libnova: headers diff between 0.12.2 and 0.12.3 versions

	aberration.h	aberration.h

	skipping to change at line 40	skipping to change at line 40
	* Aberration: need a description.	* Aberration: need a description.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn void ln_get_equ_aber (struct ln_equ_posn mean_position, double JD , struct ln_equ_posn * position);	/! \fn void ln_get_equ_aber (struct ln_equ_posn mean_position, double JD , struct ln_equ_posn * position);
	* \brief Calculate equatorial coordinates with the effects of aberration.	* \brief Calculate equatorial coordinates with the effects of aberration.
	* \ingroup aberration	* \ingroup aberration
	*/	*/
	/* Equ 22.1, 22.3, 22.4 and Ron-Vondrak expression */	/* Equ 22.1, 22.3, 22.4 and Ron-Vondrak expression */

	void ln_get_equ_aber (struct ln_equ_posn * mean_position, double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_equ_aber (struct ln_equ_posn * mean_position, do uble JD, struct ln_equ_posn * position);

	/! \fn void ln_get_ecl_aber (struct ln_lnlat_posn mean_position, double JD, struct ln_lnlat_posn * position);	/! \fn void ln_get_ecl_aber (struct ln_lnlat_posn mean_position, double JD, struct ln_lnlat_posn * position);
	* \brief Calculate ecliptical coordinates with the effects of aberration.	* \brief Calculate ecliptical coordinates with the effects of aberration.
	* \ingroup aberration	* \ingroup aberration
	*/	*/
	/* Equ 22.1, 22.2 pg 139 */	/* Equ 22.1, 22.2 pg 139 */

	void ln_get_ecl_aber (struct ln_lnlat_posn * mean_position, double JD, stru ct ln_lnlat_posn * position);	void LIBNOVA_EXPORT ln_get_ecl_aber (struct ln_lnlat_posn * mean_position, double JD, struct ln_lnlat_posn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 2 change blocks.
	2 lines changed or deleted	2 lines changed or added

	airmass.h	airmass.h

	skipping to change at line 22	skipping to change at line 22
	* You should have received a copy of the GNU General Public License	* You should have received a copy of the GNU General Public License
	* along with this program; if not, write to the Free Software	* along with this program; if not, write to the Free Software
	* Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, U SA.	* Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, U SA.
	*	*
	* Copyright (C) 2000 - 2005 Petr Kubanek	* Copyright (C) 2000 - 2005 Petr Kubanek
	*/	*/

	#ifndef _LN_AIRMASS_H	#ifndef _LN_AIRMASS_H
	#define _LN_AIRMASS_H	#define _LN_AIRMASS_H


		#include <libnova/ln_types.h>

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif

	/*! \fn double ln_get_airmass (double alt, double airmass_scale);	/*! \fn double ln_get_airmass (double alt, double airmass_scale);
	* \brief Calculate airmass in given altitude.	* \brief Calculate airmass in given altitude.
	* \ingroup airmass	* \ingroup airmass
	*/	*/

	double ln_get_airmass (double alt, double airmass_scale);	double LIBNOVA_EXPORT ln_get_airmass (double alt, double airmass_scale);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 2 change blocks.
	1 lines changed or deleted	3 lines changed or added

	angular_separation.h	angular_separation.h

	skipping to change at line 40	skipping to change at line 40
	* Functions relating to an the angular separation and position	* Functions relating to an the angular separation and position
	* angle between 2 bodies.	* angle between 2 bodies.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn double ln_get_angular_separation (struct ln_equ_posn posn1, struct ln_equ_posn* posn2);	/! \fn double ln_get_angular_separation (struct ln_equ_posn posn1, struct ln_equ_posn* posn2);
	* \brief Calculate the angular separation between 2 bodies	* \brief Calculate the angular separation between 2 bodies
	* \ingroup angular	* \ingroup angular
	*/	*/

	double ln_get_angular_separation (struct ln_equ_posn* posn1, struct ln_equ_ posn* posn2);	double LIBNOVA_EXPORT ln_get_angular_separation (struct ln_equ_posn* posn1, struct ln_equ_posn* posn2);

	/! \fn double ln_get_rel_posn_angle (struct ln_equ_posn posn1, struct ln_ equ_posn* posn2);	/! \fn double ln_get_rel_posn_angle (struct ln_equ_posn posn1, struct ln_ equ_posn* posn2);
	* \brief Calculate the position angle between 2 bodies	* \brief Calculate the position angle between 2 bodies
	* \ingroup angular	* \ingroup angular
	*/	*/

	double ln_get_rel_posn_angle (struct ln_equ_posn* posn1, struct ln_equ_posn * posn2);	double LIBNOVA_EXPORT ln_get_rel_posn_angle (struct ln_equ_posn* posn1, str uct ln_equ_posn* posn2);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 2 change blocks.
	2 lines changed or deleted	2 lines changed or added

	apparent_position.h	apparent_position.h

	skipping to change at line 40	skipping to change at line 40
	* The apparent position of a star is it's position as seen from	* The apparent position of a star is it's position as seen from
	* the centre of the Earth.	* the centre of the Earth.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn void ln_get_apparent_posn (struct ln_equ_posn mean_position, stru ct ln_equ_posn * proper_motion, double JD, struct ln_equ_posn * position);	/! \fn void ln_get_apparent_posn (struct ln_equ_posn mean_position, stru ct ln_equ_posn * proper_motion, double JD, struct ln_equ_posn * position);
	* \brief Calculate the apparent position of a star.	* \brief Calculate the apparent position of a star.
	* \ingroup apparent	* \ingroup apparent
	*/	*/

	void ln_get_apparent_posn (struct ln_equ_posn * mean_position, struct ln_eq u_posn * proper_motion, double JD,struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_apparent_posn (struct ln_equ_posn * mean_positio n, struct ln_equ_posn * proper_motion, double JD,struct ln_equ_posn * posit ion);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

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	asteroid.h	asteroid.h

	skipping to change at line 39	skipping to change at line 39
	*	*
	* Functions relating to Asteroids.	* Functions relating to Asteroids.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*!	/*!
	* \fn double ln_get_asteroid_mag (double JD, struct ln_ell_orbit * orbit, d ouble H, double G)	* \fn double ln_get_asteroid_mag (double JD, struct ln_ell_orbit * orbit, d ouble H, double G)
	* \brief Calculate the visual magnitude of an asteroid.	* \brief Calculate the visual magnitude of an asteroid.
	*/	*/

	double ln_get_asteroid_mag (double JD, struct ln_ell_orbit * orbit, double H, double G);	double LIBNOVA_EXPORT ln_get_asteroid_mag (double JD, struct ln_ell_orbit * orbit, double H, double G);

	/*! \fn double ln_get_asteroid_sdiam_km (double H, double A)	/*! \fn double ln_get_asteroid_sdiam_km (double H, double A)

	* \brief Calcaluate the semidiameter of an asteroid in km.	* \brief Calculate the semidiameter of an asteroid in km.
	*/	*/

	double ln_get_asteroid_sdiam_km (double H, double A);	double LIBNOVA_EXPORT ln_get_asteroid_sdiam_km (double H, double A);

	/! \fn double ln_get_asteroid_sdiam_arc (double JD, struct ln_ell_orbit orbit, double H, double A)	/! \fn double ln_get_asteroid_sdiam_arc (double JD, struct ln_ell_orbit orbit, double H, double A)

	* \brief Calcaluate the semidiameter of an asteroid in arc seconds.	* \brief Calculate the semidiameter of an asteroid in arc seconds.
	*/	*/

	double ln_get_asteroid_sdiam_arc (double JD, struct ln_ell_orbit * orbit, d ouble H, double A);	double LIBNOVA_EXPORT ln_get_asteroid_sdiam_arc (double JD, struct ln_ell_o rbit * orbit, double H, double A);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

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	5 lines changed or deleted	5 lines changed or added

	comet.h	comet.h

	skipping to change at line 40	skipping to change at line 40
	* Functions relating to Comets.	* Functions relating to Comets.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*!	/*!
	* \fn double ln_get_ell_comet_mag (double JD, struct ln_ell_orbit * orbit, double g, double k)	* \fn double ln_get_ell_comet_mag (double JD, struct ln_ell_orbit * orbit, double g, double k)
	* \ingroup comet	* \ingroup comet
	* \brief Calculate the visual magnitude of a comet in an elliptic orbit.	* \brief Calculate the visual magnitude of a comet in an elliptic orbit.
	*/	*/

	double ln_get_ell_comet_mag (double JD, struct ln_ell_orbit * orbit, double g, double k);	double LIBNOVA_EXPORT ln_get_ell_comet_mag (double JD, struct ln_ell_orbit * orbit, double g, double k);

	/*!	/*!
	* \fn double ln_get_par_comet_mag (double JD, struct ln_par_orbit * orbit, double g, double k)	* \fn double ln_get_par_comet_mag (double JD, struct ln_par_orbit * orbit, double g, double k)
	* \ingroup comet	* \ingroup comet
	* \brief Calculate the visual magnitude of a comet in a parabolic orbit.	* \brief Calculate the visual magnitude of a comet in a parabolic orbit.
	*/	*/

	double ln_get_par_comet_mag (double JD, struct ln_par_orbit * orbit, double g, double k);	double LIBNOVA_EXPORT ln_get_par_comet_mag (double JD, struct ln_par_orbit * orbit, double g, double k);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

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	2 lines changed or deleted	2 lines changed or added

	dynamical_time.h	dynamical_time.h

	skipping to change at line 38	skipping to change at line 38
	/*!	/*!
	* \defgroup dynamical Dynamical Time	* \defgroup dynamical Dynamical Time
	*	*
	* TODO	* TODO
	*/	*/

	/*! \fn double ln_get_dynamical_time_diff (double JD)	/*! \fn double ln_get_dynamical_time_diff (double JD)
	* \ingroup dynamical	* \ingroup dynamical
	* \brief Calculate approximate dynamical time difference from julian day in seconds	* \brief Calculate approximate dynamical time difference from julian day in seconds
	*/	*/

	double ln_get_dynamical_time_diff (double JD);	double LIBNOVA_EXPORT ln_get_dynamical_time_diff (double JD);

	/*! \fn double ln_get_jde (double JD)	/*! \fn double ln_get_jde (double JD)
	* \brief Calculate julian ephemeris day (JDE)	* \brief Calculate julian ephemeris day (JDE)
	* \ingroup dynamical	* \ingroup dynamical
	*/	*/

	double ln_get_jde (double JD);	double LIBNOVA_EXPORT ln_get_jde (double JD);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 2 change blocks.
	2 lines changed or deleted	2 lines changed or added

	earth.h	earth.h

	skipping to change at line 44	skipping to change at line 44

	/*	/*
	** Earth	** Earth
	*/	*/

	/! \fn void ln_get_earth_helio_coords (double JD, struct ln_helio_posn p osition);	/! \fn void ln_get_earth_helio_coords (double JD, struct ln_helio_posn p osition);
	* \brief Calculate Earth's heliocentric coordinates	* \brief Calculate Earth's heliocentric coordinates
	* \ingroup earth	* \ingroup earth
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_earth_helio_coords (double JD, struct ln_helio_posn * position) ;	void LIBNOVA_EXPORT ln_get_earth_helio_coords (double JD, struct ln_helio_p osn * position);

	/*! \fn void ln_get_earth_solar_dist (double JD);	/*! \fn void ln_get_earth_solar_dist (double JD);
	* \brief Calculate the distance between Earth and the Sun.	* \brief Calculate the distance between Earth and the Sun.
	* \ingroup earth	* \ingroup earth
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_earth_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_earth_solar_dist (double JD);

	/! \fn void ln_get_earth_rect_helio (double JD, struct ln_rect_posn posi tion)	/! \fn void ln_get_earth_rect_helio (double JD, struct ln_rect_posn posi tion)
	* \ingroup earth	* \ingroup earth
	* \brief Calculate the Earths rectangular heliocentric coordinates.	* \brief Calculate the Earths rectangular heliocentric coordinates.
	*/	*/

	void ln_get_earth_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_earth_rect_helio (double JD, struct ln_rect_posn * position);

	/! \fn void ln_get_earth_centre_dist (float height, double latitude, doubl e p_sin_o, double * p_cos_o);	/! \fn void ln_get_earth_centre_dist (float height, double latitude, doubl e p_sin_o, double * p_cos_o);
	* \ingroup earth	* \ingroup earth
	* \brief Calculate Earth globe centre distance.	* \brief Calculate Earth globe centre distance.
	*/	*/

	void ln_get_earth_centre_dist (float height, double latitude, double * p_si n_o, double * p_cos_o);	void LIBNOVA_EXPORT ln_get_earth_centre_dist (float height, double latitude , double * p_sin_o, double * p_cos_o);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

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	4 lines changed or deleted	4 lines changed or added

	julian_day.h	julian_day.h

	skipping to change at line 26	skipping to change at line 26
	* Copyright (C) 2000 - 2005 Liam Girdwood	* Copyright (C) 2000 - 2005 Liam Girdwood
	*/	*/

	#ifndef _LN_JULIAN_DAY_H	#ifndef _LN_JULIAN_DAY_H
	#define _LN_JULIAN_DAY_H	#define _LN_JULIAN_DAY_H

	#ifdef __WIN32	#ifdef __WIN32
	#define __WIN32__	#define __WIN32__
	#endif	#endif


	#ifndef __WIN32__
	#include <time.h>	#include <time.h>

	#endif
	#include <libnova/ln_types.h>	#include <libnova/ln_types.h>

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif

	/*! \defgroup calendar General Calendar Functions	/*! \defgroup calendar General Calendar Functions
	*/	*/

	/! \fn double ln_get_julian_day (struct ln_date date)	/! \fn double ln_get_julian_day (struct ln_date date)
	* \ingroup calendar	* \ingroup calendar
	* \brief Calculate the julian day from date.	* \brief Calculate the julian day from date.
	*/	*/

	double ln_get_julian_day (struct ln_date * date);	double LIBNOVA_EXPORT ln_get_julian_day (struct ln_date * date);

	/! \fn void ln_get_date (double JD, struct ln_date date)	/! \fn void ln_get_date (double JD, struct ln_date date)
	* \ingroup calendar	* \ingroup calendar
	* \brief Calculate the date from the julian day.	* \brief Calculate the date from the julian day.
	*/	*/

	void ln_get_date (double JD, struct ln_date * date);	void LIBNOVA_EXPORT ln_get_date (double JD, struct ln_date * date);

	/! \fn void ln_get_date_from_timet (time_t t, struct ln_date * date)	/! \fn void ln_get_date_from_timet (time_t t, struct ln_date * date)
	* \\ingroup calendar	* \\ingroup calendar
	* \brief Set date from system time	* \brief Set date from system time
	*/	*/
	#ifndef __WIN32__	#ifndef __WIN32__

	void ln_get_date_from_timet (time_t * t, struct ln_date * date);	void LIBNOVA_EXPORT ln_get_date_from_timet (time_t * t, struct ln_date * da te);
	#endif	#endif

	/! \fn void ln_get_date_from_tm (struct tm t, struct ln_date * date)	/! \fn void ln_get_date_from_tm (struct tm t, struct ln_date * date)
	* \\ingroup calendar	* \\ingroup calendar
	* \brief Set date from system tm structure	* \brief Set date from system tm structure
	*/	*/

	void ln_get_date_from_tm (struct tm * t, struct ln_date * date);	void LIBNOVA_EXPORT ln_get_date_from_tm (struct tm * t, struct ln_date * da te);

	/! \fn void ln_get_local_date (double JD, struct ln_zonedate zonedate)	/! \fn void ln_get_local_date (double JD, struct ln_zonedate zonedate)
	* \ingroup calender	* \ingroup calender
	* \brief Calculate the zone date from the Julian day	* \brief Calculate the zone date from the Julian day
	*/	*/

	void ln_get_local_date (double JD, struct ln_zonedate * zonedate);	void LIBNOVA_EXPORT ln_get_local_date (double JD, struct ln_zonedate * zone date);

	/! \fn unsigned int ln_get_day_of_week (struct ln_date date)	/! \fn unsigned int ln_get_day_of_week (struct ln_date date)
	* \ingroup calendar	* \ingroup calendar
	* \brief Calculate day of the week.	* \brief Calculate day of the week.
	*/	*/

	unsigned int ln_get_day_of_week (struct ln_date *date);	unsigned int LIBNOVA_EXPORT ln_get_day_of_week (struct ln_date *date);

	/*! \fn double ln_get_julian_from_sys ()	/*! \fn double ln_get_julian_from_sys ()
	* \brief Calculate julian day from system time.	* \brief Calculate julian day from system time.
	* \ingroup calendar	* \ingroup calendar
	*/	*/

	double ln_get_julian_from_sys ();	double LIBNOVA_EXPORT ln_get_julian_from_sys ();

	/! \fn void ln_get_date_from_sys (struct ln_date date)	/! \fn void ln_get_date_from_sys (struct ln_date date)
	* \brief Calculate date from system date	* \brief Calculate date from system date
	* \ingroup calendar	* \ingroup calendar
	*/	*/

	void ln_get_date_from_sys (struct ln_date * date);	void LIBNOVA_EXPORT ln_get_date_from_sys (struct ln_date * date);

	/! \fn double ln_get_julian_from_timet (time_t time)	/! \fn double ln_get_julian_from_timet (time_t time)
	* \brief Calculate julian day from time_t	* \brief Calculate julian day from time_t
	* \ingroup calendar	* \ingroup calendar
	*/	*/

	#ifndef __WIN32__	double LIBNOVA_EXPORT ln_get_julian_from_timet (time_t * in_time);
	double ln_get_julian_from_timet (time_t * in_time);
	#endif

	/! \fn void ln_get_timet_from_julian (double JD, time_t in_time)	/! \fn void ln_get_timet_from_julian (double JD, time_t in_time)
	* \brief Calculate time_t from julian day	* \brief Calculate time_t from julian day
	* \ingroup calendar	* \ingroup calendar
	*/	*/

	#ifndef __WIN32__	void LIBNOVA_EXPORT ln_get_timet_from_julian (double JD, time_t * in_time);
	void ln_get_timet_from_julian (double JD, time_t * in_time);
	#endif

	/! \fn double ln_get_julian_local_date(struct ln_zonedate zonedate)	/! \fn double ln_get_julian_local_date(struct ln_zonedate zonedate)
	* \brief Calculate Julian day from local date	* \brief Calculate Julian day from local date
	* \ingroup calendar	* \ingroup calendar
	*/	*/

	double ln_get_julian_local_date(struct ln_zonedate* zonedate);	double LIBNOVA_EXPORT ln_get_julian_local_date(struct ln_zonedate* zonedate );

	/! \fn int ln_get_date_from_mpc (struct ln_date date, char* mpc_date)	/! \fn int ln_get_date_from_mpc (struct ln_date date, char* mpc_date)
	* \brief Calculate the local date from the a MPC packed date.	* \brief Calculate the local date from the a MPC packed date.
	* \ingroup calendar	* \ingroup calendar
	*/	*/

	int ln_get_date_from_mpc (struct ln_date* date, char* mpc_date);	int LIBNOVA_EXPORT ln_get_date_from_mpc (struct ln_date* date, char* mpc_da te);

	/! \fn double ln_get_julian_from_mpc (char mpc_date)	/! \fn double ln_get_julian_from_mpc (char mpc_date)
	* \brief Calculate the julian day from the a MPC packed date.	* \brief Calculate the julian day from the a MPC packed date.
	* \ingroup calendar	* \ingroup calendar
	*/	*/

	double ln_get_julian_from_mpc (char* mpc_date);	double LIBNOVA_EXPORT ln_get_julian_from_mpc (char* mpc_date);

