SE_PALLAS: 18,
		SE_JUNO: 19,
		SE_VESTA: 20,
		SE_INTP_APOG: 21,
		SE_INTP_PERG: 22,
		SE_NPLANETS: 23,
		SE_PLMOON_OFFSET: 9000,
		SE_AST_OFFSET: 10000,
		SE_VARUNA: 30000,
		SE_FICT_OFFSET: 40,
		SE_FICT_OFFSET_1: 39,
		SE_FICT_MAX: 999,
		SE_NFICT_ELEM: 15,
		SE_COMET_OFFSET: 1000,
		SE_NALL_NAT_POINTS: 38,
		SE_CUPIDO: 40,
		SE_HADES: 41,
		SE_ZEUS: 42,
		SE_KRONOS: 43,
		SE_APOLLON: 44,
		SE_ADMETOS: 45,
		SE_VULKANUS: 46,
		SE_POSEIDON: 47,
		SE_ISIS: 48,
		SE_NIBIRU: 49,
		SE_HARRINGTON: 50,
		SE_NEPTUNE_LEVERRIER: 51,
		SE_NEPTUNE_ADAMS: 52,
		SE_PLUTO_LOWELL: 53,
		SE_PLUTO_PICKERING: 54,
		SE_VULCAN: 55,
		SE_WHITE_MOON: 56,
		SE_PROSERPINA: 57,
		SE_WALDEMATH: 58,
		SE_FIXSTAR: -10,
		SE_ASC: 0,
		SE_MC: 1,
		SE_ARMC: 2,
		SE_VERTEX: 3,
		SE_EQUASC: 4,
		SE_COASC1: 5,
		SE_COASC2: 6,
		SE_POLASC: 7,
		SE_NASCMC: 8,
		SEFLG_JPLEPH: 1,
		SEFLG_SWIEPH: 2,
		SEFLG_MOSEPH: 4,
		SEFLG_HELCTR: 8,
		SEFLG_TRUEPOS: 16,
		SEFLG_J2000: 32,
		SEFLG_NONUT: 64,
		SEFLG_SPEED3: 128,
		SEFLG_SPEED: 256,
		SEFLG_NOGDEFL: 512,
		SEFLG_NOABERR: 1024,
		SEFLG_ASTROMETRIC: 1536,
		SEFLG_EQUATORIAL: 2048,
		SEFLG_XYZ: 4096,
		SEFLG_RADIANS: 8192,
		SEFLG_BARYCTR: 16384,
		SEFLG_TOPOCTR: 32768,
		SEFLG_ORBEL_AA: 32768,
		SEFLG_TROPICAL: 0,
		SEFLG_SIDEREAL: 65536,
		SEFLG_ICRS: 131072,
		SEFLG_DPSIDEPS_1980: 262144,
		SEFLG_JPLHOR: 262144,
		SEFLG_JPLHOR_APPROX: 524288,
		SEFLG_CENTER_BODY: 1048576,
		SEFLG_TEST_PLMOON: 2228280,
		SE_SIDBITS: 256,
		SE_SIDBIT_ECL_T0: 256,
		SE_SIDBIT_SSY_PLANE: 512,
		SE_SIDBIT_USER_UT: 1024,
		SE_SIDBIT_ECL_DATE: 2048,
		SE_SIDBIT_NO_PREC_OFFSET: 4096,
		SE_SIDBIT_PREC_ORIG: 8192,
		SE_SIDM_FAGAN_BRADLEY: 0,
		SE_SIDM_LAHIRI: 1,
		SE_SIDM_DELUCE: 2,
		SE_SIDM_RAMAN: 3,
		SE_SIDM_USHASHASHI: 4,
		SE_SIDM_KRISHNAMURTI: 5,
		SE_SIDM_DJWHAL_KHUL: 6,
		SE_SIDM_YUKTESHWAR: 7,
		SE_SIDM_JN_BHASIN: 8,
		SE_SIDM_BABYL_KUGLER1: 9,
		SE_SIDM_BABYL_KUGLER2: 10,
