de.kah2.zodiac.nova4jmt

Class RiseSet

java.lang.Object

de.kah2.zodiac.nova4jmt.RiseSet

public class RiseSet
extends Object

Field Summary

Fields

Modifier and Type	Field and Description
static BigDecimal	LN_STAR_STANDART_HORIZON

Constructor Summary

Constructors

Constructor and Description
RiseSet()

Method Summary

Modifier and Type	Method and Description
static int	check_coords(LnLnlatPosn observer, double H1, BigDecimal horizon, LnEquPosn object)
static int	check_coords(LnLnlatPosn observer, double H1, double horizon, LnEquPosn object)
static double	find_next(double JD, double jd1, double jd2, double jd3)
static int	ln_get_body_next_rst_horizon_future(double JD, LnLnlatPosn observer, IGetEquBodyCoords get_equ_body_coords, double horizon, int day_limit, LnRstTime rst) int ln_get_body_next_rst_horizon_future(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double,LnEquPosn ), double horizon, int day_limit, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_equ_body_coords Pointer to get_equ_body_coords() function \param horizon Horizon, see LN_XXX_HORIZON constants \param day_limit Maximal number of days that will be searched for next rise and set \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon.
static int	ln_get_body_next_rst_horizon(double JD, LnLnlatPosn observer, IGetEquBodyCoords get_equ_body_coords, double horizon, LnRstTime rst) int ln_get_body_next_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_equ_body_coords Pointer to get_equ_body_coords() function \param horizon Horizon, see LN_XXX_HORIZON constants \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon.
static int	ln_get_body_rst_horizon_offset(double JD, LnLnlatPosn observer, IGetEquBodyCoords get_equ_body_coords, double horizon, LnRstTime rst, double ut_offset)
static int	ln_get_body_rst_horizon(double JD, LnLnlatPosn observer, IGetEquBodyCoords get_equ_body_coords, double horizon, LnRstTime rst) int ln_get_body_rst_horizon(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_equ_body_coords Pointer to get_equ_body_coords() function \param horizon Horizon, see LN_XXX_HORIZON constants \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time the rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon.
static <T> int	ln_get_motion_body_next_rst_horizon_future(double JD, LnLnlatPosn observer, IGetMotionBodyCoords<T> get_motion_body_coords, T orbit, double horizon, int day_limit, LnRstTime rst) int ln_get_motion_body_next_rst_horizon_future(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, int day_limit, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_motion_body_coords Pointer to ln_get_ell_body_equ_coords. ln_get_para_body_equ_coords or ln_get_hyp_body_equ_coords function \param horizon Horizon, see LN_XXX_HORIZON constants \param day_limit Maximal number of days that will be searched for next rise and set \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon.
static <T> int	ln_get_motion_body_next_rst_horizon(double JD, LnLnlatPosn observer, IGetMotionBodyCoords<T> get_motion_body_coords, T orbit, double horizon, LnRstTime rst) int ln_get_body_next_rst_horizon(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_motion_body_coords Pointer to ln_get_ell_body_equ_coords.
static <T> int	ln_get_motion_body_rst_horizon_offset(double JD, LnLnlatPosn observer, IGetMotionBodyCoords<T> get_motion_body_coords, T orbit, double horizon, LnRstTime rst, double ut_offset)
static <T> int	ln_get_motion_body_rst_horizon(double JD, LnLnlatPosn observer, IGetMotionBodyCoords<T> get_motion_body_coords, T orbit, double horizon, LnRstTime rst) int ln_get_body_rst_horizon(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_motion_body_coords Pointer to ln_get_ell_body_equ_coords.
static int	ln_get_object_next_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, BigDecimal horizon, LnRstTime rst) int ln_get_object_next_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param horizon Horizon height \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day and horizon.
static int	ln_get_object_next_rst(double JD, LnLnlatPosn observer, LnEquPosn object, LnRstTime rst) int ln_get_object_next_rst(double JD, LnLnlatPosn observer, LnEquPosn object, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day and horizon.
static int	ln_get_object_rst_horizon_offset(double JD, LnLnlatPosn observer, LnEquPosn object, BigDecimal horizon, LnRstTime rst, double ut_offset)
static int	ln_get_object_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, BigDecimal horizon, LnRstTime rst) int ln_get_object_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, long double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param horizon Horizon height \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time the rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day and horizon.
static int	ln_get_object_rst(double JD, LnLnlatPosn observer, LnEquPosn object, LnRstTime rst) int ln_get_object_rst(double JD, LnLnlatPosn observer, LnEquPosn object, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time the rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day.
static void	set_next_rst(LnRstTime rst, double diff, LnRstTime out)