	/! \fn void ln_date_to_zonedate (struct ln_date date, struct ln_zonedate * zonedate, long gmtoff)	/! \fn void ln_date_to_zonedate (struct ln_date date, struct ln_zonedate * zonedate, long gmtoff)
	* \brief convert ln_date to ln_zonedate, zero zone info	* \brief convert ln_date to ln_zonedate, zero zone info
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_date_to_zonedate (struct ln_date * date, struct ln_zonedate * zoned ate, long gmtoff);	void LIBNOVA_EXPORT ln_date_to_zonedate (struct ln_date * date, struct ln_z onedate * zonedate, long gmtoff);

	/! \fn void ln_zonedate_to_date (struct ln_zonedate zonedate, struct ln_ date * date)	/! \fn void ln_zonedate_to_date (struct ln_zonedate zonedate, struct ln_ date * date)
	* \brief convert ln_zonedate to ln_date	* \brief convert ln_zonedate to ln_date
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_zonedate_to_date (struct ln_zonedate * zonedate, struct ln_date * d ate);	void LIBNOVA_EXPORT ln_zonedate_to_date (struct ln_zonedate * zonedate, str uct ln_date * date);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

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	21 lines changed or deleted	15 lines changed or added

	jupiter.h	jupiter.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup jupiter Jupiter	/*! \defgroup jupiter Jupiter
	*	*
	* Functions relating to the planet Jupiter.	* Functions relating to the planet Jupiter.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_jupiter_equ_sdiam (double JD)	/*! \fn double ln_get_jupiter_equ_sdiam (double JD)

	* \brief Calcaluate the eqatorial semidiameter of Jupiter in arc seconds.	* \brief Calculate the equatorial semidiameter of Jupiter in arc seconds.
	* \ingroup jupiter	* \ingroup jupiter
	*/	*/

	double ln_get_jupiter_equ_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_jupiter_equ_sdiam (double JD);

	/*! \fn double ln_get_jupiter_pol_sdiam (double JD)	/*! \fn double ln_get_jupiter_pol_sdiam (double JD)

	* \brief Calcaluate the polar semidiameter of Jupiter in arc seconds.	* \brief Calculate the polar semidiameter of Jupiter in arc seconds.
	* \ingroup jupiter	* \ingroup jupiter
	*/	*/

	double ln_get_jupiter_pol_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_jupiter_pol_sdiam (double JD);

	/! \fn double ln_get_jupiter_rst (double JD, struct ln_lnlat_posn observ er, struct ln_rst_time * rst);	/! \fn double ln_get_jupiter_rst (double JD, struct ln_lnlat_posn observ er, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Jupiter.	* \brief Calculate the time of rise, set and transit for Jupiter.
	* \ingroup jupiter	* \ingroup jupiter
	*/	*/

	int ln_get_jupiter_rst (double JD, struct ln_lnlat_posn * observer, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_jupiter_rst (double JD, struct ln_lnlat_posn * ob server, struct ln_rst_time * rst);

	/! \fn void ln_get_jupiter_helio_coords (double JD, struct ln_helio_posn position);	/! \fn void ln_get_jupiter_helio_coords (double JD, struct ln_helio_posn position);
	* \brief Calculate Jupiter's heliocentric coordinates	* \brief Calculate Jupiter's heliocentric coordinates
	* \ingroup jupiter	* \ingroup jupiter
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_jupiter_helio_coords (double JD, struct ln_helio_posn * positio n);	void LIBNOVA_EXPORT ln_get_jupiter_helio_coords (double JD, struct ln_helio _posn * position);

	/! \fn void ln_get_jupiter_equ_coords (double JD, struct ln_equ_posn pos ition);	/! \fn void ln_get_jupiter_equ_coords (double JD, struct ln_equ_posn pos ition);
	* \brief Calculate Jupiter's equatorial coordinates.	* \brief Calculate Jupiter's equatorial coordinates.
	* \ingroup jupiter	* \ingroup jupiter
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_jupiter_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_jupiter_equ_coords (double JD, struct ln_equ_pos n * position);

	/*! \fn double ln_get_jupiter_earth_dist (double JD);	/*! \fn double ln_get_jupiter_earth_dist (double JD);
	* \brief Calculate the distance between Jupiter and the Earth.	* \brief Calculate the distance between Jupiter and the Earth.
	* \ingroup jupiter	* \ingroup jupiter
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_jupiter_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_jupiter_earth_dist (double JD);

	/*! \fn double ln_get_jupiter_solar_dist (double JD);	/*! \fn double ln_get_jupiter_solar_dist (double JD);
	* \brief Calculate the distance between Jupiter and the Sun.	* \brief Calculate the distance between Jupiter and the Sun.
	* \ingroup jupiter	* \ingroup jupiter
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_jupiter_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_jupiter_solar_dist (double JD);

	/*! \fn double ln_get_jupiter_magnitude (double JD);	/*! \fn double ln_get_jupiter_magnitude (double JD);
	* \brief Calculate the visible magnitude of Jupiter	* \brief Calculate the visible magnitude of Jupiter
	* \ingroup jupiter	* \ingroup jupiter
	* \return Visible magnitude of Jupiter	* \return Visible magnitude of Jupiter
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_jupiter_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_jupiter_magnitude (double JD);

	/*! \fn double ln_get_jupiter_disk (double JD);	/*! \fn double ln_get_jupiter_disk (double JD);
	* \brief Calculate the illuminated fraction of Jupiter's disk	* \brief Calculate the illuminated fraction of Jupiter's disk
	* \ingroup jupiter	* \ingroup jupiter
	* \return Illuminated fraction of Jupiter's disk	* \return Illuminated fraction of Jupiter's disk
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_jupiter_disk (double JD);	double LIBNOVA_EXPORT ln_get_jupiter_disk (double JD);

	/*! \fn double ln_get_jupiter_phase (double JD);	/*! \fn double ln_get_jupiter_phase (double JD);
	* \brief Calculate the phase angle of Jupiter.	* \brief Calculate the phase angle of Jupiter.
	* \ingroup jupiter	* \ingroup jupiter
	* \return Phase angle of Jupiter (degrees)	* \return Phase angle of Jupiter (degrees)
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_jupiter_phase (double JD);	double LIBNOVA_EXPORT ln_get_jupiter_phase (double JD);

	/! \fn void ln_get_jupiter_rect_helio (double JD, struct ln_rect_posn po sition)	/! \fn void ln_get_jupiter_rect_helio (double JD, struct ln_rect_posn po sition)
	* \ingroup jupiter	* \ingroup jupiter
	* \brief Calculate Jupiters rectangular heliocentric coordinates.	* \brief Calculate Jupiters rectangular heliocentric coordinates.
	*/	*/

	void ln_get_jupiter_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_jupiter_rect_helio (double JD, struct ln_rect_po sn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 13 change blocks.
	13 lines changed or deleted	13 lines changed or added

	libnova.h	libnova.h

	skipping to change at line 61	skipping to change at line 61
	* - Atmospheric refraction	* - Atmospheric refraction
	* - Rise, Set and Transit times.	* - Rise, Set and Transit times.
	* - Semidiameters of the Sun, Moon, Planets and asteroids.	* - Semidiameters of the Sun, Moon, Planets and asteroids.
	* - Angular separation of bodies	* - Angular separation of bodies
	* - Hyperbolic motion of bodies	* - Hyperbolic motion of bodies
	*	*
	* \section docs Documentation	* \section docs Documentation
	* API documentation for libnova is included in the source. It can also be f ound in this website and an offline tarball is available <A href="http://li bnova.sf.net/libnovadocs.tar.gz">here</A>.	* API documentation for libnova is included in the source. It can also be f ound in this website and an offline tarball is available <A href="http://li bnova.sf.net/libnovadocs.tar.gz">here</A>.
	*	*
	* \section download Download	* \section download Download

	* The latest released version of libnova is 0.11.	* The latest released version of libnova is 0.12.2.
	* It is available for download <A href="http://sf.net/project/showfiles.php ?group_id=57697">here.</A>	* It is available for download <A href="http://sf.net/project/showfiles.php ?group_id=57697">here.</A>
	*	*
	* \section cvs CVS	* \section cvs CVS
	* The latest CVS version of libnova is available via CVS <A href="http://sf .net/cvs/?group_id=57697">here.</A>	* The latest CVS version of libnova is available via CVS <A href="http://sf .net/cvs/?group_id=57697">here.</A>
	*	*
	* \section licence Licence	* \section licence Licence
	* libnova is released under the <A href="http://www.gnu.org">GNU</A> LGPL.	* libnova is released under the <A href="http://www.gnu.org">GNU</A> LGPL.
	*	*
	* \section help Help	* \section help Help
	* If you are interested in helping in the future development of libnova, th en please get in touch.	* If you are interested in helping in the future development of libnova, th en please get in touch.

End of changes. 1 change blocks.
	1 lines changed or deleted	1 lines changed or added

	ln_types.h	ln_types.h

	skipping to change at line 26	skipping to change at line 26
	* Copyright (C) 2000 - 2005 Liam Girdwood	* Copyright (C) 2000 - 2005 Liam Girdwood
	*/	*/

	#ifndef _LN_TYPES_H	#ifndef _LN_TYPES_H
	#define _LN_TYPES_H	#define _LN_TYPES_H

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif


	/* define some usefull constants if they are not already defined */	#if defined(_MSC_VER) \|\| defined(__CYGWIN__) \|\| defined(__MINGW32__) \|\| def
	#ifndef M_PI_2	ined( __BCPLUSPLUS__) \|\| defined( __MWERKS__)
		# if defined( LIBNOVA_STATIC )
		# define LIBNOVA_EXPORT
		# elif defined( LIBNOVA_SHARED )
		# define LIBNOVA_EXPORT __declspec(dllexport)
		# else
		# define LIBNOVA_EXPORT __declspec(dllimport)
		# endif
		#else
		# define LIBNOVA_EXPORT
		#endif

		/* define some useful constants if they are not already defined */
		#if(!defined(M_PI_2) && (!defined(_MSC_VER) \|\| !defined(_USE_MATH_DEFINES))
		)
	#define M_PI_2 1.5707963267948966192313216916398	#define M_PI_2 1.5707963267948966192313216916398
	#define M_PI_4 0.78539816339744830961566084581988	#define M_PI_4 0.78539816339744830961566084581988
	#define M_PI 3.1415926535897932384626433832795	#define M_PI 3.1415926535897932384626433832795
	#endif	#endif


	/* sideral day lenght in seconds and days (for JD)*/	/* sideral day length in seconds and days (for JD)*/
	#define LN_SIDEREAL_DAY_SEC 86164.09	#define LN_SIDEREAL_DAY_SEC 86164.09
	#define LN_SIDEREAL_DAY_DAY LN_SIDEREAL_DAY_SEC/86400	#define LN_SIDEREAL_DAY_DAY LN_SIDEREAL_DAY_SEC/86400

	/* 1.1.2000 Julian Day & others */	/* 1.1.2000 Julian Day & others */
	#define JD2000 2451545.0	#define JD2000 2451545.0
	#define JD2050 2469807.50	#define JD2050 2469807.50

	#define B1900 2415020.3135	#define B1900 2415020.3135
	#define B1950 2433282.4235	#define B1950 2433282.4235


	skipping to change at line 113	skipping to change at line 125
	*/	*/

	struct ln_hms	struct ln_hms
	{	{
	unsigned short hours; /!< Hours. Valid 0 - 23 /	unsigned short hours; /!< Hours. Valid 0 - 23 /
	unsigned short minutes; /!< Minutes. Valid 0 - 59 /	unsigned short minutes; /!< Minutes. Valid 0 - 59 /
	double seconds; /!< Seconds. Valid 0 - 59.9 999... /	double seconds; /!< Seconds. Valid 0 - 59.9 999... /
	};	};

	/*! \struct lnh_equ_posn	/*! \struct lnh_equ_posn

	** \brief Right Acsension and Declination.	** \brief Right Ascension and Declination.
	*	*
	* Human readable Equatorial Coordinates.	* Human readable Equatorial Coordinates.
	*/	*/

	struct lnh_equ_posn	struct lnh_equ_posn
	{	{
	struct ln_hms ra; /!< RA. Object right ascension./	struct ln_hms ra; /!< RA. Object right ascension./
	struct ln_dms dec; /!< DEC. Object declination /	struct ln_dms dec; /!< DEC. Object declination /
	};	};


End of changes. 3 change blocks.
	4 lines changed or deleted	18 lines changed or added

	lunar.h	lunar.h

	skipping to change at line 38	skipping to change at line 38
	#endif	#endif

	/*! \defgroup lunar Lunar	/*! \defgroup lunar Lunar
	*	*
	* Functions relating to the Moon.	* Functions relating to the Moon.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_lunar_sdiam (double JD)	/*! \fn double ln_get_lunar_sdiam (double JD)

	* \brief Calcaluate the semidiameter of the Moon in arc seconds.	* \brief Calculate the semidiameter of the Moon in arc seconds.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	double ln_get_lunar_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_lunar_sdiam (double JD);

	/! \fn double ln_get_lunar_rst (double JD, struct ln_lnlat_posn observer , struct ln_rst_time * rst);	/! \fn double ln_get_lunar_rst (double JD, struct ln_lnlat_posn observer , struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for the Moon.	* \brief Calculate the time of rise, set and transit for the Moon.
	* \ingroup lunar	* \ingroup lunar
	*/	*/


	int ln_get_lunar_rst (double JD, struct ln_lnlat_posn * observer, struct ln _rst_time * rst);	int LIBNOVA_EXPORT ln_get_lunar_rst (double JD, struct ln_lnlat_posn * obse rver, struct ln_rst_time * rst);

	/! \fn void ln_get_lunar_geo_posn (double JD, struct ln_rect_posn moon, double precision);	/! \fn void ln_get_lunar_geo_posn (double JD, struct ln_rect_posn moon, double precision);
	* \brief Calculate the rectangular geocentric lunar cordinates.	* \brief Calculate the rectangular geocentric lunar cordinates.
	* \ingroup lunar	* \ingroup lunar
	*/	*/
	/* ELP 2000-82B theory */	/* ELP 2000-82B theory */

	void ln_get_lunar_geo_posn (double JD, struct ln_rect_posn * moon, double p recision);	void LIBNOVA_EXPORT ln_get_lunar_geo_posn (double JD, struct ln_rect_posn * moon, double precision);

	/! \fn void ln_get_lunar_equ_coords_prec (double JD, struct ln_equ_posn position, double precision);	/! \fn void ln_get_lunar_equ_coords_prec (double JD, struct ln_equ_posn position, double precision);
	* \brief Calculate lunar equatorial coordinates.	* \brief Calculate lunar equatorial coordinates.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	void ln_get_lunar_equ_coords_prec (double JD, struct ln_equ_posn * position , double precision);	void LIBNOVA_EXPORT ln_get_lunar_equ_coords_prec (double JD, struct ln_equ_ posn * position, double precision);

	/! \fn void ln_get_lunar_equ_coords (double JD, struct ln_equ_posn posit ion);	/! \fn void ln_get_lunar_equ_coords (double JD, struct ln_equ_posn posit ion);
	* \brief Calculate lunar equatorial coordinates.	* \brief Calculate lunar equatorial coordinates.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	void ln_get_lunar_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_lunar_equ_coords (double JD, struct ln_equ_posn * position);

	/! \fn void ln_get_lunar_ecl_coords (double JD, struct ln_lnlat_posn pos ition, double precision);	/! \fn void ln_get_lunar_ecl_coords (double JD, struct ln_lnlat_posn pos ition, double precision);
	* \brief Calculate lunar ecliptical coordinates.	* \brief Calculate lunar ecliptical coordinates.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	void ln_get_lunar_ecl_coords (double JD, struct ln_lnlat_posn * position, d ouble precision);	void LIBNOVA_EXPORT ln_get_lunar_ecl_coords (double JD, struct ln_lnlat_pos n * position, double precision);

	/*! \fn double ln_get_lunar_phase (double JD);	/*! \fn double ln_get_lunar_phase (double JD);
	* \brief Calculate the phase angle of the Moon.	* \brief Calculate the phase angle of the Moon.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	double ln_get_lunar_phase (double JD);	double LIBNOVA_EXPORT ln_get_lunar_phase (double JD);

	/*! \fn double ln_get_lunar_disk (double JD);	/*! \fn double ln_get_lunar_disk (double JD);
	* \brief Calculate the illuminated fraction of the Moons disk	* \brief Calculate the illuminated fraction of the Moons disk
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	double ln_get_lunar_disk (double JD);	double LIBNOVA_EXPORT ln_get_lunar_disk (double JD);

	/*! \fn double ln_get_lunar_earth_dist (double JD);	/*! \fn double ln_get_lunar_earth_dist (double JD);
	* \brief Calculate the distance between the Earth and the Moon.	* \brief Calculate the distance between the Earth and the Moon.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	double ln_get_lunar_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_lunar_earth_dist (double JD);

	/*! \fn double ln_get_lunar_bright_limb (double JD);	/*! \fn double ln_get_lunar_bright_limb (double JD);
	* \brief Calculate the position angle of the Moon's bright limb.	* \brief Calculate the position angle of the Moon's bright limb.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	double ln_get_lunar_bright_limb (double JD);	double LIBNOVA_EXPORT ln_get_lunar_bright_limb (double JD);

	/*! \fn double ln_get_lunar_long_asc_node (double JD);	/*! \fn double ln_get_lunar_long_asc_node (double JD);
	* \brief Calculate the longitude of the Moon's mean ascending node.	* \brief Calculate the longitude of the Moon's mean ascending node.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	double ln_get_lunar_long_asc_node (double JD);	double LIBNOVA_EXPORT ln_get_lunar_long_asc_node (double JD);

	/*! \fn double ln_get_lunar_long_perigee (double JD);	/*! \fn double ln_get_lunar_long_perigee (double JD);
	* \brief Calculate the longitude of the Moon's mean perigee.	* \brief Calculate the longitude of the Moon's mean perigee.
	* \ingroup lunar	* \ingroup lunar
	*/	*/

	double ln_get_lunar_long_perigee (double JD);	double LIBNOVA_EXPORT ln_get_lunar_long_perigee (double JD);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 13 change blocks.
	13 lines changed or deleted	13 lines changed or added

	mars.h	mars.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup mars Mars	/*! \defgroup mars Mars
	*	*
	* Functions relating to the planet Mars.	* Functions relating to the planet Mars.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_mars_sdiam (double JD)	/*! \fn double ln_get_mars_sdiam (double JD)

	* \brief Calcaluate the semidiameter of Mars in arc seconds.	* \brief Calculate the semidiameter of Mars in arc seconds.
	* \ingroup mars	* \ingroup mars
	*/	*/

	double ln_get_mars_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_mars_sdiam (double JD);

	/! \fn double ln_get_mars_rst (double JD, struct ln_lnlat_posn observer, struct ln_rst_time * rst);	/! \fn double ln_get_mars_rst (double JD, struct ln_lnlat_posn observer, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Mars.	* \brief Calculate the time of rise, set and transit for Mars.
	* \ingroup mars	* \ingroup mars
	*/	*/

	int ln_get_mars_rst (double JD, struct ln_lnlat_posn * observer, struct ln_ rst_time * rst);	int LIBNOVA_EXPORT ln_get_mars_rst (double JD, struct ln_lnlat_posn * obser ver, struct ln_rst_time * rst);

	/! \fn void ln_get_mars_helio_coords (double JD, struct ln_helio_posn po sition);	/! \fn void ln_get_mars_helio_coords (double JD, struct ln_helio_posn po sition);
	* \brief Calculate Mars heliocentric coordinates	* \brief Calculate Mars heliocentric coordinates
	* \ingroup mars	* \ingroup mars
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_mars_helio_coords (double JD, struct ln_helio_posn * position);	void LIBNOVA_EXPORT ln_get_mars_helio_coords (double JD, struct ln_helio_po sn * position);