		SE_SIDM_BABYL_KUGLER3: 11,
		SE_SIDM_BABYL_HUBER: 12,
		SE_SIDM_BABYL_ETPSC: 13,
		SE_SIDM_ALDEBARAN_15TAU: 14,
		SE_SIDM_HIPPARCHOS: 15,
		SE_SIDM_SASSANIAN: 16,
		SE_SIDM_GALCENT_0SAG: 17,
		SE_SIDM_J2000: 18,
		SE_SIDM_J1900: 19,
		SE_SIDM_B1950: 20,
		SE_SIDM_SURYASIDDHANTA: 21,
		SE_SIDM_SURYASIDDHANTA_MSUN: 22,
		SE_SIDM_ARYABHATA: 23,
		SE_SIDM_ARYABHATA_MSUN: 24,
		SE_SIDM_SS_REVATI: 25,
		SE_SIDM_SS_CITRA: 26,
		SE_SIDM_TRUE_CITRA: 27,
		SE_SIDM_TRUE_REVATI: 28,
		SE_SIDM_TRUE_PUSHYA: 29,
		SE_SIDM_GALCENT_RGILBRAND: 30,
		SE_SIDM_GALEQU_IAU1958: 31,
		SE_SIDM_GALEQU_TRUE: 32,
		SE_SIDM_GALEQU_MULA: 33,
		SE_SIDM_GALALIGN_MARDYKS: 34,
		SE_SIDM_TRUE_MULA: 35,
		SE_SIDM_GALCENT_MULA_WILHELM: 36,
		SE_SIDM_ARYABHATA_522: 37,
		SE_SIDM_BABYL_BRITTON: 38,
		SE_SIDM_TRUE_SHEORAN: 39,
		SE_SIDM_GALCENT_COCHRANE: 40,
		SE_SIDM_GALEQU_FIORENZA: 41,
		SE_SIDM_VALENS_MOON: 42,
		SE_SIDM_LAHIRI_1940: 43,
		SE_SIDM_LAHIRI_VP285: 44,
		SE_SIDM_KRISHNAMURTI_VP291: 45,
		SE_SIDM_LAHIRI_ICRC: 46,
		SE_SIDM_USER: 255,
		SE_NSIDM_PREDEF: 47,
		SE_NODBIT_MEAN: 1,
		SE_NODBIT_OSCU: 2,
		SE_NODBIT_OSCU_BAR: 4,
		SE_NODBIT_FOPOINT: 256,
		SEFLG_DEFAULTEPH: 2,
		SE_MAX_STNAME: 256,
		SE_ECL_CENTRAL: 1,
		SE_ECL_NONCENTRAL: 2,
		SE_ECL_TOTAL: 4,
		SE_ECL_ANNULAR: 8,
		SE_ECL_PARTIAL: 16,
		SE_ECL_ANNULAR_TOTAL: 32,
		SE_ECL_HYBRID: 32,
		SE_ECL_PENUMBRAL: 64,
		SE_ECL_ALLTYPES_SOLAR: 63,
		SE_ECL_ALLTYPES_LUNAR: 84,
		SE_ECL_VISIBLE: 128,
		SE_ECL_MAX_VISIBLE: 256,
		SE_ECL_1ST_VISIBLE: 512,
		SE_ECL_PARTBEG_VISIBLE: 512,
		SE_ECL_2ND_VISIBLE: 1024,
		SE_ECL_TOTBEG_VISIBLE: 1024,
		SE_ECL_3RD_VISIBLE: 2048,
		SE_ECL_TOTEND_VISIBLE: 2048,
		SE_ECL_4TH_VISIBLE: 4096,
		SE_ECL_PARTEND_VISIBLE: 4096,
		SE_ECL_PENUMBBEG_VISIBLE: 8192,
		SE_ECL_PENUMBEND_VISIBLE: 16384,
		SE_ECL_OCC_BEG_DAYLIGHT: 8192,
		SE_ECL_OCC_END_DAYLIGHT: 16384,
		SE_ECL_ONE_TRY: 32768,
		SE_CALC_RISE: 1,
		SE_CALC_SET: 2,
		SE_CALC_MTRANSIT: 4,
