Java Code Examples for sun.util.calendar.CalendarUtils#floorDivide()

/**
 * Sets the month of this date to the specified value. This
 * <tt>Date</tt> object is modified so that it represents a point
 * in time within the specified month, with the year, date, hour,
 * minute, and second the same as before, as interpreted in the
 * local time zone. If the date was October 31, for example, and
 * the month is set to June, then the new date will be treated as
 * if it were on July 1, because June has only 30 days.
 *
 * @param   month   the month value between 0-11.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(Calendar.MONTH, int month)</code>.
 */
@Deprecated
public void setMonth(int month) {
    int y = 0;
    if (month >= 12) {
        y = month / 12;
        month %= 12;
    } else if (month < 0) {
        y = CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar.Date d = getCalendarDate();
    if (y != 0) {
        d.setNormalizedYear(d.getNormalizedYear() + y);
    }
    d.setMonth(month + 1); // adjust 0-based to 1-based month numbering
}
 

/**
 * Sets the month of this date to the specified value. This
 * <tt>Date</tt> object is modified so that it represents a point
 * in time within the specified month, with the year, date, hour,
 * minute, and second the same as before, as interpreted in the
 * local time zone. If the date was October 31, for example, and
 * the month is set to June, then the new date will be treated as
 * if it were on July 1, because June has only 30 days.
 *
 * @param   month   the month value between 0-11.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(Calendar.MONTH, int month)</code>.
 */
@Deprecated
public void setMonth(int month) {
    int y = 0;
    if (month >= 12) {
        y = month / 12;
        month %= 12;
    } else if (month < 0) {
        y = CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar.Date d = getCalendarDate();
    if (y != 0) {
        d.setNormalizedYear(d.getNormalizedYear() + y);
    }
    d.setMonth(month + 1); // adjust 0-based to 1-based month numbering
}
 

/**
 * Sets the month of this date to the specified value. This
 * <tt>Date</tt> object is modified so that it represents a point
 * in time within the specified month, with the year, date, hour,
 * minute, and second the same as before, as interpreted in the
 * local time zone. If the date was October 31, for example, and
 * the month is set to June, then the new date will be treated as
 * if it were on July 1, because June has only 30 days.
 *
 * @param   month   the month value between 0-11.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(Calendar.MONTH, int month)</code>.
 */
@Deprecated
public void setMonth(int month) {
    int y = 0;
    if (month >= 12) {
        y = month / 12;
        month %= 12;
    } else if (month < 0) {
        y = CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar.Date d = getCalendarDate();
    if (y != 0) {
        d.setNormalizedYear(d.getNormalizedYear() + y);
    }
    d.setMonth(month + 1); // adjust 0-based to 1-based month numbering
}
 

/**
 * Sets the month of this date to the specified value. This
 * <tt>Date</tt> object is modified so that it represents a point
 * in time within the specified month, with the year, date, hour,
 * minute, and second the same as before, as interpreted in the
 * local time zone. If the date was October 31, for example, and
 * the month is set to June, then the new date will be treated as
 * if it were on July 1, because June has only 30 days.
 *
 * @param   month   the month value between 0-11.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(Calendar.MONTH, int month)</code>.
 */
@Deprecated
public void setMonth(int month) {
    int y = 0;
    if (month >= 12) {
        y = month / 12;
        month %= 12;
    } else if (month < 0) {
        y = CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar.Date d = getCalendarDate();
    if (y != 0) {
        d.setNormalizedYear(d.getNormalizedYear() + y);
    }
    d.setMonth(month + 1); // adjust 0-based to 1-based month numbering
}
 