	/! \fn void ln_get_mars_equ_coords (double JD, struct ln_equ_posn positi on);	/! \fn void ln_get_mars_equ_coords (double JD, struct ln_equ_posn positi on);
	* \brief Calculate Mars equatorial coordinates	* \brief Calculate Mars equatorial coordinates
	* \ingroup mars	* \ingroup mars
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_mars_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_mars_equ_coords (double JD, struct ln_equ_posn * position);

	/*! \fn double ln_get_mars_earth_dist (double JD);	/*! \fn double ln_get_mars_earth_dist (double JD);
	* \brief Calculate the distance between Mars and the Earth.	* \brief Calculate the distance between Mars and the Earth.
	* \ingroup mars	* \ingroup mars
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_mars_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_mars_earth_dist (double JD);

	/*! \fn double ln_get_mars_solar_dist (double JD);	/*! \fn double ln_get_mars_solar_dist (double JD);
	* \brief Calculate the distance between Mars and the Sun.	* \brief Calculate the distance between Mars and the Sun.
	* \ingroup mars	* \ingroup mars
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_mars_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_mars_solar_dist (double JD);

	/*! \fn double ln_get_mars_magnitude (double JD);	/*! \fn double ln_get_mars_magnitude (double JD);
	* \brief Calculate the visible magnitude of Mars	* \brief Calculate the visible magnitude of Mars
	* \ingroup mars	* \ingroup mars
	* \return Visible magnitude of Mars	* \return Visible magnitude of Mars
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_mars_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_mars_magnitude (double JD);

	/*! \fn double ln_get_mars_disk (double JD);	/*! \fn double ln_get_mars_disk (double JD);
	* \brief Calculate the illuminated fraction of Mars disk	* \brief Calculate the illuminated fraction of Mars disk
	* \ingroup mars	* \ingroup mars
	* \return Illuminated fraction of Mars disk	* \return Illuminated fraction of Mars disk
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_mars_disk (double JD);	double LIBNOVA_EXPORT ln_get_mars_disk (double JD);

	/*! \fn double ln_get_mars_phase (double JD);	/*! \fn double ln_get_mars_phase (double JD);
	* \brief Calculate the phase angle of Mars.	* \brief Calculate the phase angle of Mars.
	* \ingroup mars	* \ingroup mars
	* \return Phase angle of Mars (degrees)	* \return Phase angle of Mars (degrees)
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_mars_phase (double JD);	double LIBNOVA_EXPORT ln_get_mars_phase (double JD);

	/! \fn void ln_get_mars_rect_helio (double JD, struct ln_rect_posn posit ion)	/! \fn void ln_get_mars_rect_helio (double JD, struct ln_rect_posn posit ion)
	* \ingroup mars	* \ingroup mars
	* \brief Calculate Mars rectangular heliocentric coordinates.	* \brief Calculate Mars rectangular heliocentric coordinates.
	*/	*/

	void ln_get_mars_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_mars_rect_helio (double JD, struct ln_rect_posn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 11 change blocks.
	11 lines changed or deleted	11 lines changed or added

	mercury.h	mercury.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup mercury Mercury	/*! \defgroup mercury Mercury
	*	*
	* Functions relating to the planet Mercury.	* Functions relating to the planet Mercury.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_mercury_sdiam (double JD)	/*! \fn double ln_get_mercury_sdiam (double JD)

	* \brief Calcaluate the semidiameter of Mercury in arc seconds.	* \brief Calculate the semidiameter of Mercury in arc seconds.
	* \ingroup mercury	* \ingroup mercury
	*/	*/

	double ln_get_mercury_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_mercury_sdiam (double JD);

	/! \fn double ln_get_mercury_rst (double JD, struct ln_lnlat_posn observ er, struct ln_rst_time * rst);	/! \fn double ln_get_mercury_rst (double JD, struct ln_lnlat_posn observ er, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Mercury.	* \brief Calculate the time of rise, set and transit for Mercury.
	* \ingroup mercury	* \ingroup mercury
	*/	*/

	int ln_get_mercury_rst (double JD, struct ln_lnlat_posn * observer, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_mercury_rst (double JD, struct ln_lnlat_posn * ob server, struct ln_rst_time * rst);

	/! \fn void ln_get_mercury_helio_coords (double JD, struct ln_helio_posn position);	/! \fn void ln_get_mercury_helio_coords (double JD, struct ln_helio_posn position);
	* \brief Calculate Mercury's heliocentric coordinates	* \brief Calculate Mercury's heliocentric coordinates
	* \ingroup mercury	* \ingroup mercury
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_mercury_helio_coords (double JD, struct ln_helio_posn * positio n);	void LIBNOVA_EXPORT ln_get_mercury_helio_coords (double JD, struct ln_helio _posn * position);

	/! \fn void ln_get_mercury_equ_coords (double JD, struct ln_equ_posn pos ition);	/! \fn void ln_get_mercury_equ_coords (double JD, struct ln_equ_posn pos ition);
	* \brief Calculate Mercury's equatorial coordinates	* \brief Calculate Mercury's equatorial coordinates
	* \ingroup mercury	* \ingroup mercury
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_mercury_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_mercury_equ_coords (double JD, struct ln_equ_pos n * position);

	/*! \fn double ln_get_mercury_earth_dist (double JD);	/*! \fn double ln_get_mercury_earth_dist (double JD);
	* \brief Calculate the distance between Mercury and the Earth.	* \brief Calculate the distance between Mercury and the Earth.
	* \ingroup mercury	* \ingroup mercury
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_mercury_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_mercury_earth_dist (double JD);

	/*! \fn double ln_get_mercury_solar_dist (double JD);	/*! \fn double ln_get_mercury_solar_dist (double JD);
	* \brief Calculate the distance between Mercury and the Sun in AU	* \brief Calculate the distance between Mercury and the Sun in AU
	* \ingroup mercury	* \ingroup mercury
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_mercury_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_mercury_solar_dist (double JD);

	/*! \fn double ln_get_mercury_magnitude (double JD);	/*! \fn double ln_get_mercury_magnitude (double JD);
	* \brief Calculate the visible magnitude of Mercury	* \brief Calculate the visible magnitude of Mercury
	* \ingroup mercury	* \ingroup mercury
	* \return Visible magnitude of Mercury	* \return Visible magnitude of Mercury
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_mercury_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_mercury_magnitude (double JD);

	/*! \fn double ln_get_mercury_disk (double JD);	/*! \fn double ln_get_mercury_disk (double JD);
	* \brief Calculate the illuminated fraction of Mercury's disk	* \brief Calculate the illuminated fraction of Mercury's disk
	* \ingroup mercury	* \ingroup mercury
	* \return Illuminated fraction of mercurys disk	* \return Illuminated fraction of mercurys disk
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_mercury_disk (double JD);	double LIBNOVA_EXPORT ln_get_mercury_disk (double JD);

	/*! \fn double ln_get_mercury_phase (double JD);	/*! \fn double ln_get_mercury_phase (double JD);
	* \brief Calculate the phase angle of Mercury (Sun - Mercury - Earth)	* \brief Calculate the phase angle of Mercury (Sun - Mercury - Earth)
	* \ingroup mercury	* \ingroup mercury
	* \return Phase angle of Mercury (degrees)	* \return Phase angle of Mercury (degrees)
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_mercury_phase (double JD);	double LIBNOVA_EXPORT ln_get_mercury_phase (double JD);

	/! \fn void ln_get_mercury_rect_helio (double JD, struct ln_rect_posn po sition)	/! \fn void ln_get_mercury_rect_helio (double JD, struct ln_rect_posn po sition)
	* \ingroup mercury	* \ingroup mercury
	* \brief Calculate Mercurys rectangular heliocentric coordinates.	* \brief Calculate Mercurys rectangular heliocentric coordinates.
	*/	*/

	void ln_get_mercury_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_mercury_rect_helio (double JD, struct ln_rect_po sn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 11 change blocks.
	11 lines changed or deleted	11 lines changed or added

	neptune.h	neptune.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup neptune Neptune	/*! \defgroup neptune Neptune
	*	*
	* Functions relating to the planet Neptune.	* Functions relating to the planet Neptune.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_neptune_sdiam (double JD)	/*! \fn double ln_get_neptune_sdiam (double JD)

	* \brief Calcaluate the semidiameter of Neptune in arc seconds.	* \brief Calculate the semidiameter of Neptune in arc seconds.
	* \ingroup neptune	* \ingroup neptune
	*/	*/

	double ln_get_neptune_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_neptune_sdiam (double JD);

	/! \fn double ln_get_neptune_rst (double JD, struct ln_lnlat_posn observ er, struct ln_rst_time * rst);	/! \fn double ln_get_neptune_rst (double JD, struct ln_lnlat_posn observ er, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Neptune.	* \brief Calculate the time of rise, set and transit for Neptune.
	* \ingroup neptune	* \ingroup neptune
	*/	*/

	int ln_get_neptune_rst (double JD, struct ln_lnlat_posn * observer, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_neptune_rst (double JD, struct ln_lnlat_posn * ob server, struct ln_rst_time * rst);

	/! \fn void ln_get_neptune_helio_coords (double JD, struct ln_helio_posn position);	/! \fn void ln_get_neptune_helio_coords (double JD, struct ln_helio_posn position);
	* \brief Calculate Neptune's heliocentric coordinates.	* \brief Calculate Neptune's heliocentric coordinates.
	* \ingroup neptune	* \ingroup neptune
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_neptune_helio_coords (double JD, struct ln_helio_posn * positio n);	void LIBNOVA_EXPORT ln_get_neptune_helio_coords (double JD, struct ln_helio _posn * position);

	/! \fn void ln_get_neptune_equ_coords (double JD, struct ln_equ_posn pos ition);	/! \fn void ln_get_neptune_equ_coords (double JD, struct ln_equ_posn pos ition);
	* \brief Calculate Neptune's equatorial coordinates.	* \brief Calculate Neptune's equatorial coordinates.
	* \ingroup neptune	* \ingroup neptune
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_neptune_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_neptune_equ_coords (double JD, struct ln_equ_pos n * position);

	/*! \fn double ln_get_neptune_earth_dist (double JD);	/*! \fn double ln_get_neptune_earth_dist (double JD);
	* \brief Calculate the distance between Neptune and the Earth.	* \brief Calculate the distance between Neptune and the Earth.
	* \ingroup neptune	* \ingroup neptune
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_neptune_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_neptune_earth_dist (double JD);

	/*! \fn double ln_get_neptune_solar_dist (double JD);	/*! \fn double ln_get_neptune_solar_dist (double JD);
	* \brief Calculate the distance between Neptune and the Sun.	* \brief Calculate the distance between Neptune and the Sun.
	* \ingroup neptune	* \ingroup neptune
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_neptune_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_neptune_solar_dist (double JD);

	/*! \fn double ln_get_neptune_magnitude (double JD);	/*! \fn double ln_get_neptune_magnitude (double JD);
	* \brief Calculate the visible magnitude of Neptune.	* \brief Calculate the visible magnitude of Neptune.
	* \ingroup neptune	* \ingroup neptune

	* \return Visisble magnitude of Neptune.	* \return Visible magnitude of Neptune.
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_neptune_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_neptune_magnitude (double JD);

	/*! \fn double ln_get_neptune_disk (double JD);	/*! \fn double ln_get_neptune_disk (double JD);
	* \brief Calculate the illuminated fraction of Neptune's disk.	* \brief Calculate the illuminated fraction of Neptune's disk.
	* \ingroup neptune	* \ingroup neptune
	* \return Illuminated fraction of Neptune's disk.	* \return Illuminated fraction of Neptune's disk.
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_neptune_disk (double JD);	double LIBNOVA_EXPORT ln_get_neptune_disk (double JD);

	/*! \fn double ln_get_neptune_phase (double JD);	/*! \fn double ln_get_neptune_phase (double JD);
	* \brief Calculate the phase angle of Neptune.	* \brief Calculate the phase angle of Neptune.
	* \ingroup neptune	* \ingroup neptune
	* \return Phase angle of Neptune (degrees)	* \return Phase angle of Neptune (degrees)
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_neptune_phase (double JD);	double LIBNOVA_EXPORT ln_get_neptune_phase (double JD);

	/! \fn void ln_get_neptune_rect_helio (double JD, struct ln_rect_posn po sition)	/! \fn void ln_get_neptune_rect_helio (double JD, struct ln_rect_posn po sition)
	* \ingroup neptune	* \ingroup neptune
	* \brief Calculate Neptunes rectangular heliocentric coordinates.	* \brief Calculate Neptunes rectangular heliocentric coordinates.
	*/	*/

	void ln_get_neptune_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_neptune_rect_helio (double JD, struct ln_rect_po sn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 12 change blocks.
	12 lines changed or deleted	12 lines changed or added

	nutation.h	nutation.h

	skipping to change at line 42	skipping to change at line 42
	* Nutation is a period oscillation of the Earths rotational axis around it' s	* Nutation is a period oscillation of the Earths rotational axis around it' s
	* mean position.	* mean position.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn void ln_get_nutation (double JD, struct ln_nutation nutation);	/! \fn void ln_get_nutation (double JD, struct ln_nutation nutation);
	* \ingroup nutation	* \ingroup nutation
	* \brief Calculate nutation.	* \brief Calculate nutation.
	*/	*/

	void ln_get_nutation (double JD, struct ln_nutation * nutation);	void LIBNOVA_EXPORT ln_get_nutation (double JD, struct ln_nutation * nutati on);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 1 change blocks.
	1 lines changed or deleted	1 lines changed or added

	parabolic_motion.h	parabolic_motion.h

	skipping to change at line 39	skipping to change at line 39
	*	*
	* Functions relating to the Parabolic motion of bodies.	* Functions relating to the Parabolic motion of bodies.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_solve_barker (double q, double t);	/*! \fn double ln_solve_barker (double q, double t);
	* \brief Solve Barkers equation.	* \brief Solve Barkers equation.
	* \ingroup parabolic	* \ingroup parabolic
	*/	*/

	double ln_solve_barker (double q, double t);	double LIBNOVA_EXPORT ln_solve_barker (double q, double t);

	/*! \fn double ln_get_par_true_anomaly (double q, double t);	/*! \fn double ln_get_par_true_anomaly (double q, double t);
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate the true anomaly.	* \brief Calculate the true anomaly.
	*/	*/

	double ln_get_par_true_anomaly (double q, double t);	double LIBNOVA_EXPORT ln_get_par_true_anomaly (double q, double t);

	/*! \fn double ln_get_par_radius_vector (double q, double t);	/*! \fn double ln_get_par_radius_vector (double q, double t);
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate the radius vector.	* \brief Calculate the radius vector.
	*/	*/

	double ln_get_par_radius_vector (double q, double t);	double LIBNOVA_EXPORT ln_get_par_radius_vector (double q, double t);

	/! \fn void ln_get_par_geo_rect_posn (struct ln_par_orbit orbit, double J D, struct ln_rect_posn* posn);	/! \fn void ln_get_par_geo_rect_posn (struct ln_par_orbit orbit, double J D, struct ln_rect_posn* posn);
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate an objects rectangular geocentric position.	* \brief Calculate an objects rectangular geocentric position.
	*/	*/

	void ln_get_par_geo_rect_posn (struct ln_par_orbit* orbit, double JD, struc t ln_rect_posn* posn);	void LIBNOVA_EXPORT ln_get_par_geo_rect_posn (struct ln_par_orbit* orbit, d ouble JD, struct ln_rect_posn* posn);

	/! \fn void ln_get_par_helio_rect_posn (struct ln_par_orbit orbit, double JD, struct ln_rect_posn* posn);	/! \fn void ln_get_par_helio_rect_posn (struct ln_par_orbit orbit, double JD, struct ln_rect_posn* posn);
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate an objects rectangular heliocentric position.	* \brief Calculate an objects rectangular heliocentric position.
	*/	*/

	void ln_get_par_helio_rect_posn (struct ln_par_orbit* orbit, double JD, str uct ln_rect_posn* posn);	void LIBNOVA_EXPORT ln_get_par_helio_rect_posn (struct ln_par_orbit* orbit, double JD, struct ln_rect_posn* posn);

	/*!	/*!
	* \fn void ln_get_par_body_equ_coords (double JD, struct ln_par_orbit * orb it, struct ln_equ_posn * posn)	* \fn void ln_get_par_body_equ_coords (double JD, struct ln_par_orbit * orb it, struct ln_equ_posn * posn)
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate a bodies equatorial coordinates.	* \brief Calculate a bodies equatorial coordinates.
	*/	*/

	void ln_get_par_body_equ_coords (double JD, struct ln_par_orbit * orbit, st ruct ln_equ_posn * posn);	void LIBNOVA_EXPORT ln_get_par_body_equ_coords (double JD, struct ln_par_or bit * orbit, struct ln_equ_posn * posn);

	/*!	/*!
	* \fn double ln_get_par_body_earth_dist (double JD, struct ln_par_orbit * o rbit)	* \fn double ln_get_par_body_earth_dist (double JD, struct ln_par_orbit * o rbit)
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate the distance between a body and the Earth.	* \brief Calculate the distance between a body and the Earth.
	*/	*/

	double ln_get_par_body_earth_dist (double JD, struct ln_par_orbit * orbit);	double LIBNOVA_EXPORT ln_get_par_body_earth_dist (double JD, struct ln_par_ orbit * orbit);

	/*!	/*!
	* \fn double ln_get_par_body_solar_dist (double JD, struct ln_par_orbit * o rbit)	* \fn double ln_get_par_body_solar_dist (double JD, struct ln_par_orbit * o rbit)
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate the distance between a body and the Sun.	* \brief Calculate the distance between a body and the Sun.
	*/	*/

	double ln_get_par_body_solar_dist (double JD, struct ln_par_orbit * orbit);	double LIBNOVA_EXPORT ln_get_par_body_solar_dist (double JD, struct ln_par_ orbit * orbit);

	/! \fn double ln_get_par_body_phase_angle (double JD, struct ln_par_orbit orbit);	/! \fn double ln_get_par_body_phase_angle (double JD, struct ln_par_orbit orbit);
	* \ingroup parabolic	* \ingroup parabolic

	* \brief Calculate the pase angle of the body.	* \brief Calculate the phase angle of the body.
	*/	*/

	double ln_get_par_body_phase_angle (double JD, struct ln_par_orbit * orbit) ;	double LIBNOVA_EXPORT ln_get_par_body_phase_angle (double JD, struct ln_par _orbit * orbit);

	/! \fn double ln_get_par_body_elong (double JD, struct ln_par_orbit orbi t);	/! \fn double ln_get_par_body_elong (double JD, struct ln_par_orbit orbi t);
	* \ingroup parabolic	* \ingroup parabolic
	* \brief Calculate the bodies elongation to the Sun.	* \brief Calculate the bodies elongation to the Sun.
	*/	*/

	double ln_get_par_body_elong (double JD, struct ln_par_orbit * orbit);	double LIBNOVA_EXPORT ln_get_par_body_elong (double JD, struct ln_par_orbit * orbit);

	/! \fn double ln_get_par_body_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_par_orbit * orbit, struct ln_rst_time * rst);	/! \fn double ln_get_par_body_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_par_orbit * orbit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with a para bolic orbit.	* \brief Calculate the time of rise, set and transit for a body with a para bolic orbit.
	* \ingroup parabolic	* \ingroup parabolic
	*/	*/

	int ln_get_par_body_rst (double JD, struct ln_lnlat_posn * observer, struct ln_par_orbit * orbit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_par_body_rst (double JD, struct ln_lnlat_posn * o bserver, struct ln_par_orbit * orbit, struct ln_rst_time * rst);