		SE_CALC_ITRANSIT: 8,
		SE_BIT_DISC_CENTER: 256,
		SE_BIT_DISC_BOTTOM: 8192,
		SE_BIT_GEOCTR_NO_ECL_LAT: 128,
		SE_BIT_NO_REFRACTION: 512,
		SE_BIT_CIVIL_TWILIGHT: 1024,
		SE_BIT_NAUTIC_TWILIGHT: 2048,
		SE_BIT_ASTRO_TWILIGHT: 4096,
		SE_BIT_FIXED_DISC_SIZE: 16384,
		SE_BIT_FORCE_SLOW_METHOD: 32768,
		SE_BIT_HINDU_RISING: 896,
		SE_ECL2HOR: 0,
		SE_EQU2HOR: 1,
		SE_HOR2ECL: 0,
		SE_HOR2EQU: 1,
		SE_TRUE_TO_APP: 0,
		SE_APP_TO_TRUE: 1,
		SE_DE_NUMBER: 431,
		SE_FNAME_DE200: "de200.eph",
		SE_FNAME_DE403: "de403.eph",
		SE_FNAME_DE404: "de404.eph",
		SE_FNAME_DE405: "de405.eph",
		SE_FNAME_DE406: "de406.eph",
		SE_FNAME_DE431: "de431.eph",
		SE_FNAME_DFT: "de431.eph",
		SE_FNAME_DFT2: "de406.eph",
		SE_STARFILE_OLD: "fixstars.cat",
		SE_STARFILE: "sefstars.txt",
		SE_ASTNAMFILE: "seasnam.txt",
		SE_FICTFILE: "seorbel.txt",
		SE_SPLIT_DEG_ROUND_SEC: 1,
		SE_SPLIT_DEG_ROUND_MIN: 2,
		SE_SPLIT_DEG_ROUND_DEG: 4,
		SE_SPLIT_DEG_ZODIACAL: 8,
		SE_SPLIT_DEG_NAKSHATRA: 1024,
		SE_SPLIT_DEG_KEEP_SIGN: 16,
		SE_SPLIT_DEG_KEEP_DEG: 32,
		SE_HELIACAL_RISING: 1,
		SE_HELIACAL_SETTING: 2,
		SE_MORNING_FIRST: 1,
		SE_EVENING_LAST: 2,
		SE_EVENING_FIRST: 3,
		SE_MORNING_LAST: 4,
		SE_ACRONYCHAL_RISING: 5,
		SE_ACRONYCHAL_SETTING: 6,
		SE_COSMICAL_SETTING: 6,
		SE_HELFLAG_LONG_SEARCH: 128,
		SE_HELFLAG_HIGH_PRECISION: 256,
		SE_HELFLAG_OPTICAL_PARAMS: 512,
		SE_HELFLAG_NO_DETAILS: 1024,
		SE_HELFLAG_SEARCH_1_PERIOD: 2048,
		SE_HELFLAG_VISLIM_DARK: 4096,
		SE_HELFLAG_VISLIM_NOMOON: 8192,
		SE_HELFLAG_VISLIM_PHOTOPIC: 16384,
		SE_HELFLAG_VISLIM_SCOTOPIC: 32768,
		SE_HELFLAG_AV: 65536,
		SE_HELFLAG_AVKIND_VR: 65536,
		SE_HELFLAG_AVKIND_PTO: 131072,
		SE_HELFLAG_AVKIND_MIN7: 262144,
		SE_HELFLAG_AVKIND_MIN9: 524288,
		SE_HELFLAG_AVKIND: 983040,
		TJD_INVALID: 99999999,
		SIMULATE_VICTORVB: 1,
		SE_PHOTOPIC_FLAG: 0,
		SE_SCOTOPIC_FLAG: 1,
		SE_MIXEDOPIC_FLAG: 2,
		SE_TIDAL_DE200: -23.8946,