Methods inherited from class java.lang.Object

clone, equals, finalize, getClass, hashCode, notify, notifyAll, toString, wait, wait, wait

Field Detail

LN_STAR_STANDART_HORIZON

public static final BigDecimal LN_STAR_STANDART_HORIZON

Constructor Detail

RiseSet

public RiseSet()

Method Detail

check_coords

public static int check_coords(LnLnlatPosn observer,
                               double H1,
                               BigDecimal horizon,
                               LnEquPosn object)

check_coords

public static int check_coords(LnLnlatPosn observer,
                               double H1,
                               double horizon,
                               LnEquPosn object)

ln_get_object_rst

public static int ln_get_object_rst(double JD,
                                    LnLnlatPosn observer,
                                    LnEquPosn object,
                                    LnRstTime rst)

int ln_get_object_rst(double JD, LnLnlatPosn observer, LnEquPosn object, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time the rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day. Note: this functions returns 1 if the object is circumpolar, that is it remains the whole day above the horizon. Returns -1 when it remains the whole day bellow the horizon.

ln_get_object_rst_horizon

public static int ln_get_object_rst_horizon(double JD,
                                            LnLnlatPosn observer,
                                            LnEquPosn object,
                                            BigDecimal horizon,
                                            LnRstTime rst)

int ln_get_object_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, long double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param horizon Horizon height \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time the rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day and horizon. Note: this functions returns 1 if the object is circumpolar, that is it remains the whole day above the horizon. Returns -1 when it remains whole day bellow the horizon.

ln_get_object_rst_horizon_offset

public static int ln_get_object_rst_horizon_offset(double JD,
                                                   LnLnlatPosn observer,
                                                   LnEquPosn object,
                                                   BigDecimal horizon,
                                                   LnRstTime rst,
                                                   double ut_offset)

ln_get_object_next_rst

public static int ln_get_object_next_rst(double JD,
                                         LnLnlatPosn observer,
                                         LnEquPosn object,
                                         LnRstTime rst)

int ln_get_object_next_rst(double JD, LnLnlatPosn observer, LnEquPosn object, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day and horizon. This function guarantee, that rise, set and transit will be in <JD, JD+1> range. Note: this functions returns 1 if the object is circumpolar, that is it remains the whole day above the horizon. Returns -1 when it remains whole day bellow the horizon.

set_next_rst

public static void set_next_rst(LnRstTime rst,
                                double diff,
                                LnRstTime out)

find_next

public static double find_next(double JD,
                               double jd1,
                               double jd2,
                               double jd3)

ln_get_object_next_rst_horizon

public static int ln_get_object_next_rst_horizon(double JD,
                                                 LnLnlatPosn observer,
                                                 LnEquPosn object,
                                                 BigDecimal horizon,
                                                 LnRstTime rst)

int ln_get_object_next_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param object Object position \param horizon Horizon height \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the object for the given Julian day and horizon. This function guarantee, that rise, set and transit will be in <JD, JD+1> range. Note: this functions returns 1 if the object is circumpolar, that is it remains the whole day above the horizon. Returns -1 when it remains whole day bellow the horizon.

ln_get_body_rst_horizon

public static int ln_get_body_rst_horizon(double JD,
                                          LnLnlatPosn observer,
                                          IGetEquBodyCoords get_equ_body_coords,
                                          double horizon,
                                          LnRstTime rst)

int ln_get_body_rst_horizon(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_equ_body_coords Pointer to get_equ_body_coords() function \param horizon Horizon, see LN_XXX_HORIZON constants \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time the rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon. Note 1: this functions returns 1 if the object is circumpolar, that is it remains the whole day above the horizon. Returns -1 when it remains whole day bellow the horizon. Note 2: this function will not work for body, which ra changes more then 180 deg in one day (get_equ_body_coords changes so much). But you should't use that function for any body which moves to fast..use some special function for such things.

ln_get_body_rst_horizon_offset

public static int ln_get_body_rst_horizon_offset(double JD,
                                                 LnLnlatPosn observer,
                                                 IGetEquBodyCoords get_equ_body_coords,
                                                 double horizon,
                                                 LnRstTime rst,
                                                 double ut_offset)

ln_get_body_next_rst_horizon

public static int ln_get_body_next_rst_horizon(double JD,
                                               LnLnlatPosn observer,
                                               IGetEquBodyCoords get_equ_body_coords,
                                               double horizon,
                                               LnRstTime rst)

int ln_get_body_next_rst_horizon(double JD, LnLnlatPosn observer, LnEquPosn object, double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_equ_body_coords Pointer to get_equ_body_coords() function \param horizon Horizon, see LN_XXX_HORIZON constants \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon. This function guarantee, that rise, set and transit will be in <JD, JD+1> range. Note 1: this functions returns 1 if the body is circumpolar, that is it remains the whole day either above or below the horizon. Note 2: This function will not work for body, which ra changes more then 180 deg in one day (get_equ_body_coords changes so much). But you should't use that function for any body which moves to fast..use some special function for such things.