	/! \fn double ln_get_par_body_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_par_orbit * orbit, double horizon, struct ln_rst_tim e * rst);	/! \fn double ln_get_par_body_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_par_orbit * orbit, double horizon, struct ln_rst_tim e * rst);
	* \brief Calculate the time of rise, set and transit for a body with a para bolic orbit.	* \brief Calculate the time of rise, set and transit for a body with a para bolic orbit.
	* \ingroup parabolic	* \ingroup parabolic
	*/	*/

	int ln_get_par_body_rst_horizon (double JD, struct ln_lnlat_posn * observer , struct ln_par_orbit * orbit, double horizon, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_par_body_rst_horizon (double JD, struct ln_lnlat_ posn * observer, struct ln_par_orbit * orbit, double horizon, struct ln_rst _time * rst);

	/! \fn double ln_get_par_body_next_rst (double JD, struct ln_lnlat_posn observer, struct ln_par_orbit * orbit, struct ln_rst_time * rst);	/! \fn double ln_get_par_body_next_rst (double JD, struct ln_lnlat_posn observer, struct ln_par_orbit * orbit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an par abolic orbit.	* \brief Calculate the time of rise, set and transit for a body with an par abolic orbit.
	* \ingroup parabolic	* \ingroup parabolic
	*/	*/

	int ln_get_par_body_next_rst (double JD, struct ln_lnlat_posn * observer, s truct ln_par_orbit * orbit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_par_body_next_rst (double JD, struct ln_lnlat_pos n * observer, struct ln_par_orbit * orbit, struct ln_rst_time * rst);

	/! \fn double ln_get_par_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, struct ln_par_orbit * orbit, double horizon, struct ln_rs t_time * rst);	/! \fn double ln_get_par_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, struct ln_par_orbit * orbit, double horizon, struct ln_rs t_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an par abolic orbit.	* \brief Calculate the time of rise, set and transit for a body with an par abolic orbit.
	* \ingroup parabolic	* \ingroup parabolic
	*/	*/

	int ln_get_par_body_next_rst_horizon (double JD, struct ln_lnlat_posn * obs erver, struct ln_par_orbit * orbit, double horizon, struct ln_rst_time * rs t);	int LIBNOVA_EXPORT ln_get_par_body_next_rst_horizon (double JD, struct ln_l nlat_posn * observer, struct ln_par_orbit * orbit, double horizon, struct l n_rst_time * rst);

	/! \fn double ln_get_par_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, struct ln_par_orbit * orbit, double horizon, int d ay_limit, struct ln_rst_time * rst);	/! \fn double ln_get_par_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, struct ln_par_orbit * orbit, double horizon, int d ay_limit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an par abolic orbit.	* \brief Calculate the time of rise, set and transit for a body with an par abolic orbit.
	* \ingroup parabolic	* \ingroup parabolic
	*/	*/

	int ln_get_par_body_next_rst_horizon_future (double JD, struct ln_lnlat_pos n * observer, struct ln_par_orbit * orbit, double horizon, int day_limit, s truct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_par_body_next_rst_horizon_future (double JD, stru ct ln_lnlat_posn * observer, struct ln_par_orbit * orbit, double horizon, i nt day_limit, struct ln_rst_time * rst);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 16 change blocks.
	16 lines changed or deleted	16 lines changed or added

	parallax.h	parallax.h

	skipping to change at line 32	skipping to change at line 32
	#include <libnova/ln_types.h>	#include <libnova/ln_types.h>

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif

	/! \fn void ln_get_parallax (struct ln_equ_posn object, double au_distan ce, struct ln_lnlat_posn * observer, double height, double JD, struct ln_eq u_posn * parallax);	/! \fn void ln_get_parallax (struct ln_equ_posn object, double au_distan ce, struct ln_lnlat_posn * observer, double height, double JD, struct ln_eq u_posn * parallax);
	* \ingroup parallax	* \ingroup parallax
	* \brief Calculate parallax in RA and DEC for given geographic location	* \brief Calculate parallax in RA and DEC for given geographic location
	*/	*/

	void ln_get_parallax (struct ln_equ_posn * object, double au_distance, stru ct ln_lnlat_posn * observer, double height, double JD, struct ln_equ_posn * parallax);	void LIBNOVA_EXPORT ln_get_parallax (struct ln_equ_posn * object, double au _distance, struct ln_lnlat_posn * observer, double height, double JD, struc t ln_equ_posn * parallax);

	/! \fn void ln_get_parallax_ha (struct ln_equ_posn object, double au_dis tance, struct ln_lnlat_posn * observer, double height, double H, struct ln_ equ_posn * parallax);	/! \fn void ln_get_parallax_ha (struct ln_equ_posn object, double au_dis tance, struct ln_lnlat_posn * observer, double height, double H, struct ln_ equ_posn * parallax);
	* \ingroup parallax	* \ingroup parallax
	* \brief Calculate parallax in RA and DEC for given geographic location	* \brief Calculate parallax in RA and DEC for given geographic location
	*/	*/

	void ln_get_parallax_ha (struct ln_equ_posn * object, double au_distance, s truct ln_lnlat_posn * observer, double height, double H, struct ln_equ_posn * parallax);	void LIBNOVA_EXPORT ln_get_parallax_ha (struct ln_equ_posn * object, double au_distance, struct ln_lnlat_posn * observer, double height, double H, str uct ln_equ_posn * parallax);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 2 change blocks.
	2 lines changed or deleted	2 lines changed or added

	pluto.h	pluto.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup pluto Pluto	/*! \defgroup pluto Pluto
	*	*
	* Functions relating to the planet Pluto.	* Functions relating to the planet Pluto.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_pluto_sdiam (double JD)	/*! \fn double ln_get_pluto_sdiam (double JD)

	* \brief Calcaluate the semidiameter of Pluto in arc seconds.	* \brief Calculate the semidiameter of Pluto in arc seconds.
	* \ingroup pluto	* \ingroup pluto
	*/	*/

	double ln_get_pluto_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_pluto_sdiam (double JD);

	/! \fn double ln_get_pluto_rst (double JD, struct ln_lnlat_posn observer , struct ln_rst_time * rst);	/! \fn double ln_get_pluto_rst (double JD, struct ln_lnlat_posn observer , struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Pluto.	* \brief Calculate the time of rise, set and transit for Pluto.
	* \ingroup pluto	* \ingroup pluto
	*/	*/

	int ln_get_pluto_rst (double JD, struct ln_lnlat_posn * observer, struct ln _rst_time * rst);	int LIBNOVA_EXPORT ln_get_pluto_rst (double JD, struct ln_lnlat_posn * obse rver, struct ln_rst_time * rst);

	/! \fn void ln_get_pluto_helio_coords (double JD, struct ln_helio_posn p osition);	/! \fn void ln_get_pluto_helio_coords (double JD, struct ln_helio_posn p osition);
	* \brief Calculate Pluto's heliocentric coordinates.	* \brief Calculate Pluto's heliocentric coordinates.
	* \ingroup pluto	* \ingroup pluto
	*/	*/
	/* Chapter 37 Pg 263 */	/* Chapter 37 Pg 263 */

	void ln_get_pluto_helio_coords (double JD, struct ln_helio_posn * position) ;	void LIBNOVA_EXPORT ln_get_pluto_helio_coords (double JD, struct ln_helio_p osn * position);

	/! \fn void ln_get_pluto_equ_coords (double JD, struct ln_equ_posn posit ion);	/! \fn void ln_get_pluto_equ_coords (double JD, struct ln_equ_posn posit ion);
	* \brief Calculate Pluto's equatorial coordinates.	* \brief Calculate Pluto's equatorial coordinates.
	* \ingroup pluto	* \ingroup pluto
	*/	*/
	/* Chapter 37 */	/* Chapter 37 */

	void ln_get_pluto_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_pluto_equ_coords (double JD, struct ln_equ_posn * position);

	/*! \fn double ln_get_pluto_earth_dist (double JD);	/*! \fn double ln_get_pluto_earth_dist (double JD);
	* \brief Calculate the distance between Pluto and the Earth.	* \brief Calculate the distance between Pluto and the Earth.
	* \ingroup pluto	* \ingroup pluto
	* \return distance in AU	* \return distance in AU
	*/	*/
	/* Chapter 37 */	/* Chapter 37 */

	double ln_get_pluto_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_pluto_earth_dist (double JD);

	/*! \fn double ln_get_pluto_solar_dist (double JD);	/*! \fn double ln_get_pluto_solar_dist (double JD);
	* \brief Calculate the distance between Pluto and the Sun.	* \brief Calculate the distance between Pluto and the Sun.
	* \ingroup pluto	* \ingroup pluto
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter 37 */	/* Chapter 37 */

	double ln_get_pluto_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_pluto_solar_dist (double JD);

	/*! \fn double ln_get_pluto_magnitude (double JD);	/*! \fn double ln_get_pluto_magnitude (double JD);
	* \brief Calculate the visible magnitude of Pluto	* \brief Calculate the visible magnitude of Pluto
	* \ingroup pluto	* \ingroup pluto
	* \return Visible magnitude of Pluto.	* \return Visible magnitude of Pluto.
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_pluto_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_pluto_magnitude (double JD);

	/*! \fn double ln_get_pluto_disk (double JD);	/*! \fn double ln_get_pluto_disk (double JD);
	* \brief Calculate the illuminated fraction of Pluto's disk	* \brief Calculate the illuminated fraction of Pluto's disk
	* \ingroup pluto	* \ingroup pluto
	* \return Illuminated fraction of Pluto's disk	* \return Illuminated fraction of Pluto's disk
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_pluto_disk (double JD);	double LIBNOVA_EXPORT ln_get_pluto_disk (double JD);

	/*! \fn double ln_get_pluto_phase (double JD);	/*! \fn double ln_get_pluto_phase (double JD);
	* \brief Calculate the phase angle of Pluto.	* \brief Calculate the phase angle of Pluto.
	* \ingroup pluto	* \ingroup pluto
	* \return Phase angle of Pluto (degrees).	* \return Phase angle of Pluto (degrees).
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_pluto_phase (double JD);	double LIBNOVA_EXPORT ln_get_pluto_phase (double JD);

	/! \fn void ln_get_pluto_rect_helio (double JD, struct ln_rect_posn posi tion)	/! \fn void ln_get_pluto_rect_helio (double JD, struct ln_rect_posn posi tion)
	* \ingroup pluto	* \ingroup pluto
	* \brief Calculate Plutos rectangular heliocentric coordinates.	* \brief Calculate Plutos rectangular heliocentric coordinates.
	*/	*/

	void ln_get_pluto_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_pluto_rect_helio (double JD, struct ln_rect_posn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 11 change blocks.
	11 lines changed or deleted	11 lines changed or added

	precession.h	precession.h

	skipping to change at line 28	skipping to change at line 28

	#ifndef _LN_PRECESSION_H	#ifndef _LN_PRECESSION_H
	#define _LN_PRECESSION_H	#define _LN_PRECESSION_H

	#include <libnova/ln_types.h>	#include <libnova/ln_types.h>

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif


	/*! \defgroup precession Precession.	/*! \defgroup precession Precession
	*	*
	* Precession is the changing direction of the Earth's rotational axis over time and	* Precession is the changing direction of the Earth's rotational axis over time and
	* is due to the gravitational influence of the Sun and the Moon.	* is due to the gravitational influence of the Sun and the Moon.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn void ln_get_equ_prec (struct ln_equ_posn mean_position, double JD , struct ln_equ_posn * position);	/! \fn void ln_get_equ_prec (struct ln_equ_posn mean_position, double JD , struct ln_equ_posn * position);
	* \brief Calculate the effects of precession on equatorial coordinates, con vert current to J2000.	* \brief Calculate the effects of precession on equatorial coordinates, con vert current to J2000.
	* \ingroup precession	* \ingroup precession
	*/	*/

	/* Equ 20.2, 20.3, 20.4 pg 126 */	/* Equ 20.2, 20.3, 20.4 pg 126 */

	void ln_get_equ_prec (struct ln_equ_posn * mean_position, double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_equ_prec (struct ln_equ_posn * mean_position, do uble JD, struct ln_equ_posn * position);

	/! \fn void ln_get_equ_prec2 (struct ln_equ_posn mean_position, double f romJD, double toJD, struct ln_equ_posn * position);	/! \fn void ln_get_equ_prec2 (struct ln_equ_posn mean_position, double f romJD, double toJD, struct ln_equ_posn * position);
	* \brief Calculate the effects of precession on equatorial coordinates, bet ween arbitary Jxxxx epochs.	* \brief Calculate the effects of precession on equatorial coordinates, bet ween arbitary Jxxxx epochs.
	* \ingroup precession	* \ingroup precession
	*/	*/

	/* Equ 20.2, 20.3, 20.4 pg 126 */	/* Equ 20.2, 20.3, 20.4 pg 126 */

	void ln_get_equ_prec2 (struct ln_equ_posn * mean_position, double fromJD, d ouble toJD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_equ_prec2 (struct ln_equ_posn * mean_position, d ouble fromJD, double toJD, struct ln_equ_posn * position);

	/! \fn void ln_get_ecl_prec (struct ln_lnlat_posn mean_position, double JD, struct ln_lnlat_posn * position);	/! \fn void ln_get_ecl_prec (struct ln_lnlat_posn mean_position, double JD, struct ln_lnlat_posn * position);
	* \brief Calculate the effects of precession on ecliptical coordinates.	* \brief Calculate the effects of precession on ecliptical coordinates.
	* \ingroup precession	* \ingroup precession
	*/	*/
	/* Equ 20.5, 20.6 pg 128 */	/* Equ 20.5, 20.6 pg 128 */

	void ln_get_ecl_prec (struct ln_lnlat_posn * mean_position, double JD, stru ct ln_lnlat_posn * position);	void LIBNOVA_EXPORT ln_get_ecl_prec (struct ln_lnlat_posn * mean_position, double JD, struct ln_lnlat_posn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 4 change blocks.
	4 lines changed or deleted	4 lines changed or added

	proper_motion.h	proper_motion.h

	skipping to change at line 28	skipping to change at line 28

	#ifndef _LN_PROPER_MOTION_H	#ifndef _LN_PROPER_MOTION_H
	#define _LN_PROPER_MOTION_H	#define _LN_PROPER_MOTION_H

	#include <libnova/ln_types.h>	#include <libnova/ln_types.h>

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif


	/*! \defgroup motion Proper Motion.	/*! \defgroup motion Proper Motion
	* Proper motion is the motion in space of a star between 2 epochs. It has c omponents	* Proper motion is the motion in space of a star between 2 epochs. It has c omponents
	* in right ascension and in declination.	* in right ascension and in declination.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn void ln_get_equ_pm (struct ln_equ_posn mean_position, struct ln_e qu_posn * proper_motion, double JD, struct ln_equ_posn * position);	/! \fn void ln_get_equ_pm (struct ln_equ_posn mean_position, struct ln_e qu_posn * proper_motion, double JD, struct ln_equ_posn * position);
	* \brief Calculate a stars equatorial position wrt proper motion (J2000).	* \brief Calculate a stars equatorial position wrt proper motion (J2000).
	* \ingroup motion	* \ingroup motion
	*/	*/
	/* Equ 20.2, 20.3, 20.4 pg 126 */	/* Equ 20.2, 20.3, 20.4 pg 126 */

	void ln_get_equ_pm (struct ln_equ_posn * mean_position, struct ln_equ_posn * proper_motion, double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_equ_pm (struct ln_equ_posn * mean_position, stru ct ln_equ_posn * proper_motion, double JD, struct ln_equ_posn * position);

	/! \fn void ln_get_equ_pm_epoch (struct ln_equ_posn mean_position, struc t ln_equ_posn * proper_motion, double JD, double epoch_JD, struct ln_equ_po sn * position)	/! \fn void ln_get_equ_pm_epoch (struct ln_equ_posn mean_position, struc t ln_equ_posn * proper_motion, double JD, double epoch_JD, struct ln_equ_po sn * position)
	* \brief Calculate a stars equatorial position wrt proper motion and epoch.	* \brief Calculate a stars equatorial position wrt proper motion and epoch.
	*/	*/
	/* Equ 20.2, 20.3, 20.4 pg 126	/* Equ 20.2, 20.3, 20.4 pg 126
	*/	*/

	void ln_get_equ_pm_epoch (struct ln_equ_posn * mean_position, struct ln_equ _posn * proper_motion, double JD, double epoch_JD, struct ln_equ_posn * pos ition);	void LIBNOVA_EXPORT ln_get_equ_pm_epoch (struct ln_equ_posn * mean_position , struct ln_equ_posn * proper_motion, double JD, double epoch_JD, struct ln _equ_posn * position);
	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 3 change blocks.
	3 lines changed or deleted	3 lines changed or added

	refraction.h	refraction.h

	skipping to change at line 40	skipping to change at line 40
	* Functions relating to Atmospheric Refraction	* Functions relating to Atmospheric Refraction
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_refraction_adj (double altitude, double atm_pres, dou ble temp)	/*! \fn double ln_get_refraction_adj (double altitude, double atm_pres, dou ble temp)
	* \brief Calculate the adjustment in altitude of a body due to atmospheric	* \brief Calculate the adjustment in altitude of a body due to atmospheric
	* refraction.	* refraction.
	* \ingroup refraction	* \ingroup refraction
	*/	*/

	double ln_get_refraction_adj (double altitude, double atm_pres, double temp );	double LIBNOVA_EXPORT ln_get_refraction_adj (double altitude, double atm_pr es, double temp);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 1 change blocks.
	1 lines changed or deleted	1 lines changed or added

	saturn.h	saturn.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup saturn Saturn	/*! \defgroup saturn Saturn
	*	*
	* Functions relating to the planet Saturn.	* Functions relating to the planet Saturn.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_saturn_equ_sdiam (double JD)	/*! \fn double ln_get_saturn_equ_sdiam (double JD)

	* \brief Calcaluate the equatorial semidiameter of Saturn in arc seconds.	* \brief Calculate the equatorial semidiameter of Saturn in arc seconds.
	* \ingroup saturn	* \ingroup saturn
	*/	*/

	double ln_get_saturn_equ_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_saturn_equ_sdiam (double JD);

	/*! \fn double ln_get_saturn_pol_sdiam (double JD)	/*! \fn double ln_get_saturn_pol_sdiam (double JD)

	* \brief Calcaluate the polar semidiameter of Saturn in arc seconds.	* \brief Calculate the polar semidiameter of Saturn in arc seconds.
	* \ingroup saturn	* \ingroup saturn
	*/	*/

	double ln_get_saturn_pol_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_saturn_pol_sdiam (double JD);

	/! \fn double ln_get_saturn_rst (double JD, struct ln_lnlat_posn observe r, struct ln_rst_time * rst);	/! \fn double ln_get_saturn_rst (double JD, struct ln_lnlat_posn observe r, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Saturn.	* \brief Calculate the time of rise, set and transit for Saturn.
	* \ingroup saturn	* \ingroup saturn
	*/	*/

	int ln_get_saturn_rst (double JD, struct ln_lnlat_posn * observer, struct l n_rst_time * rst);	int LIBNOVA_EXPORT ln_get_saturn_rst (double JD, struct ln_lnlat_posn * obs erver, struct ln_rst_time * rst);

	/! \fn void ln_get_saturn_helio_coords (double JD, struct ln_helio_posn position);	/! \fn void ln_get_saturn_helio_coords (double JD, struct ln_helio_posn position);
	* \brief Calculate Saturn's heliocentric coordinates.	* \brief Calculate Saturn's heliocentric coordinates.
	* \ingroup saturn	* \ingroup saturn
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_saturn_helio_coords (double JD, struct ln_helio_posn * position );	void LIBNOVA_EXPORT ln_get_saturn_helio_coords (double JD, struct ln_helio_ posn * position);