		SE_TIDAL_DE403: -25.58,
		SE_TIDAL_DE404: -25.58,
		SE_TIDAL_DE405: -25.826,
		SE_TIDAL_DE406: -25.826,
		SE_TIDAL_DE421: -25.85,
		SE_TIDAL_DE422: -25.85,
		SE_TIDAL_DE430: -25.82,
		SE_TIDAL_DE431: -25.8,
		SE_TIDAL_26: -26,
		SE_TIDAL_STEPHENSON_2016: -25.85,
		SE_TIDAL_DEFAULT: -25.8,
		SE_TIDAL_AUTOMATIC: 999999,
		SE_TIDAL_MOSEPH: -25.58,
		SE_TIDAL_SWIEPH: -25.8,
		SE_TIDAL_JPLEPH: -25.8,
		SE_DELTAT_AUTOMATIC: 0.0000000001,
		SE_MODEL_DELTAT: 0,
		SE_MODEL_PREC_LONGTERM: 1,
		SE_MODEL_PREC_SHORTTERM: 2,
		SE_MODEL_NUT: 3,
		SE_MODEL_BIAS: 4,
		SE_MODEL_JPLHOR_MODE: 5,
		SE_MODEL_JPLHORA_MODE: 6,
		SE_MODEL_SIDT: 7,
		NSE_MODELS: 8,
		SEMOD_NPREC: 11,
		SEMOD_PREC_IAU_1976: 1,
		SEMOD_PREC_LASKAR_1986: 2,
		SEMOD_PREC_WILL_EPS_LASK: 3,
		SEMOD_PREC_WILLIAMS_1994: 4,
		SEMOD_PREC_SIMON_1994: 5,
		SEMOD_PREC_IAU_2000: 6,
		SEMOD_PREC_BRETAGNON_2003: 7,
		SEMOD_PREC_IAU_2006: 8,
		SEMOD_PREC_VONDRAK_2011: 9,
		SEMOD_PREC_OWEN_1990: 10,
		SEMOD_PREC_NEWCOMB: 11,
		SEMOD_PREC_DEFAULT: 9,
		SEMOD_PREC_DEFAULT_SHORT: 9,
		SEMOD_NNUT: 5,
		SEMOD_NUT_IAU_1980: 1,
		SEMOD_NUT_IAU_CORR_1987: 2,
		SEMOD_NUT_IAU_2000A: 3,
		SEMOD_NUT_IAU_2000B: 4,
		SEMOD_NUT_WOOLARD: 5,
		SEMOD_NUT_DEFAULT: 4,
		SEMOD_NSIDT: 4,
		SEMOD_SIDT_IAU_1976: 1,
		SEMOD_SIDT_IAU_2006: 2,
		SEMOD_SIDT_IERS_CONV_2010: 3,
		SEMOD_SIDT_LONGTERM: 4,
		SEMOD_SIDT_DEFAULT: 4,
		SEMOD_NBIAS: 3,
		SEMOD_BIAS_NONE: 1,
		SEMOD_BIAS_IAU2000: 2,
		SEMOD_BIAS_IAU2006: 3,
		SEMOD_BIAS_DEFAULT: 3,
		SEMOD_NJPLHOR: 2,
		SEMOD_JPLHOR_LONG_AGREEMENT: 1,
		SEMOD_JPLHOR_DEFAULT: 1,
		SEMOD_NJPLHORA: 3,
		SEMOD_JPLHORA_1: 1,
		SEMOD_JPLHORA_2: 2,
		SEMOD_JPLHORA_3: 3,
		SEMOD_JPLHORA_DEFAULT: 3,
		SEMOD_NDELTAT: 5,
		SEMOD_DELTAT_STEPHENSON_MORRISON_1984: 1,
		SEMOD_DELTAT_STEPHENSON_1997: 2,
		SEMOD_DELTAT_STEPHENSON_MORRISON_2004: 3,
		SEMOD_DELTAT_ESPENAK_MEEUS_2006: 4,
		SEMOD_DELTAT_STEPHENSON_ETC_2016: 5,
		SEMOD_DELTAT_DEFAULT: 5
	}
}