ln_get_body_next_rst_horizon_future

public static int ln_get_body_next_rst_horizon_future(double JD,
                                                      LnLnlatPosn observer,
                                                      IGetEquBodyCoords get_equ_body_coords,
                                                      double horizon,
                                                      int day_limit,
                                                      LnRstTime rst)

int ln_get_body_next_rst_horizon_future(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double,LnEquPosn ), double horizon, int day_limit, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_equ_body_coords Pointer to get_equ_body_coords() function \param horizon Horizon, see LN_XXX_HORIZON constants \param day_limit Maximal number of days that will be searched for next rise and set \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon. This function guarantee, that rise, set and transit will be in <JD, JD + day_limit> range. Note 1: this functions returns 1 if the body is circumpolar, that is it remains the whole day either above or below the horizon. Note 2: This function will not work for body, which ra changes more than 180 deg in one day (get_equ_body_coords changes so much). But you should't use that function for any body which moves to fast..use some special function for such things.

ln_get_motion_body_rst_horizon

public static <T> int ln_get_motion_body_rst_horizon(double JD,
                                                     LnLnlatPosn observer,
                                                     IGetMotionBodyCoords<T> get_motion_body_coords,
                                                     T orbit,
                                                     double horizon,
                                                     LnRstTime rst)

int ln_get_body_rst_horizon(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_motion_body_coords Pointer to ln_get_ell_body_equ_coords. ln_get_para_body_equ_coords or ln_get_hyp_body_equ_coords function \param horizon Horizon, see LN_XXX_HORIZON constants \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time the rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon. Note 1: this functions returns 1 if the body is circumpolar, that is it remains the whole day either above or below the horizon.

ln_get_motion_body_rst_horizon_offset

public static <T> int ln_get_motion_body_rst_horizon_offset(double JD,
                                                            LnLnlatPosn observer,
                                                            IGetMotionBodyCoords<T> get_motion_body_coords,
                                                            T orbit,
                                                            double horizon,
                                                            LnRstTime rst,
                                                            double ut_offset)

ln_get_motion_body_next_rst_horizon

public static <T> int ln_get_motion_body_next_rst_horizon(double JD,
                                                          LnLnlatPosn observer,
                                                          IGetMotionBodyCoords<T> get_motion_body_coords,
                                                          T orbit,
                                                          double horizon,
                                                          LnRstTime rst)

int ln_get_body_next_rst_horizon(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_motion_body_coords Pointer to ln_get_ell_body_equ_coords. ln_get_para_body_equ_coords or ln_get_hyp_body_equ_coords function \param horizon Horizon, see LN_XXX_HORIZON constants \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon. This function guarantee, that rise, set and transit will be in <JD, JD+1> range. Note 1: this functions returns 1 if the body is circumpolar, that is it remains the whole day either above or below the horizon.

ln_get_motion_body_next_rst_horizon_future

public static <T> int ln_get_motion_body_next_rst_horizon_future(double JD,
                                                                 LnLnlatPosn observer,
                                                                 IGetMotionBodyCoords<T> get_motion_body_coords,
                                                                 T orbit,
                                                                 double horizon,
                                                                 int day_limit,
                                                                 LnRstTime rst)

int ln_get_motion_body_next_rst_horizon_future(double JD, LnLnlatPosn observer, void (*get_equ_body_coords) (double, LnEquPosn ), double horizon, int day_limit, LnRstTime rst); \param JD Julian day \param observer Observers position \param get_motion_body_coords Pointer to ln_get_ell_body_equ_coords. ln_get_para_body_equ_coords or ln_get_hyp_body_equ_coords function \param horizon Horizon, see LN_XXX_HORIZON constants \param day_limit Maximal number of days that will be searched for next rise and set \param rst Pointer to store Rise, Set and Transit time in JD \return 0 for success, 1 for circumpolar (above the horizon), -1 for circumpolar (bellow the horizon) Calculate the time of next rise, set and transit (crosses the local meridian at upper culmination) time of the body for the given Julian day and given horizon. This function guarantee, that rise, set and transit will be in <JD, JD + day_limit> range. Note 1: this functions returns 1 if the body is circumpolar, that is it remains the whole day either above or below the horizon.