	/! \fn void ln_get_saturn_equ_coords (double JD, struct ln_equ_posn posi tion);	/! \fn void ln_get_saturn_equ_coords (double JD, struct ln_equ_posn posi tion);
	* \brief Calculate Saturn's equatorial coordinates.	* \brief Calculate Saturn's equatorial coordinates.
	* \ingroup saturn	* \ingroup saturn
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_saturn_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_saturn_equ_coords (double JD, struct ln_equ_posn * position);

	/*! \fn double ln_get_saturn_earth_dist (double JD);	/*! \fn double ln_get_saturn_earth_dist (double JD);
	* \brief Calculate the distance between Saturn and the Earth.	* \brief Calculate the distance between Saturn and the Earth.
	* \ingroup saturn	* \ingroup saturn
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_saturn_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_saturn_earth_dist (double JD);

	/*! \fn double ln_get_saturn_solar_dist (double JD);	/*! \fn double ln_get_saturn_solar_dist (double JD);
	* \brief Calculate the distance between Saturn and the Sun.	* \brief Calculate the distance between Saturn and the Sun.
	* \ingroup saturn	* \ingroup saturn
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_saturn_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_saturn_solar_dist (double JD);

	/*! \fn double ln_get_saturn_magnitude (double JD);	/*! \fn double ln_get_saturn_magnitude (double JD);
	* \brief Calculate the visible magnitude of Saturn	* \brief Calculate the visible magnitude of Saturn
	* \ingroup saturn	* \ingroup saturn
	* \return Visible magnitude of Saturn	* \return Visible magnitude of Saturn
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_saturn_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_saturn_magnitude (double JD);

	/*! \fn double ln_get_saturn_disk (double JD);	/*! \fn double ln_get_saturn_disk (double JD);
	* \brief Calculate the illuminated fraction of Saturn's disk	* \brief Calculate the illuminated fraction of Saturn's disk
	* \ingroup saturn	* \ingroup saturn
	* \return Illuminated fraction of Saturn's disk	* \return Illuminated fraction of Saturn's disk
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_saturn_disk (double JD);	double LIBNOVA_EXPORT ln_get_saturn_disk (double JD);

	/*! \fn double ln_get_saturn_phase (double JD);	/*! \fn double ln_get_saturn_phase (double JD);
	* \brief Calculate the phase angle of Saturn.	* \brief Calculate the phase angle of Saturn.
	* \ingroup saturn	* \ingroup saturn
	* \return Phase angle of Saturn (degrees)	* \return Phase angle of Saturn (degrees)
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_saturn_phase (double JD);	double LIBNOVA_EXPORT ln_get_saturn_phase (double JD);

	/! \fn void ln_get_saturn_rect_helio (double JD, struct ln_rect_posn pos ition)	/! \fn void ln_get_saturn_rect_helio (double JD, struct ln_rect_posn pos ition)
	* \ingroup saturns	* \ingroup saturns
	* \brief Calculate Saturns rectangular heliocentric coordinates.	* \brief Calculate Saturns rectangular heliocentric coordinates.
	*/	*/

	void ln_get_saturn_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_saturn_rect_helio (double JD, struct ln_rect_pos n * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 13 change blocks.
	13 lines changed or deleted	13 lines changed or added

	sidereal_time.h	sidereal_time.h

	skipping to change at line 37	skipping to change at line 37

	/*! \defgroup sidereal Sidereal Time	/*! \defgroup sidereal Sidereal Time
	*	*
	* TODO	* TODO
	*/	*/

	/*! \fn ln_double ln_get_mean_sidereal_time (double JD)	/*! \fn ln_double ln_get_mean_sidereal_time (double JD)
	* \brief Calculate mean sidereal time from date.	* \brief Calculate mean sidereal time from date.
	* \ingroup sidereal	* \ingroup sidereal
	*/	*/

	double ln_get_mean_sidereal_time (double JD);	double LIBNOVA_EXPORT ln_get_mean_sidereal_time (double JD);

	/*! \fn ln_get_apparent_sidereal_time (double JD)	/*! \fn ln_get_apparent_sidereal_time (double JD)
	* \brief Calculate apparent sidereal time from date.	* \brief Calculate apparent sidereal time from date.
	* \ingroup sidereal	* \ingroup sidereal
	*/	*/


	double ln_get_apparent_sidereal_time (double JD);	double LIBNOVA_EXPORT ln_get_apparent_sidereal_time (double JD);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 2 change blocks.
	2 lines changed or deleted	2 lines changed or added

	solar.h	solar.h

	skipping to change at line 33	skipping to change at line 33

	#define LN_SOLAR_STANDART_HORIZON -0.8333	#define LN_SOLAR_STANDART_HORIZON -0.8333
	#define LN_SOLAR_CIVIL_HORIZON -6.0	#define LN_SOLAR_CIVIL_HORIZON -6.0
	#define LN_SOLAR_NAUTIC_HORIZON -12.0	#define LN_SOLAR_NAUTIC_HORIZON -12.0
	#define LN_SOLAR_ASTRONOMICAL_HORIZON -18.0	#define LN_SOLAR_ASTRONOMICAL_HORIZON -18.0

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif


	/*! \defgroup solar Solar.	/*! \defgroup solar Solar
	*	*
	* Calculate solar ecliptical/equatorial coordinates for a given julian date .	* Calculate solar ecliptical/equatorial coordinates for a given julian date .
	* Accuracy 0.01 arc second error - uses VSOP87 solution.	* Accuracy 0.01 arc second error - uses VSOP87 solution.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn int ln_get_solar_rst_horizon (double JD, struct ln_lnlat_posn obs erver, double horizon, struct ln_rst_time *rst);	/! \fn int ln_get_solar_rst_horizon (double JD, struct ln_lnlat_posn obs erver, double horizon, struct ln_rst_time *rst);
	* \brief Return solar rise/set time over local horizon (specified in degree s).	* \brief Return solar rise/set time over local horizon (specified in degree s).
	* \ingroup solar	* \ingroup solar
	*/	*/

	int ln_get_solar_rst_horizon (double JD, struct ln_lnlat_posn * observer, d ouble horizon, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_solar_rst_horizon (double JD, struct ln_lnlat_pos n * observer, double horizon, struct ln_rst_time * rst);

	/! \fn int ln_get_solar_rst (double JD, struct ln_lnlat_posn observer, s truct ln_rst_time * rst);	/! \fn int ln_get_solar_rst (double JD, struct ln_lnlat_posn observer, s truct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for the Sun.	* \brief Calculate the time of rise, set and transit for the Sun.
	* \ingroup solar	* \ingroup solar
	*/	*/

	int ln_get_solar_rst (double JD, struct ln_lnlat_posn * observer, struct ln _rst_time * rst);	int LIBNOVA_EXPORT ln_get_solar_rst (double JD, struct ln_lnlat_posn * obse rver, struct ln_rst_time * rst);

	/! \fn void ln_get_solar_geom_coords (double JD, struct ln_helio_posn po sition);	/! \fn void ln_get_solar_geom_coords (double JD, struct ln_helio_posn po sition);
	* \brief Calculate solar geometric coordinates.	* \brief Calculate solar geometric coordinates.
	* \ingroup solar	* \ingroup solar
	*/	*/

	void ln_get_solar_geom_coords (double JD, struct ln_helio_posn * position);	void LIBNOVA_EXPORT ln_get_solar_geom_coords (double JD, struct ln_helio_po sn * position);

	/! \fn void ln_get_solar_equ_coords (double JD, struct ln_equ_posn posit ion);	/! \fn void ln_get_solar_equ_coords (double JD, struct ln_equ_posn posit ion);
	* \brief Calculate apparent equatorial coordinates.	* \brief Calculate apparent equatorial coordinates.
	* \ingroup solar	* \ingroup solar
	*/	*/

	void ln_get_solar_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_solar_equ_coords (double JD, struct ln_equ_posn * position);

	/! \fn void ln_get_solar_ecl_coords (double JD, struct ln_lnlat_posn pos ition);	/! \fn void ln_get_solar_ecl_coords (double JD, struct ln_lnlat_posn pos ition);
	* \brief Calculate apparent ecliptical coordinates.	* \brief Calculate apparent ecliptical coordinates.
	* \ingroup solar	* \ingroup solar
	*/	*/

	void ln_get_solar_ecl_coords (double JD, struct ln_lnlat_posn * position);	void LIBNOVA_EXPORT ln_get_solar_ecl_coords (double JD, struct ln_lnlat_pos n * position);

	/! \fn void ln_get_solar_geo_coords (double JD, struct ln_rect_posn posi tion)	/! \fn void ln_get_solar_geo_coords (double JD, struct ln_rect_posn posi tion)
	* \brief Calculate geocentric coordinates (rectangular)	* \brief Calculate geocentric coordinates (rectangular)
	* \ingroup solar	* \ingroup solar
	*/	*/

	void ln_get_solar_geo_coords (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_solar_geo_coords (double JD, struct ln_rect_posn * position);

	/*! \fn double ln_get_solar_sdiam (double JD)	/*! \fn double ln_get_solar_sdiam (double JD)

	* \brief Calcaluate the semidiameter of the Sun in arc seconds.	* \brief Calculate the semidiameter of the Sun in arc seconds.
	* \ingroup solar	* \ingroup solar
	*/	*/

	double ln_get_solar_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_solar_sdiam (double JD);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 9 change blocks.
	9 lines changed or deleted	9 lines changed or added

	transform.h	transform.h

	skipping to change at line 38	skipping to change at line 38
	/*! \defgroup transform Transformation of Coordinates	/*! \defgroup transform Transformation of Coordinates
	*	*
	* Transformations from one coordinate system to another.	* Transformations from one coordinate system to another.
	*/	*/

	/! \fn void ln_get_hrz_from_equ (struct ln_equ_posn object, struct ln_ln lat_posn * observer, double JD, struct ln_hrz_posn *position);	/! \fn void ln_get_hrz_from_equ (struct ln_equ_posn object, struct ln_ln lat_posn * observer, double JD, struct ln_hrz_posn *position);
	* \brief Calculate horizontal coordinates from equatorial coordinates	* \brief Calculate horizontal coordinates from equatorial coordinates
	* \ingroup transform	* \ingroup transform
	*/	*/
	/* Use get_mean_sidereal_time, get_hrz_from_equ_siderealtime */	/* Use get_mean_sidereal_time, get_hrz_from_equ_siderealtime */

	void ln_get_hrz_from_equ (struct ln_equ_posn * object, struct ln_lnlat_posn * observer, double JD, struct ln_hrz_posn *position);	void LIBNOVA_EXPORT ln_get_hrz_from_equ (struct ln_equ_posn * object, struc t ln_lnlat_posn * observer, double JD, struct ln_hrz_posn *position);

	/! \fn void ln_get_hrz_from_equ_sidereal_time (struct ln_equ_posn object , struct ln_lnlat_posn * observer, double sidereal_time, struct ln_hrz_posn *position);	/! \fn void ln_get_hrz_from_equ_sidereal_time (struct ln_equ_posn object , struct ln_lnlat_posn * observer, double sidereal_time, struct ln_hrz_posn *position);
	* \brief Calculate horizontal coordinates from equatorial coordinates,	* \brief Calculate horizontal coordinates from equatorial coordinates,
	* using mean sidereal time.	* using mean sidereal time.
	* \ingroup transform	* \ingroup transform
	*/	*/
	/* Equ 12.5,12.6 pg 88 */	/* Equ 12.5,12.6 pg 88 */

	void ln_get_hrz_from_equ_sidereal_time (struct ln_equ_posn * object, struct ln_lnlat_posn * observer, double sidereal, struct ln_hrz_posn *position);	void LIBNOVA_EXPORT ln_get_hrz_from_equ_sidereal_time (struct ln_equ_posn * object, struct ln_lnlat_posn * observer, double sidereal, struct ln_hrz_po sn *position);

	/! \fn void ln_get_equ_from_ecl (struct ln_lnlat_posn object, double JD, struct ln_equ_posn * position);	/! \fn void ln_get_equ_from_ecl (struct ln_lnlat_posn object, double JD, struct ln_equ_posn * position);
	* \brief Calculate equatorial coordinates from ecliptical coordinates	* \brief Calculate equatorial coordinates from ecliptical coordinates
	* \ingroup transform	* \ingroup transform
	*/	*/
	/* Equ 12.3, 12.4 pg 89 */	/* Equ 12.3, 12.4 pg 89 */

	void ln_get_equ_from_ecl (struct ln_lnlat_posn * object, double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_equ_from_ecl (struct ln_lnlat_posn * object, dou ble JD, struct ln_equ_posn * position);

	/! \fn void ln_get_ecl_from_equ (struct ln_equ_posn object, double JD, s truct ln_lnlat_posn * position);	/! \fn void ln_get_ecl_from_equ (struct ln_equ_posn object, double JD, s truct ln_lnlat_posn * position);

	* \brief Calculate ecliptical cordinates from equatorial coordinates	* \brief Calculate ecliptical coordinates from equatorial coordinates
	* \ingroup transform	* \ingroup transform
	*/	*/
	/* Equ 12.1, 12.2 Pg 88 */	/* Equ 12.1, 12.2 Pg 88 */

	void ln_get_ecl_from_equ (struct ln_equ_posn * object, double JD, struct ln _lnlat_posn * position);	void LIBNOVA_EXPORT ln_get_ecl_from_equ (struct ln_equ_posn * object, doubl e JD, struct ln_lnlat_posn * position);

	/! \fn void ln_get_equ_from_hrz (struct ln_hrz_posn object, struct ln_lnl at_posn * observer, double JD, struct ln_equ_posn * position);	/! \fn void ln_get_equ_from_hrz (struct ln_hrz_posn object, struct ln_lnl at_posn * observer, double JD, struct ln_equ_posn * position);
	* \brief Calculate equatorial coordinates from horizontal coordinates	* \brief Calculate equatorial coordinates from horizontal coordinates
	* \ingroup transform	* \ingroup transform
	*/	*/
	/* Pg 89 */	/* Pg 89 */

	void ln_get_equ_from_hrz (struct ln_hrz_posn object, struct ln_lnlat_posn observer, double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_equ_from_hrz (struct ln_hrz_posn object, struct ln_lnlat_posn observer, double JD, struct ln_equ_posn * position);

	/! \fn void ln_get_rect_from_helio (struct ln_helio_posn object, struct l n_rect_posn * position);	/! \fn void ln_get_rect_from_helio (struct ln_helio_posn object, struct l n_rect_posn * position);
	* \brief Calculate geocentric coordinates from heliocentric coordinates	* \brief Calculate geocentric coordinates from heliocentric coordinates
	* \ingroup transform	* \ingroup transform
	*/	*/
	/* Pg ?? */	/* Pg ?? */

	void ln_get_rect_from_helio (struct ln_helio_posn object, struct ln_rect_p osn position);	void LIBNOVA_EXPORT ln_get_rect_from_helio (struct ln_helio_posn object, s truct ln_rect_posn position);

	/! \fn void ln_get_ecl_from_rect (struct ln_rect_posn rect, struct ln_ln lat_posn * posn)	/! \fn void ln_get_ecl_from_rect (struct ln_rect_posn rect, struct ln_ln lat_posn * posn)
	* \ingroup transform	* \ingroup transform
	* \brief Transform an objects rectangular coordinates into ecliptical coord inates.	* \brief Transform an objects rectangular coordinates into ecliptical coord inates.
	*/	*/
	/* Equ 33.2	/* Equ 33.2
	*/	*/

	void ln_get_ecl_from_rect (struct ln_rect_posn * rect, struct ln_lnlat_posn * posn);	void LIBNOVA_EXPORT ln_get_ecl_from_rect (struct ln_rect_posn * rect, struc t ln_lnlat_posn * posn);

	/! \fn void ln_get_equ_from_gal (struct ln_gal_posn gal, struct ln_equ_po sn *equ)	/! \fn void ln_get_equ_from_gal (struct ln_gal_posn gal, struct ln_equ_po sn *equ)
	* \ingroup transform	* \ingroup transform
	* \brief Transform an object galactic coordinates into equatorial coordinat es.	* \brief Transform an object galactic coordinates into equatorial coordinat es.
	*/	*/
	/* Pg 94 */	/* Pg 94 */

	void ln_get_equ_from_gal (struct ln_gal_posn gal, struct ln_equ_posn equ) ;	void LIBNOVA_EXPORT ln_get_equ_from_gal (struct ln_gal_posn gal, struct ln _equ_posn equ);

	/! \fn void ln_get_equ2000_from_gal (struct ln_gal_posn gal, struct ln_eq u_posn *equ)	/! \fn void ln_get_equ2000_from_gal (struct ln_gal_posn gal, struct ln_eq u_posn *equ)
	* \ingroup transform	* \ingroup transform
	* \brief Transform an object galactic coordinate into J2000 equatorial coor dinates.	* \brief Transform an object galactic coordinate into J2000 equatorial coor dinates.
	*/	*/

	void ln_get_equ2000_from_gal (struct ln_gal_posn gal, struct ln_equ_posn equ);	void LIBNOVA_EXPORT ln_get_equ2000_from_gal (struct ln_gal_posn gal, struc t ln_equ_posn equ);

	/! \fn void ln_get_gal_from_equ (struct ln_equ_posn equ, struct ln_gal_po sn *gal)	/! \fn void ln_get_gal_from_equ (struct ln_equ_posn equ, struct ln_gal_po sn *gal)
	* \ingroup transform	* \ingroup transform
	* \brief Transform an object equatorial coordinates into galactic coordinat es.	* \brief Transform an object equatorial coordinates into galactic coordinat es.
	*/	*/
	/* Pg 94 */	/* Pg 94 */

	void ln_get_gal_from_equ (struct ln_equ_posn equ, struct ln_gal_posn gal) ;	void LIBNOVA_EXPORT ln_get_gal_from_equ (struct ln_equ_posn equ, struct ln _gal_posn gal);

	/! \fn void ln_get_gal_from_equ2000 (struct ln_equ_posn equ, struct ln_ga l_posn *gal)	/! \fn void ln_get_gal_from_equ2000 (struct ln_equ_posn equ, struct ln_ga l_posn *gal)
	* \ingroup transform	* \ingroup transform
	* \brief Transform an object J2000 equatorial coordinates into galactic coo rdinates.	* \brief Transform an object J2000 equatorial coordinates into galactic coo rdinates.
	*/	*/

	void ln_get_gal_from_equ2000 (struct ln_equ_posn equ, struct ln_gal_posn gal);	void LIBNOVA_EXPORT ln_get_gal_from_equ2000 (struct ln_equ_posn equ, struc t ln_gal_posn gal);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 12 change blocks.
	12 lines changed or deleted	12 lines changed or added

	uranus.h	uranus.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup uranus Uranus	/*! \defgroup uranus Uranus
	*	*
	* Functions relating to the planet Uranus.	* Functions relating to the planet Uranus.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_uranus_sdiam (double JD)	/*! \fn double ln_get_uranus_sdiam (double JD)

	* \brief Calcaluate the semidiameter of Uranus in arc seconds.	* \brief Calculate the semidiameter of Uranus in arc seconds.
	* \ingroup uranus	* \ingroup uranus
	*/	*/

	double ln_get_uranus_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_uranus_sdiam (double JD);

	/! \fn double ln_get_uranus_rst (double JD, struct ln_lnlat_posn observe r, struct ln_rst_time * rst);	/! \fn double ln_get_uranus_rst (double JD, struct ln_lnlat_posn observe r, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Uranus.	* \brief Calculate the time of rise, set and transit for Uranus.
	* \ingroup uranus	* \ingroup uranus
	*/	*/

	int ln_get_uranus_rst (double JD, struct ln_lnlat_posn * observer, struct l n_rst_time * rst);	int LIBNOVA_EXPORT ln_get_uranus_rst (double JD, struct ln_lnlat_posn * obs erver, struct ln_rst_time * rst);

	/! \fn void ln_get_uranus_helio_coords (double JD, struct ln_helio_posn position);	/! \fn void ln_get_uranus_helio_coords (double JD, struct ln_helio_posn position);
	* \brief Calculate Uranus heliocentric coordinates	* \brief Calculate Uranus heliocentric coordinates
	* \ingroup uranus	* \ingroup uranus
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_uranus_helio_coords (double JD, struct ln_helio_posn * position );	void LIBNOVA_EXPORT ln_get_uranus_helio_coords (double JD, struct ln_helio_ posn * position);

	/! \fn void ln_get_uranus_equ_coords (double JD, struct ln_equ_posn posi tion);	/! \fn void ln_get_uranus_equ_coords (double JD, struct ln_equ_posn posi tion);
	* \brief Calculate Uranus equatorial coordinates.	* \brief Calculate Uranus equatorial coordinates.
	* \ingroup uranus	* \ingroup uranus
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_uranus_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_uranus_equ_coords (double JD, struct ln_equ_posn * position);

	/*! \fn double ln_get_uranus_earth_dist (double JD);	/*! \fn double ln_get_uranus_earth_dist (double JD);
	* \brief Calculate the distance between Uranus and the Earth.	* \brief Calculate the distance between Uranus and the Earth.
	* \ingroup uranus	* \ingroup uranus
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_uranus_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_uranus_earth_dist (double JD);

	/*! \fn double ln_get_uranus_solar_dist (double JD);	/*! \fn double ln_get_uranus_solar_dist (double JD);
	* \brief Calculate the distance between Uranus and the Sun.	* \brief Calculate the distance between Uranus and the Sun.
	* \ingroup uranus	* \ingroup uranus
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_uranus_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_uranus_solar_dist (double JD);

	/*! \fn double ln_get_uranus_magnitude (double JD);	/*! \fn double ln_get_uranus_magnitude (double JD);
	* \brief Calculate the visible magnitude of Uranus	* \brief Calculate the visible magnitude of Uranus
	* \ingroup uranus	* \ingroup uranus
	* \return Visible magnitude of Uranus	* \return Visible magnitude of Uranus
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_uranus_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_uranus_magnitude (double JD);

	/*! \fn double ln_get_uranus_disk (double JD);	/*! \fn double ln_get_uranus_disk (double JD);
	* \brief Calculate the illuminated fraction of Uranus's disk	* \brief Calculate the illuminated fraction of Uranus's disk
	* \ingroup uranus	* \ingroup uranus
	* \return Illuminated fraction of Uranus disk	* \return Illuminated fraction of Uranus disk
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_uranus_disk (double JD);	double LIBNOVA_EXPORT ln_get_uranus_disk (double JD);

	/*! \fn double ln_get_uranus_phase (double JD);	/*! \fn double ln_get_uranus_phase (double JD);
	* \brief Calculate the phase angle of Uranus.	* \brief Calculate the phase angle of Uranus.
	* \ingroup uranus	* \ingroup uranus
	* \return Phase angle of Uranus (degrees)	* \return Phase angle of Uranus (degrees)
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_uranus_phase (double JD);	double LIBNOVA_EXPORT ln_get_uranus_phase (double JD);

	/! \fn void ln_get_uranus_rect_helio (double JD, struct ln_rect_posn pos ition)	/! \fn void ln_get_uranus_rect_helio (double JD, struct ln_rect_posn pos ition)
	* \ingroup uranus	* \ingroup uranus
	* \brief Calculate Uranus rectangular heliocentric coordinates.	* \brief Calculate Uranus rectangular heliocentric coordinates.
	*/	*/

	void ln_get_uranus_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_uranus_rect_helio (double JD, struct ln_rect_pos n * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 11 change blocks.
	11 lines changed or deleted	11 lines changed or added

	utility.h	utility.h

	skipping to change at line 36	skipping to change at line 36
	// cbrt replacement	// cbrt replacement
	#define cbrt(x) pow (x,1.0/3.0)	#define cbrt(x) pow (x,1.0/3.0)
	// nan	// nan
	#define nan(x) 0	#define nan(x) 0
	#endif	#endif

	#ifdef __cplusplus	#ifdef __cplusplus
	extern "C" {	extern "C" {
	#endif	#endif


	/*! \defgroup version Libnova library version information	/*! \defgroup version libnova library version information
	*/	*/

	/! \fn const char ln_get_version (void)	/! \fn const char ln_get_version (void)
	* \brief Library Version Number	* \brief Library Version Number
	* \ingroup version	* \ingroup version
	*/	*/

	const char * ln_get_version (void);	const char LIBNOVA_EXPORT * ln_get_version (void);

	/*! \defgroup misc Misc. Functions	/*! \defgroup misc Misc. Functions
	*	*
	* Misc functions.	* Misc functions.
	*/	*/

	/! \fn double ln_get_dec_location(char s)	/! \fn double ln_get_dec_location(char s)
	* \ingroup misc	* \ingroup misc
	* \brief Obtains Latitude, Longitude, RA or Declination from a string.	* \brief Obtains Latitude, Longitude, RA or Declination from a string.
	*/	*/

	double ln_get_dec_location(char *s);	double LIBNOVA_EXPORT ln_get_dec_location(char *s);

	/! \fn char ln_get_humanr_location(double location)	/! \fn char ln_get_humanr_location(double location)
	* \ingroup misc	* \ingroup misc
	* \brief Obtains a human readable location in the form: ddºmm'ss.ss"	* \brief Obtains a human readable location in the form: ddºmm'ss.ss"
	*/	*/

	const char * ln_get_humanr_location(double location);	const char LIBNOVA_EXPORT * ln_get_humanr_location(double location);

	/*	/*
	* \fn double ln_get_rect_distance (struct ln_rect_posn * a, struct ln_rect_ posn * b)	* \fn double ln_get_rect_distance (struct ln_rect_posn * a, struct ln_rect_ posn * b)
	* \ingroup misc	* \ingroup misc
	*/	*/

	double ln_get_rect_distance (struct ln_rect_posn * a, struct ln_rect_posn * b);	double LIBNOVA_EXPORT ln_get_rect_distance (struct ln_rect_posn * a, struct ln_rect_posn * b);

	/*! \defgroup conversion General Conversion Functions	/*! \defgroup conversion General Conversion Functions
	*	*
	* Conversion from one libnova type to another.	* Conversion from one libnova type to another.
	*/	*/

	/*! \fn double ln_rad_to_deg (double radians)	/*! \fn double ln_rad_to_deg (double radians)
	* \brief radians to degrees	* \brief radians to degrees
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_rad_to_deg (double radians);	double LIBNOVA_EXPORT ln_rad_to_deg (double radians);

	/*! \fn double ln_deg_to_rad (double radians)	/*! \fn double ln_deg_to_rad (double radians)
	* \brief degrees to radians	* \brief degrees to radians
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_deg_to_rad (double degrees);	double LIBNOVA_EXPORT ln_deg_to_rad (double degrees);

	/! \fn double ln_hms_to_deg (struct ln_hms hms)	/! \fn double ln_hms_to_deg (struct ln_hms hms)
	* \brief hours to degrees	* \brief hours to degrees
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_hms_to_deg (struct ln_hms * hms);	double LIBNOVA_EXPORT ln_hms_to_deg (struct ln_hms * hms);

	/! \fn void ln_deg_to_hms (double degrees, struct ln_hms hms)	/! \fn void ln_deg_to_hms (double degrees, struct ln_hms hms)
	* \brief degrees to hours	* \brief degrees to hours
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_deg_to_hms (double degrees, struct ln_hms * hms);	void LIBNOVA_EXPORT ln_deg_to_hms (double degrees, struct ln_hms * hms);

	/! \fn double ln_hms_to_rad (struct ln_hms hms)	/! \fn double ln_hms_to_rad (struct ln_hms hms)
	* \brief hours to radians.	* \brief hours to radians.
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_hms_to_rad (struct ln_hms * hms);	double LIBNOVA_EXPORT ln_hms_to_rad (struct ln_hms * hms);

	/! \fn void ln_deg_to_hms (double radians, struct ln_hms hms)	/! \fn void ln_deg_to_hms (double radians, struct ln_hms hms)
	* \brief radians to hours	* \brief radians to hours
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_rad_to_hms (double radians, struct ln_hms * hms);	void LIBNOVA_EXPORT ln_rad_to_hms (double radians, struct ln_hms * hms);

	/! \fn double ln_dms_to_deg (struct ln_dms dms)	/! \fn double ln_dms_to_deg (struct ln_dms dms)
	* \brief dms to degrees	* \brief dms to degrees
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_dms_to_deg (struct ln_dms * dms);	double LIBNOVA_EXPORT ln_dms_to_deg (struct ln_dms * dms);

	/! \fn void ln_deg_to_dms (double degrees, struct ln_dms dms)	/! \fn void ln_deg_to_dms (double degrees, struct ln_dms dms)
	* \brief degrees to dms	* \brief degrees to dms
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_deg_to_dms (double degrees, struct ln_dms * dms);	void LIBNOVA_EXPORT ln_deg_to_dms (double degrees, struct ln_dms * dms);

	/! \fn double ln_dms_to_rad (struct ln_dms dms)	/! \fn double ln_dms_to_rad (struct ln_dms dms)
	* \brief dms to radians	* \brief dms to radians
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_dms_to_rad (struct ln_dms * dms);	double LIBNOVA_EXPORT ln_dms_to_rad (struct ln_dms * dms);

	/! \fn void ln_rad_to_dms (double radians, struct ln_dms dms)	/! \fn void ln_rad_to_dms (double radians, struct ln_dms dms)
	* \brief radians to dms	* \brief radians to dms
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_rad_to_dms (double radians, struct ln_dms * dms);	void LIBNOVA_EXPORT ln_rad_to_dms (double radians, struct ln_dms * dms);

	/! \fn void ln_hequ_to_equ (struct lnh_equ_posn hpos, struct ln_equ_posn * pos)	/! \fn void ln_hequ_to_equ (struct lnh_equ_posn hpos, struct ln_equ_posn * pos)
	* \brief human readable equatorial position to double equatorial position	* \brief human readable equatorial position to double equatorial position
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_hequ_to_equ (struct lnh_equ_posn * hpos, struct ln_equ_posn * pos);	void LIBNOVA_EXPORT ln_hequ_to_equ (struct lnh_equ_posn * hpos, struct ln_e qu_posn * pos);

	/! \fn void ln_equ_to_hequ (struct ln_equ_posn pos, struct lnh_equ_posn * hpos)	/! \fn void ln_equ_to_hequ (struct ln_equ_posn pos, struct lnh_equ_posn * hpos)
	* \brief human double equatorial position to human readable equatorial posi tion	* \brief human double equatorial position to human readable equatorial posi tion
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_equ_to_hequ (struct ln_equ_posn * pos, struct lnh_equ_posn * hpos);	void LIBNOVA_EXPORT ln_equ_to_hequ (struct ln_equ_posn * pos, struct lnh_eq u_posn * hpos);

	/! \fn void ln_hhrz_to_hrz (struct lnh_hrz_posn hpos, struct ln_hrz_posn * pos)	/! \fn void ln_hhrz_to_hrz (struct lnh_hrz_posn hpos, struct ln_hrz_posn * pos)
	* \brief human readable horizontal position to double horizontal position	* \brief human readable horizontal position to double horizontal position
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_hhrz_to_hrz (struct lnh_hrz_posn * hpos, struct ln_hrz_posn * pos);	void LIBNOVA_EXPORT ln_hhrz_to_hrz (struct lnh_hrz_posn * hpos, struct ln_h rz_posn * pos);

	/! \fn void ln_hrz_to_hhrz (struct ln_hrz_posn pos, struct lnh_hrz_posn * hpos)	/! \fn void ln_hrz_to_hhrz (struct ln_hrz_posn pos, struct lnh_hrz_posn * hpos)
	* \brief double horizontal position to human readable horizontal position	* \brief double horizontal position to human readable horizontal position
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_hrz_to_hhrz (struct ln_hrz_posn * pos, struct lnh_hrz_posn * hpos);	void LIBNOVA_EXPORT ln_hrz_to_hhrz (struct ln_hrz_posn * pos, struct lnh_hr z_posn * hpos);

	/! \fn const char ln_hrz_to_nswe (struct ln_hrz_posn * pos);	/! \fn const char ln_hrz_to_nswe (struct ln_hrz_posn * pos);

	* \brief returns direction of given azimut - like N,S,W,E,NSW,...	* \brief returns direction of given azimuth - like N,S,W,E,NSW,...
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	const char * ln_hrz_to_nswe (struct ln_hrz_posn * pos);	const char LIBNOVA_EXPORT * ln_hrz_to_nswe (struct ln_hrz_posn * pos);

	/! \fn void ln_hlnlat_to_lnlat (struct lnh_lnlat_posn hpos, struct ln_ln lat_posn * pos)	/! \fn void ln_hlnlat_to_lnlat (struct lnh_lnlat_posn hpos, struct ln_ln lat_posn * pos)
	* \brief human readable long/lat position to double long/lat position	* \brief human readable long/lat position to double long/lat position
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_hlnlat_to_lnlat (struct lnh_lnlat_posn * hpos, struct ln_lnlat_posn * pos);	void LIBNOVA_EXPORT ln_hlnlat_to_lnlat (struct lnh_lnlat_posn * hpos, struc t ln_lnlat_posn * pos);

	/! \fn void ln_lnlat_to_hlnlat (struct ln_lnlat_posn pos, struct lnh_lnl at_posn * hpos)	/! \fn void ln_lnlat_to_hlnlat (struct ln_lnlat_posn pos, struct lnh_lnl at_posn * hpos)
	* \brief double long/lat position to human readable long/lat position	* \brief double long/lat position to human readable long/lat position
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_lnlat_to_hlnlat (struct ln_lnlat_posn * pos, struct lnh_lnlat_posn * hpos);	void LIBNOVA_EXPORT ln_lnlat_to_hlnlat (struct ln_lnlat_posn * pos, struct lnh_lnlat_posn * hpos);

	/! \fn void ln_add_secs_hms (struct ln_hms hms, double seconds)	/! \fn void ln_add_secs_hms (struct ln_hms hms, double seconds)
	* \brief add seconds to hms	* \brief add seconds to hms
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_add_secs_hms (struct ln_hms * hms, double seconds);	void LIBNOVA_EXPORT ln_add_secs_hms (struct ln_hms * hms, double seconds);

	/! \fn void ln_add_hms (struct ln_hms source, struct ln_hms * dest)	/! \fn void ln_add_hms (struct ln_hms source, struct ln_hms * dest)
	* \brief add hms to hms	* \brief add hms to hms
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	void ln_add_hms (struct ln_hms * source, struct ln_hms * dest);	void LIBNOVA_EXPORT ln_add_hms (struct ln_hms * source, struct ln_hms * des t);

	/*! \fn void ln_range_degrees (double angle)	/*! \fn void ln_range_degrees (double angle)
	* \brief puts a large angle in the correct range 0 - 360 degrees	* \brief puts a large angle in the correct range 0 - 360 degrees
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_range_degrees (double angle);	double LIBNOVA_EXPORT ln_range_degrees (double angle);

	/*! \fn void ln_range_radians (double angle)	/*! \fn void ln_range_radians (double angle)
	* \brief puts a large angle in the correct range 0 - 2PI radians	* \brief puts a large angle in the correct range 0 - 2PI radians
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_range_radians (double angle);	double LIBNOVA_EXPORT ln_range_radians (double angle);
	double ln_range_radians2 (double angle);	double LIBNOVA_EXPORT ln_range_radians2 (double angle);

	/*	/*
	* \fn double ln_get_light_time (double dist)	* \fn double ln_get_light_time (double dist)
	* \brief Convert units of AU into light days.	* \brief Convert units of AU into light days.
	* \ingroup conversion	* \ingroup conversion
	*/	*/

	double ln_get_light_time (double dist);	double LIBNOVA_EXPORT ln_get_light_time (double dist);

	/*! \fn double ln_interpolate3 (double n, double y1, double y2, double y3)	/*! \fn double ln_interpolate3 (double n, double y1, double y2, double y3)
	* \ingroup misc	* \ingroup misc
	* \brief Calculate an intermediate value of the 3 arguments.	* \brief Calculate an intermediate value of the 3 arguments.
	*/	*/

	double ln_interpolate3 (double n, double y1, double y2, double y3);	double LIBNOVA_EXPORT ln_interpolate3 (double n, double y1, double y2, doub le y3);

	/*! \fn double ln_interpolate5 (double n, double y1, double y2, double y3, double y4, double y5)	/*! \fn double ln_interpolate5 (double n, double y1, double y2, double y3, double y4, double y5)
	* \ingroup misc	* \ingroup misc
	* \brief Calculate an intermediate value of the 5 arguments.	* \brief Calculate an intermediate value of the 5 arguments.
	*/	*/

	double ln_interpolate5 (double n, double y1, double y2, double y3, double y 4, double y5);	double LIBNOVA_EXPORT ln_interpolate5 (double n, double y1, double y2, doub le y3, double y4, double y5);

	#ifdef __WIN32__	#ifdef __WIN32__

	/* Catches calls to the POSIX gmtime_r and converts them to a related WIN32 version. */	/* Catches calls to the POSIX gmtime_r and converts them to a related WIN32 version. */
	struct tm gmtime_r (time_t t, struct tm *gmt);	struct tm gmtime_r (time_t t, struct tm *gmt);

	/* Catches calls to the POSIX gettimeofday and converts them to a related W IN32 version. */	/* Catches calls to the POSIX gettimeofday and converts them to a related W IN32 version. */
	int gettimeofday(struct timeval tp, struct timezone tzp);	int gettimeofday(struct timeval tp, struct timezone tzp);

	/* Catches calls to the POSIX strtok_r and converts them to a related WIN32 version. */	/* Catches calls to the POSIX strtok_r and converts them to a related WIN32 version. */

End of changes. 30 change blocks.
	31 lines changed or deleted	31 lines changed or added

	venus.h	venus.h

	skipping to change at line 36	skipping to change at line 36
	#endif	#endif

	/*! \defgroup venus Venus	/*! \defgroup venus Venus
	*	*
	* Functions relating to the planet Venus.	* Functions relating to the planet Venus.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_get_venus_sdiam (double JD)	/*! \fn double ln_get_venus_sdiam (double JD)

	* \brief Calcaluate the semidiameter of Venus in arc seconds.	* \brief Calculate the semidiameter of Venus in arc seconds.
	* \ingroup venus	* \ingroup venus
	*/	*/

	double ln_get_venus_sdiam (double JD);	double LIBNOVA_EXPORT ln_get_venus_sdiam (double JD);

	/! \fn double ln_get_venus_rst (double JD, struct ln_lnlat_posn observer , struct ln_rst_time * rst);	/! \fn double ln_get_venus_rst (double JD, struct ln_lnlat_posn observer , struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for Venus.	* \brief Calculate the time of rise, set and transit for Venus.
	* \ingroup venus	* \ingroup venus
	*/	*/

	int ln_get_venus_rst (double JD, struct ln_lnlat_posn * observer, struct ln _rst_time * rst);	int LIBNOVA_EXPORT ln_get_venus_rst (double JD, struct ln_lnlat_posn * obse rver, struct ln_rst_time * rst);

	/! \fn void ln_get_venus_helio_coords (double JD, struct ln_helio_posn p osition);	/! \fn void ln_get_venus_helio_coords (double JD, struct ln_helio_posn p osition);

	* \brief Calvulate Venus heliocentric coordinates	* \brief Calculate Venus heliocentric coordinates
	* \ingroup venus	* \ingroup venus
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_venus_helio_coords (double JD, struct ln_helio_posn * position) ;	void LIBNOVA_EXPORT ln_get_venus_helio_coords (double JD, struct ln_helio_p osn * position);

	/! \fn void ln_get_venus_equ_coords (double JD, struct ln_equ_posn posit ion);	/! \fn void ln_get_venus_equ_coords (double JD, struct ln_equ_posn posit ion);
	* \brief Calculate Venus equatorial coordinates	* \brief Calculate Venus equatorial coordinates
	* \ingroup venus	* \ingroup venus
	*/	*/
	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */	/* Chapter 31 Pg 206-207 Equ 31.1 31.2 , 31.3 using VSOP 87 */

	void ln_get_venus_equ_coords (double JD, struct ln_equ_posn * position);	void LIBNOVA_EXPORT ln_get_venus_equ_coords (double JD, struct ln_equ_posn * position);

	/*! \fn double ln_get_venus_earth_dist (double JD);	/*! \fn double ln_get_venus_earth_dist (double JD);
	* \brief Calculate the distance between Venus and the Earth.	* \brief Calculate the distance between Venus and the Earth.
	* \ingroup venus	* \ingroup venus
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_venus_earth_dist (double JD);	double LIBNOVA_EXPORT ln_get_venus_earth_dist (double JD);

	/*! \fn double ln_get_venus_solar_dist (double JD);	/*! \fn double ln_get_venus_solar_dist (double JD);
	* \brief Calculate the distance between Venus and the Sun.	* \brief Calculate the distance between Venus and the Sun.
	* \ingroup venus	* \ingroup venus
	* \return Distance in AU	* \return Distance in AU
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_venus_solar_dist (double JD);	double LIBNOVA_EXPORT ln_get_venus_solar_dist (double JD);

	/*! \fn double ln_get_venus_magnitude (double JD);	/*! \fn double ln_get_venus_magnitude (double JD);
	* \brief Calculate the visible magnitude of Venus	* \brief Calculate the visible magnitude of Venus
	* \ingroup venus	* \ingroup venus
	* \return Visible magnitude of Venus	* \return Visible magnitude of Venus
	*/	*/
	/* Chapter ?? */	/* Chapter ?? */

	double ln_get_venus_magnitude (double JD);	double LIBNOVA_EXPORT ln_get_venus_magnitude (double JD);

	/*! \fn double ln_get_venus_disk (double JD);	/*! \fn double ln_get_venus_disk (double JD);
	* \brief Calculate the illuminated fraction of Venus disk	* \brief Calculate the illuminated fraction of Venus disk
	* \ingroup venus	* \ingroup venus
	* \return Illuminated fraction of Venus disk	* \return Illuminated fraction of Venus disk
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_venus_disk (double JD);	double LIBNOVA_EXPORT ln_get_venus_disk (double JD);

	/*! \fn double ln_get_venus_phase (double JD);	/*! \fn double ln_get_venus_phase (double JD);
	* \brief Calculate the phase angle of Venus.	* \brief Calculate the phase angle of Venus.
	* \ingroup venus	* \ingroup venus
	* \return Phase angle of Venus (degrees)	* \return Phase angle of Venus (degrees)
	*/	*/
	/* Chapter 41 */	/* Chapter 41 */

	double ln_get_venus_phase (double JD);	double LIBNOVA_EXPORT ln_get_venus_phase (double JD);

	/! \fn void ln_get_venus_rect_helio (double JD, struct ln_rect_posn posi tion)	/! \fn void ln_get_venus_rect_helio (double JD, struct ln_rect_posn posi tion)
	* \ingroup venus	* \ingroup venus
	* \brief Calculate Venus rectangular heliocentric coordinates.	* \brief Calculate Venus rectangular heliocentric coordinates.
	*/	*/

	void ln_get_venus_rect_helio (double JD, struct ln_rect_posn * position);	void LIBNOVA_EXPORT ln_get_venus_rect_helio (double JD, struct ln_rect_posn * position);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 12 change blocks.
	12 lines changed or deleted	12 lines changed or added

	vsop87.h	vsop87.h

	skipping to change at line 40	skipping to change at line 40
	* Thanks to Messrs. Bretagnon and Francou for publishing planetary	* Thanks to Messrs. Bretagnon and Francou for publishing planetary
	* solution VSOP87.	* solution VSOP87.
	*/	*/

	/! \fn void ln_vsop87_to_fk5 (struct ln_helio_posn position, double JD);	/! \fn void ln_vsop87_to_fk5 (struct ln_helio_posn position, double JD);
	* \ingroup VSOP87	* \ingroup VSOP87
	* \brief Transform from VSOP87 to FK5 reference system.	* \brief Transform from VSOP87 to FK5 reference system.
	*/	*/
	/* equation 31.3 Pg 207 */	/* equation 31.3 Pg 207 */
	/* JD Julian Day */	/* JD Julian Day */

	void ln_vsop87_to_fk5 (struct ln_helio_posn * position, double JD);	void LIBNOVA_EXPORT ln_vsop87_to_fk5 (struct ln_helio_posn * position, doub le JD);

	struct ln_vsop	struct ln_vsop
	{	{
	double A;	double A;
	double B;	double B;
	double C;	double C;
	};	};


	double ln_calc_series (const struct ln_vsop * data, int terms, double t);	double LIBNOVA_EXPORT ln_calc_series (const struct ln_vsop * data, int term s, double t);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 2 change blocks.
	2 lines changed or deleted	2 lines changed or added

This html diff was produced by rfcdiff 1.41. The latest version is available from http://tools.ietf.org/tools/rfcdiff/

	elliptic_motion.h	elliptic_motion.h

	skipping to change at line 39	skipping to change at line 39
	*	*
	* Functions relating to the elliptic motion of bodies.	* Functions relating to the elliptic motion of bodies.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_solve_kepler (double E, double M);	/*! \fn double ln_solve_kepler (double E, double M);
	* \brief Calculate the eccentric anomaly.	* \brief Calculate the eccentric anomaly.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_solve_kepler (double e, double M);	double LIBNOVA_EXPORT ln_solve_kepler (double e, double M);

	/*! \fn double ln_get_ell_mean_anomaly (double n, double delta_JD);	/*! \fn double ln_get_ell_mean_anomaly (double n, double delta_JD);
	* \brief Calculate the mean anomaly.	* \brief Calculate the mean anomaly.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_mean_anomaly (double n, double delta_JD);	double LIBNOVA_EXPORT ln_get_ell_mean_anomaly (double n, double delta_JD);

	/*! \fn double ln_get_ell_true_anomaly (double e, double E);	/*! \fn double ln_get_ell_true_anomaly (double e, double E);
	* \brief Calculate the true anomaly.	* \brief Calculate the true anomaly.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_true_anomaly (double e, double E);	double LIBNOVA_EXPORT ln_get_ell_true_anomaly (double e, double E);

	/*! \fn double ln_get_ell_radius_vector (double a, double e, double E);	/*! \fn double ln_get_ell_radius_vector (double a, double e, double E);
	* \brief Calculate the radius vector.	* \brief Calculate the radius vector.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_radius_vector (double a, double e, double E);	double LIBNOVA_EXPORT ln_get_ell_radius_vector (double a, double e, double E);

	/*! \fn double ln_get_ell_smajor_diam (double e, double q);	/*! \fn double ln_get_ell_smajor_diam (double e, double q);
	* \brief Calculate the semi major diameter.	* \brief Calculate the semi major diameter.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_smajor_diam (double e, double q);	double LIBNOVA_EXPORT ln_get_ell_smajor_diam (double e, double q);

	/*! \fn double ln_get_ell_sminor_diam (double e, double a);	/*! \fn double ln_get_ell_sminor_diam (double e, double a);
	* \brief Calculate the semi minor diameter.	* \brief Calculate the semi minor diameter.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_sminor_diam (double e, double a);	double LIBNOVA_EXPORT ln_get_ell_sminor_diam (double e, double a);

	/*! \fn double ln_get_ell_mean_motion (double a);	/*! \fn double ln_get_ell_mean_motion (double a);
	* \brief Calculate the mean daily motion (degrees/day).	* \brief Calculate the mean daily motion (degrees/day).
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_mean_motion (double a);	double LIBNOVA_EXPORT ln_get_ell_mean_motion (double a);

	/! \fn void ln_get_ell_geo_rect_posn (struct ln_ell_orbit orbit, double J D, struct ln_rect_posn* posn);	/! \fn void ln_get_ell_geo_rect_posn (struct ln_ell_orbit orbit, double J D, struct ln_rect_posn* posn);
	* \brief Calculate the objects rectangular geocentric position.	* \brief Calculate the objects rectangular geocentric position.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	void ln_get_ell_geo_rect_posn (struct ln_ell_orbit* orbit, double JD, struc t ln_rect_posn* posn);	void LIBNOVA_EXPORT ln_get_ell_geo_rect_posn (struct ln_ell_orbit* orbit, d ouble JD, struct ln_rect_posn* posn);

	/! \fn void ln_get_ell_helio_rect_posn (struct ln_ell_orbit orbit, double JD, struct ln_rect_posn* posn);	/! \fn void ln_get_ell_helio_rect_posn (struct ln_ell_orbit orbit, double JD, struct ln_rect_posn* posn);
	* \brief Calculate the objects rectangular heliocentric position.	* \brief Calculate the objects rectangular heliocentric position.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	void ln_get_ell_helio_rect_posn (struct ln_ell_orbit* orbit, double JD, str uct ln_rect_posn* posn);	void LIBNOVA_EXPORT ln_get_ell_helio_rect_posn (struct ln_ell_orbit* orbit, double JD, struct ln_rect_posn* posn);

	/! \fn double ln_get_ell_orbit_len (struct ln_ell_orbit orbit);	/! \fn double ln_get_ell_orbit_len (struct ln_ell_orbit orbit);
	* \brief Calculate the orbital length in AU.	* \brief Calculate the orbital length in AU.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_orbit_len (struct ln_ell_orbit * orbit);	double LIBNOVA_EXPORT ln_get_ell_orbit_len (struct ln_ell_orbit * orbit);

	/! \fn double ln_get_ell_orbit_vel (double JD, struct ln_ell_orbit orbit );	/! \fn double ln_get_ell_orbit_vel (double JD, struct ln_ell_orbit orbit );
	* \brief Calculate orbital velocity in km/s.	* \brief Calculate orbital velocity in km/s.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_orbit_vel (double JD, struct ln_ell_orbit * orbit);	double LIBNOVA_EXPORT ln_get_ell_orbit_vel (double JD, struct ln_ell_orbit * orbit);

	/! \fn double ln_get_ell_orbit_pvel (struct ln_ell_orbit orbit);	/! \fn double ln_get_ell_orbit_pvel (struct ln_ell_orbit orbit);
	* \brief Calculate orbital velocity at perihelion in km/s.	* \brief Calculate orbital velocity at perihelion in km/s.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_orbit_pvel (struct ln_ell_orbit * orbit);	double LIBNOVA_EXPORT ln_get_ell_orbit_pvel (struct ln_ell_orbit * orbit);

	/! \fn double ln_get_ell_orbit_avel (struct ln_ell_orbit orbit);	/! \fn double ln_get_ell_orbit_avel (struct ln_ell_orbit orbit);
	* \ingroup elliptic	* \ingroup elliptic
	* \brief Calculate the orbital velocity at aphelion in km/s.	* \brief Calculate the orbital velocity at aphelion in km/s.
	*/	*/

	double ln_get_ell_orbit_avel (struct ln_ell_orbit * orbit);	double LIBNOVA_EXPORT ln_get_ell_orbit_avel (struct ln_ell_orbit * orbit);

	/! \fn double ln_get_ell_body_phase_angle (double JD, struct ln_ell_orbit orbit);	/! \fn double ln_get_ell_body_phase_angle (double JD, struct ln_ell_orbit orbit);
	* \ingroup elliptic	* \ingroup elliptic

	* \brief Calculate the pase angle of the body. The angle Sun - body - Earth .	* \brief Calculate the phase angle of the body. The angle Sun - body - Eart h.
	*/	*/

	double ln_get_ell_body_phase_angle (double JD, struct ln_ell_orbit * orbit) ;	double LIBNOVA_EXPORT ln_get_ell_body_phase_angle (double JD, struct ln_ell _orbit * orbit);

	/! \fn double ln_get_ell_body_elong (double JD, struct ln_ell_orbit orbi t);	/! \fn double ln_get_ell_body_elong (double JD, struct ln_ell_orbit orbi t);
	* \ingroup elliptic	* \ingroup elliptic
	* \brief Calculate the bodies elongation to the Sun..	* \brief Calculate the bodies elongation to the Sun..
	*/	*/

	double ln_get_ell_body_elong (double JD, struct ln_ell_orbit * orbit);	double LIBNOVA_EXPORT ln_get_ell_body_elong (double JD, struct ln_ell_orbit * orbit);

	/*!	/*!
	* \fn double ln_get_ell_body_solar_dist (double JD, struct ln_ell_orbit * o rbit)	* \fn double ln_get_ell_body_solar_dist (double JD, struct ln_ell_orbit * o rbit)
	* \brief Calculate the distance between a body and the Sun	* \brief Calculate the distance between a body and the Sun
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_body_solar_dist (double JD, struct ln_ell_orbit * orbit);	double LIBNOVA_EXPORT ln_get_ell_body_solar_dist (double JD, struct ln_ell_ orbit * orbit);

	/*!	/*!
	* \fn double ln_get_ell_body_earth_dist (double JD, struct ln_ell_orbit * o rbit)	* \fn double ln_get_ell_body_earth_dist (double JD, struct ln_ell_orbit * o rbit)
	* \brief Calculate the distance between a body and the Earth	* \brief Calculate the distance between a body and the Earth
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_body_earth_dist (double JD, struct ln_ell_orbit * orbit);	double LIBNOVA_EXPORT ln_get_ell_body_earth_dist (double JD, struct ln_ell_ orbit * orbit);

	/*!	/*!
	* \fn void ln_get_ell_body_equ_coords (double JD, struct ln_ell_orbit * orb it, struct ln_equ_posn * posn)	* \fn void ln_get_ell_body_equ_coords (double JD, struct ln_ell_orbit * orb it, struct ln_equ_posn * posn)
	* \brief Calculate a bodies equatorial coords	* \brief Calculate a bodies equatorial coords
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	void ln_get_ell_body_equ_coords (double JD, struct ln_ell_orbit * orbit, st ruct ln_equ_posn * posn);	void LIBNOVA_EXPORT ln_get_ell_body_equ_coords (double JD, struct ln_ell_or bit * orbit, struct ln_equ_posn * posn);

	/! \fn double ln_get_ell_body_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_ell_orbit * orbit, struct ln_rst_time * rst);	/! \fn double ln_get_ell_body_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_ell_orbit * orbit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	int ln_get_ell_body_rst (double JD, struct ln_lnlat_posn * observer, struct ln_ell_orbit * orbit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_ell_body_rst (double JD, struct ln_lnlat_posn * o bserver, struct ln_ell_orbit * orbit, struct ln_rst_time * rst);

	/! \fn double ln_get_ell_body_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_ell_orbit * orbit, double horizon, struct ln_rst_tim e * rst);	/! \fn double ln_get_ell_body_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_ell_orbit * orbit, double horizon, struct ln_rst_tim e * rst);
	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	int ln_get_ell_body_rst_horizon (double JD, struct ln_lnlat_posn * observer , struct ln_ell_orbit * orbit, double horizon, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_ell_body_rst_horizon (double JD, struct ln_lnlat_ posn * observer, struct ln_ell_orbit * orbit, double horizon, struct ln_rst _time * rst);

	/! \fn double ln_get_ell_body_next_rst (double JD, struct ln_lnlat_posn observer, struct ln_ell_orbit * orbit, struct ln_rst_time * rst);	/! \fn double ln_get_ell_body_next_rst (double JD, struct ln_lnlat_posn observer, struct ln_ell_orbit * orbit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	int ln_get_ell_body_next_rst (double JD, struct ln_lnlat_posn * observer, s truct ln_ell_orbit * orbit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_ell_body_next_rst (double JD, struct ln_lnlat_pos n * observer, struct ln_ell_orbit * orbit, struct ln_rst_time * rst);

	/! \fn double ln_get_ell_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, struct ln_ell_orbit * orbit, double horizon, struct ln_rs t_time * rst);	/! \fn double ln_get_ell_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, struct ln_ell_orbit * orbit, double horizon, struct ln_rs t_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	int ln_get_ell_body_next_rst_horizon (double JD, struct ln_lnlat_posn * obs erver, struct ln_ell_orbit * orbit, double horizon, struct ln_rst_time * rs t);	int LIBNOVA_EXPORT ln_get_ell_body_next_rst_horizon (double JD, struct ln_l nlat_posn * observer, struct ln_ell_orbit * orbit, double horizon, struct l n_rst_time * rst);

	/! \fn double ln_get_ell_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, struct ln_ell_orbit * orbit, double horizon, int d ay_limit, struct ln_rst_time * rst);	/! \fn double ln_get_ell_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, struct ln_ell_orbit * orbit, double horizon, int d ay_limit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.	* \brief Calculate the time of rise, set and transit for a body with an ell iptic orbit.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	int ln_get_ell_body_next_rst_horizon_future (double JD, struct ln_lnlat_pos n * observer, struct ln_ell_orbit * orbit, double horizon, int day_limit, s truct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_ell_body_next_rst_horizon_future (double JD, stru ct ln_lnlat_posn * observer, struct ln_ell_orbit * orbit, double horizon, i nt day_limit, struct ln_rst_time * rst);

	/*!\fn double ln_get_ell_last_perihelion (double epoch_JD, double M, double n);	/*!\fn double ln_get_ell_last_perihelion (double epoch_JD, double M, double n);
	* \brief Calculate the julian day of the last perihelion.	* \brief Calculate the julian day of the last perihelion.
	* \ingroup elliptic	* \ingroup elliptic
	*/	*/

	double ln_get_ell_last_perihelion (double epoch_JD, double M, double n);	double LIBNOVA_EXPORT ln_get_ell_last_perihelion (double epoch_JD, double M , double n);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 25 change blocks.
	25 lines changed or deleted	25 lines changed or added

	hyperbolic_motion.h	hyperbolic_motion.h

	skipping to change at line 39	skipping to change at line 39
	*	*
	* Functions relating to the Hyperbolic motion of bodies.	* Functions relating to the Hyperbolic motion of bodies.
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/*! \fn double ln_solve_hyp_barker (double Q1, double G, double t);	/*! \fn double ln_solve_hyp_barker (double Q1, double G, double t);
	* \brief Solve Barkers equation.	* \brief Solve Barkers equation.
	* \ingroup hyperbolic	* \ingroup hyperbolic
	*/	*/

	double ln_solve_hyp_barker (double Q1, double G, double t);	double LIBNOVA_EXPORT ln_solve_hyp_barker (double Q1, double G, double t);

	/*! \fn double ln_get_hyp_true_anomaly (double q, double e, double t);	/*! \fn double ln_get_hyp_true_anomaly (double q, double e, double t);
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate the true anomaly.	* \brief Calculate the true anomaly.
	*/	*/

	double ln_get_hyp_true_anomaly (double q, double e, double t);	double LIBNOVA_EXPORT ln_get_hyp_true_anomaly (double q, double e, double t );

	/*! \fn double ln_get_hyp_radius_vector (double q, double e, double t);	/*! \fn double ln_get_hyp_radius_vector (double q, double e, double t);
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate the radius vector.	* \brief Calculate the radius vector.
	*/	*/

	double ln_get_hyp_radius_vector (double q, double e, double t);	double LIBNOVA_EXPORT ln_get_hyp_radius_vector (double q, double e, double t);

	/! \fn void ln_get_hyp_geo_rect_posn (struct ln_hyp_orbit orbit, double J D, struct ln_rect_posn* posn);	/! \fn void ln_get_hyp_geo_rect_posn (struct ln_hyp_orbit orbit, double J D, struct ln_rect_posn* posn);
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate an objects rectangular geocentric position.	* \brief Calculate an objects rectangular geocentric position.
	*/	*/

	void ln_get_hyp_geo_rect_posn (struct ln_hyp_orbit* orbit, double JD, struc t ln_rect_posn* posn);	void LIBNOVA_EXPORT ln_get_hyp_geo_rect_posn (struct ln_hyp_orbit* orbit, d ouble JD, struct ln_rect_posn* posn);

	/! \fn void ln_get_hyp_helio_rect_posn (struct ln_hyp_orbit orbit, double JD, struct ln_rect_posn* posn);	/! \fn void ln_get_hyp_helio_rect_posn (struct ln_hyp_orbit orbit, double JD, struct ln_rect_posn* posn);
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate an objects rectangular heliocentric position.	* \brief Calculate an objects rectangular heliocentric position.
	*/	*/

	void ln_get_hyp_helio_rect_posn (struct ln_hyp_orbit* orbit, double JD, str uct ln_rect_posn* posn);	void LIBNOVA_EXPORT ln_get_hyp_helio_rect_posn (struct ln_hyp_orbit* orbit, double JD, struct ln_rect_posn* posn);

	/*!	/*!
	* \fn void ln_get_hyp_body_equ_coords (double JD, struct ln_hyp_orbit * orb it, struct ln_equ_posn * posn)	* \fn void ln_get_hyp_body_equ_coords (double JD, struct ln_hyp_orbit * orb it, struct ln_equ_posn * posn)
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate a bodies equatorial coordinates.	* \brief Calculate a bodies equatorial coordinates.
	*/	*/

	void ln_get_hyp_body_equ_coords (double JD, struct ln_hyp_orbit * orbit, st ruct ln_equ_posn * posn);	void LIBNOVA_EXPORT ln_get_hyp_body_equ_coords (double JD, struct ln_hyp_or bit * orbit, struct ln_equ_posn * posn);

	/*!	/*!
	* \fn double ln_get_hyp_body_earth_dist (double JD, struct ln_hyp_orbit * o rbit)	* \fn double ln_get_hyp_body_earth_dist (double JD, struct ln_hyp_orbit * o rbit)
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate the distance between a body and the Earth.	* \brief Calculate the distance between a body and the Earth.
	*/	*/

	double ln_get_hyp_body_earth_dist (double JD, struct ln_hyp_orbit * orbit);	double LIBNOVA_EXPORT ln_get_hyp_body_earth_dist (double JD, struct ln_hyp_ orbit * orbit);

	/*!	/*!
	* \fn double ln_get_hyp_body_solar_dist (double JD, struct ln_hyp_orbit * o rbit)	* \fn double ln_get_hyp_body_solar_dist (double JD, struct ln_hyp_orbit * o rbit)
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate the distance between a body and the Sun.	* \brief Calculate the distance between a body and the Sun.
	*/	*/

	double ln_get_hyp_body_solar_dist (double JD, struct ln_hyp_orbit * orbit);	double LIBNOVA_EXPORT ln_get_hyp_body_solar_dist (double JD, struct ln_hyp_ orbit * orbit);

	/! \fn double ln_get_hyp_body_phase_angle (double JD, struct ln_hyp_orbit orbit);	/! \fn double ln_get_hyp_body_phase_angle (double JD, struct ln_hyp_orbit orbit);
	* \ingroup hyperbolic	* \ingroup hyperbolic

	* \brief Calculate the pase angle of the body.	* \brief Calculate the phase angle of the body.
	*/	*/

	double ln_get_hyp_body_phase_angle (double JD, struct ln_hyp_orbit * orbit) ;	double LIBNOVA_EXPORT ln_get_hyp_body_phase_angle (double JD, struct ln_hyp _orbit * orbit);

	/! \fn double ln_get_hyp_body_elong (double JD, struct ln_hyp_orbit orbi t);	/! \fn double ln_get_hyp_body_elong (double JD, struct ln_hyp_orbit orbi t);
	* \ingroup hyperbolic	* \ingroup hyperbolic
	* \brief Calculate the bodies elongation to the Sun.	* \brief Calculate the bodies elongation to the Sun.
	*/	*/

	double ln_get_hyp_body_elong (double JD, struct ln_hyp_orbit * orbit);	double LIBNOVA_EXPORT ln_get_hyp_body_elong (double JD, struct ln_hyp_orbit * orbit);

	/! \fn double ln_get_hyp_body_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_hyp_orbit * orbit, struct ln_rst_time * rst);	/! \fn double ln_get_hyp_body_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_hyp_orbit * orbit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with a hype rbolic orbit.	* \brief Calculate the time of rise, set and transit for a body with a hype rbolic orbit.
	* \ingroup hyperbolic	* \ingroup hyperbolic
	*/	*/

	int ln_get_hyp_body_rst (double JD, struct ln_lnlat_posn * observer, struct ln_hyp_orbit * orbit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_hyp_body_rst (double JD, struct ln_lnlat_posn * o bserver, struct ln_hyp_orbit * orbit, struct ln_rst_time * rst);

	/! \fn double ln_get_hyp_body_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_hyp_orbit * orbit, double horizon, struct ln_rst_tim e * rst);	/! \fn double ln_get_hyp_body_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_hyp_orbit * orbit, double horizon, struct ln_rst_tim e * rst);
	* \brief Calculate the time of rise, set and transit for a body with a hype rbolic orbit.	* \brief Calculate the time of rise, set and transit for a body with a hype rbolic orbit.
	* \ingroup hyperbolic	* \ingroup hyperbolic
	*/	*/

	int ln_get_hyp_body_rst_horizon (double JD, struct ln_lnlat_posn * observer , struct ln_hyp_orbit * orbit, double horizon, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_hyp_body_rst_horizon (double JD, struct ln_lnlat_ posn * observer, struct ln_hyp_orbit * orbit, double horizon, struct ln_rst _time * rst);

	/! \fn double ln_get_hyp_body_next_rst (double JD, struct ln_lnlat_posn observer, struct ln_hyp_orbit * orbit, struct ln_rst_time * rst);	/! \fn double ln_get_hyp_body_next_rst (double JD, struct ln_lnlat_posn observer, struct ln_hyp_orbit * orbit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an hyp erbolic orbit.	* \brief Calculate the time of rise, set and transit for a body with an hyp erbolic orbit.
	* \ingroup hyperbolic	* \ingroup hyperbolic
	*/	*/

	int ln_get_hyp_body_next_rst (double JD, struct ln_lnlat_posn * observer, s truct ln_hyp_orbit * orbit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_hyp_body_next_rst (double JD, struct ln_lnlat_pos n * observer, struct ln_hyp_orbit * orbit, struct ln_rst_time * rst);

	/! \fn double ln_get_hyp_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, struct ln_hyp_orbit * orbit, double horizon, struct ln_rs t_time * rst);	/! \fn double ln_get_hyp_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, struct ln_hyp_orbit * orbit, double horizon, struct ln_rs t_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an hyp erbolic orbit.	* \brief Calculate the time of rise, set and transit for a body with an hyp erbolic orbit.
	* \ingroup hyperbolic	* \ingroup hyperbolic
	*/	*/

	int ln_get_hyp_body_next_rst_horizon (double JD, struct ln_lnlat_posn * obs erver, struct ln_hyp_orbit * orbit, double horizon, struct ln_rst_time * rs t);	int LIBNOVA_EXPORT ln_get_hyp_body_next_rst_horizon (double JD, struct ln_l nlat_posn * observer, struct ln_hyp_orbit * orbit, double horizon, struct l n_rst_time * rst);

	/! \fn double ln_get_hyp_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, struct ln_hyp_orbit * orbit, double horizon, int d ay_limit, struct ln_rst_time * rst);	/! \fn double ln_get_hyp_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, struct ln_hyp_orbit * orbit, double horizon, int d ay_limit, struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for a body with an hyp erbolic orbit.	* \brief Calculate the time of rise, set and transit for a body with an hyp erbolic orbit.
	* \ingroup hyperbolic	* \ingroup hyperbolic
	*/	*/

	int ln_get_hyp_body_next_rst_horizon_future (double JD, struct ln_lnlat_pos n * observer, struct ln_hyp_orbit * orbit, double horizon, int day_limit, s truct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_hyp_body_next_rst_horizon_future (double JD, stru ct ln_lnlat_posn * observer, struct ln_hyp_orbit * orbit, double horizon, i nt day_limit, struct ln_rst_time * rst);

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 16 change blocks.
	16 lines changed or deleted	16 lines changed or added

	rise_set.h	rise_set.h

	skipping to change at line 41	skipping to change at line 41
	*	*
	* Functions relating to an objects rise, set and transit	* Functions relating to an objects rise, set and transit
	*	*
	* All angles are expressed in degrees.	* All angles are expressed in degrees.
	*/	*/

	/! \fn int ln_get_object_rst (double JD, struct ln_lnlat_posn observer, struct ln_equ_posn * object,struct ln_rst_time * rst);	/! \fn int ln_get_object_rst (double JD, struct ln_lnlat_posn observer, struct ln_equ_posn * object,struct ln_rst_time * rst);
	* \brief Calculate the time of rise, set and transit for an object not orbi ting the Sun.	* \brief Calculate the time of rise, set and transit for an object not orbi ting the Sun.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_object_rst (double JD, struct ln_lnlat_posn * observer, struct l n_equ_posn * object, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_object_rst (double JD, struct ln_lnlat_posn * obs erver, struct ln_equ_posn * object, struct ln_rst_time * rst);

	/! \fn int ln_get_object_rst_horizon (double JD, struct ln_lnlat_posn ob server, struct ln_equ_posn * object, long double horizon, struct ln_rst_tim e * rst);	/! \fn int ln_get_object_rst_horizon (double JD, struct ln_lnlat_posn ob server, struct ln_equ_posn * object, long double horizon, struct ln_rst_tim e * rst);
	* \brief Calculate the time of rise, set and transit above local horizon fo r	* \brief Calculate the time of rise, set and transit above local horizon fo r

	* an objet not orbiting the Sun.	* an object not orbiting the Sun.
	*	*
	*/	*/

	int ln_get_object_rst_horizon (double JD, struct ln_lnlat_posn * observer,	int LIBNOVA_EXPORT ln_get_object_rst_horizon (double JD, struct ln_lnlat_po sn * observer,
	struct ln_equ_posn * object, long double horizon, struct ln_rst_time * rst);	struct ln_equ_posn * object, long double horizon, struct ln_rst_time * rst);

	/! \fn int ln_get_object_next_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_equ_posn * object, struct ln_rst_time * rst);	/! \fn int ln_get_object_next_rst (double JD, struct ln_lnlat_posn obser ver, struct ln_equ_posn * object, struct ln_rst_time * rst);
	* \brief Calculate the time of next rise, set and transit for an object not orbiting the Sun.	* \brief Calculate the time of next rise, set and transit for an object not orbiting the Sun.
	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.
	* This function is not too precise, it's good to get general idea when obje ct will rise.	* This function is not too precise, it's good to get general idea when obje ct will rise.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_object_next_rst (double JD, struct ln_lnlat_posn * observer, str uct ln_equ_posn * object, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_object_next_rst (double JD, struct ln_lnlat_posn * observer, struct ln_equ_posn * object, struct ln_rst_time * rst);

	/! \fn int ln_get_object_next_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_equ_posn * object, double horizon, struct ln_rst_tim e * rst);	/! \fn int ln_get_object_next_rst_horizon (double JD, struct ln_lnlat_posn observer, struct ln_equ_posn * object, double horizon, struct ln_rst_tim e * rst);
	* \brief Calculate the time of next rise, set and transit for an object not orbiting the Sun.	* \brief Calculate the time of next rise, set and transit for an object not orbiting the Sun.
	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_object_next_rst_horizon (double JD, struct ln_lnlat_posn * obser ver, struct ln_equ_posn * object,	int LIBNOVA_EXPORT ln_get_object_next_rst_horizon (double JD, struct ln_lnl at_posn * observer, struct ln_equ_posn * object,
	double horizon, struct ln_rst_time * rst);	double horizon, struct ln_rst_time * rst);

	/! \fn int ln_get_body_rst_horizon (double JD, struct ln_lnlat_posn obse rver, void (get_equ_body_coords) (double, struct ln_equ_posn ), double ho rizon, struct ln_rst_time *rst);	/! \fn int ln_get_body_rst_horizon (double JD, struct ln_lnlat_posn obse rver, void (get_equ_body_coords) (double, struct ln_equ_posn ), double ho rizon, struct ln_rst_time *rst);

	* \brief Calculate the time of rise, set and transit for an object a body, ussually Sun, a planet or Moon.	* \brief Calculate the time of rise, set and transit for an object a body, usually Sun, a planet or Moon.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_body_rst_horizon (double JD, struct ln_lnlat_posn * observer, vo id (get_equ_body_coords) (double, struct ln_equ_posn ), double horizon, s truct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_body_rst_horizon (double JD, struct ln_lnlat_posn * observer, void (get_equ_body_coords) (double, struct ln_equ_posn ), do uble horizon, struct ln_rst_time * rst);

	/! \fn int ln_get_body_next_rst_horizon (double JD, struct ln_lnlat_posn observer, void (get_equ_body_coords) (double, struct ln_equ_posn ), doub le horizon, struct ln_rst_time *rst);	/! \fn int ln_get_body_next_rst_horizon (double JD, struct ln_lnlat_posn observer, void (get_equ_body_coords) (double, struct ln_equ_posn ), doub le horizon, struct ln_rst_time *rst);

	* \brief Calculate the time of next rise, set and transit for an object a body, ussually Sun, a planet or Moon.	* \brief Calculate the time of next rise, set and transit for an object a body, usually Sun, a planet or Moon.
	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_body_next_rst_horizon (double JD, struct ln_lnlat_posn * observe r, void (get_equ_body_coords) (double, struct ln_equ_posn ), double horiz on, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_body_next_rst_horizon (double JD, struct ln_lnlat _posn * observer, void (get_equ_body_coords) (double, struct ln_equ_posn ), double horizon, struct ln_rst_time * rst);

	/! \fn int ln_get_body_next_rst_horizon_future (double JD, struct ln_lnlat _posn observer, void (get_equ_body_coords) (double, struct ln_equ_posn ), double horizon, int day_limit, struct ln_rst_time *rst);	/! \fn int ln_get_body_next_rst_horizon_future (double JD, struct ln_lnlat _posn observer, void (get_equ_body_coords) (double, struct ln_equ_posn ), double horizon, int day_limit, struct ln_rst_time *rst);

	* \brief Calculate the time of next rise, set and transit for an object a body, ussually Sun, a planet or Moon.	* \brief Calculate the time of next rise, set and transit for an object a body, usually Sun, a planet or Moon.
	* E.g. it's sure, that rise, set and transit will be in <JD, JD+day_limit> range.	* E.g. it's sure, that rise, set and transit will be in <JD, JD+day_limit> range.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_body_next_rst_horizon_future (double JD, struct ln_lnlat_posn * observer, void (get_equ_body_coords) (double, struct ln_equ_posn ), doubl e horizon, int day_limit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn * observer, void (get_equ_body_coords) (double, struct ln_equ _posn ), double horizon, int day_limit, struct ln_rst_time * rst);

	typedef void (get_motion_body_coords_t) (double, void orbit, struct ln_e qu_posn *);	typedef void (get_motion_body_coords_t) (double, void orbit, struct ln_e qu_posn *);

	/! \fn int ln_get_motion_body_rst_horizon (double JD, struct ln_lnlat_posn observer, get_motion_body_coords_t get_motion_body_coords, double horizo n, struct ln_rst_time *rst);	/! \fn int ln_get_motion_body_rst_horizon (double JD, struct ln_lnlat_posn observer, get_motion_body_coords_t get_motion_body_coords, double horizo n, struct ln_rst_time *rst);
	* \brief Calculate the time of rise, set and transit for an object a body on elliptic, parabolic or hyperbolic orbit.	* \brief Calculate the time of rise, set and transit for an object a body on elliptic, parabolic or hyperbolic orbit.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_motion_body_rst_horizon (double JD, struct ln_lnlat_posn * obser ver, get_motion_body_coords_t get_motion_body_coords, void * orbit, double horizon, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_motion_body_rst_horizon (double JD, struct ln_lnl at_posn * observer, get_motion_body_coords_t get_motion_body_coords, void * orbit, double horizon, struct ln_rst_time * rst);

	/! \fn int ln_get_motion_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, get_motion_body_coords_t get_motion_body_coords, double h orizon, struct ln_rst_time *rst);	/! \fn int ln_get_motion_body_next_rst_horizon (double JD, struct ln_lnlat _posn observer, get_motion_body_coords_t get_motion_body_coords, double h orizon, struct ln_rst_time *rst);
	* \brief Calculate the time of next rise, set and transit for an object a body on elliptic, parabolic or hyperbolic orbit.	* \brief Calculate the time of next rise, set and transit for an object a body on elliptic, parabolic or hyperbolic orbit.
	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.	* E.g. it's sure, that rise, set and transit will be in <JD, JD+1> range.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_motion_body_next_rst_horizon (double JD, struct ln_lnlat_posn * observer, get_motion_body_coords_t get_motion_body_coords, void * orbit, do uble horizon, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_motion_body_next_rst_horizon (double JD, struct l n_lnlat_posn * observer, get_motion_body_coords_t get_motion_body_coords, v oid * orbit, double horizon, struct ln_rst_time * rst);

	/! \fn int ln_get_motion_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, get_motion_body_coords_t get_motion_body_coords, d ouble horizon, int day_limit, struct ln_rst_time *rst);	/! \fn int ln_get_motion_body_next_rst_horizon_future (double JD, struct l n_lnlat_posn observer, get_motion_body_coords_t get_motion_body_coords, d ouble horizon, int day_limit, struct ln_rst_time *rst);
	* \brief Calculate the time of next rise, set and transit for an object a body on elliptic, parabolic or hyperbolic orbit.	* \brief Calculate the time of next rise, set and transit for an object a body on elliptic, parabolic or hyperbolic orbit.
	* E.g. it's sure, that rise, set and transit will be in <JD, JD+day_limit> range.	* E.g. it's sure, that rise, set and transit will be in <JD, JD+day_limit> range.
	* \ingroup rst	* \ingroup rst
	*/	*/

	int ln_get_motion_body_next_rst_horizon_future (double JD, struct ln_lnlat_ posn * observer, get_motion_body_coords_t get_motion_body_coords, void * or bit, double horizon, int day_limit, struct ln_rst_time * rst);	int LIBNOVA_EXPORT ln_get_motion_body_next_rst_horizon_future (double JD, s truct ln_lnlat_posn * observer, get_motion_body_coords_t get_motion_body_co ords, void * orbit, double horizon, int day_limit, struct ln_rst_time * rst );

	#ifdef __cplusplus	#ifdef __cplusplus
	};	};
	#endif	#endif

	#endif	#endif

End of changes. 14 change blocks.
	14 lines changed or deleted	14 lines changed or added