/**
 * Sets the month of this date to the specified value. This
 * <tt>Date</tt> object is modified so that it represents a point
 * in time within the specified month, with the year, date, hour,
 * minute, and second the same as before, as interpreted in the
 * local time zone. If the date was October 31, for example, and
 * the month is set to June, then the new date will be treated as
 * if it were on July 1, because June has only 30 days.
 *
 * @param   month   the month value between 0-11.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(Calendar.MONTH, int month)</code>.
 */
@Deprecated
public void setMonth(int month) {
    int y = 0;
    if (month >= 12) {
        y = month / 12;
        month %= 12;
    } else if (month < 0) {
        y = CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar.Date d = getCalendarDate();
    if (y != 0) {
        d.setNormalizedYear(d.getNormalizedYear() + y);
    }
    d.setMonth(month + 1); // adjust 0-based to 1-based month numbering
}
 

private void setGregorianChange(long cutoverTime) {
    gregorianCutover = cutoverTime;
    gregorianCutoverDate = CalendarUtils.floorDivide(cutoverTime, ONE_DAY)
                            + EPOCH_OFFSET;

    // To provide the "pure" Julian calendar as advertised.
    // Strictly speaking, the last millisecond should be a
    // Gregorian date. However, the API doc specifies that setting
    // the cutover date to Long.MAX_VALUE will make this calendar
    // a pure Julian calendar. (See 4167995)
    if (cutoverTime == Long.MAX_VALUE) {
        gregorianCutoverDate++;
    }

    BaseCalendar.Date d = getGregorianCutoverDate();

    // Set the cutover year (in the Gregorian year numbering)
    gregorianCutoverYear = d.getYear();

    BaseCalendar julianCal = getJulianCalendarSystem();
    d = (BaseCalendar.Date) julianCal.newCalendarDate(TimeZone.NO_TIMEZONE);
    julianCal.getCalendarDateFromFixedDate(d, gregorianCutoverDate - 1);
    gregorianCutoverYearJulian = d.getNormalizedYear();

    if (time < gregorianCutover) {
        // The field values are no longer valid under the new
        // cutover date.
        setUnnormalized();
    }
}
 

private void setGregorianChange(long cutoverTime) {
    gregorianCutover = cutoverTime;
    gregorianCutoverDate = CalendarUtils.floorDivide(cutoverTime, ONE_DAY)
                            + EPOCH_OFFSET;

    // To provide the "pure" Julian calendar as advertised.
    // Strictly speaking, the last millisecond should be a
    // Gregorian date. However, the API doc specifies that setting
    // the cutover date to Long.MAX_VALUE will make this calendar
    // a pure Julian calendar. (See 4167995)
    if (cutoverTime == Long.MAX_VALUE) {
        gregorianCutoverDate++;
    }

    BaseCalendar.Date d = getGregorianCutoverDate();

    // Set the cutover year (in the Gregorian year numbering)
    gregorianCutoverYear = d.getYear();

    BaseCalendar julianCal = getJulianCalendarSystem();
    d = (BaseCalendar.Date) julianCal.newCalendarDate(TimeZone.NO_TIMEZONE);
    julianCal.getCalendarDateFromFixedDate(d, gregorianCutoverDate - 1);
    gregorianCutoverYearJulian = d.getNormalizedYear();

    if (time < gregorianCutover) {
        // The field values are no longer valid under the new
        // cutover date.
        setUnnormalized();
    }
}
 

private void setGregorianChange(long cutoverTime) {
    gregorianCutover = cutoverTime;
    gregorianCutoverDate = CalendarUtils.floorDivide(cutoverTime, ONE_DAY)
                            + EPOCH_OFFSET;

    // To provide the "pure" Julian calendar as advertised.
    // Strictly speaking, the last millisecond should be a
    // Gregorian date. However, the API doc specifies that setting
    // the cutover date to Long.MAX_VALUE will make this calendar
    // a pure Julian calendar. (See 4167995)
    if (cutoverTime == Long.MAX_VALUE) {
        gregorianCutoverDate++;
    }

    BaseCalendar.Date d = getGregorianCutoverDate();

    // Set the cutover year (in the Gregorian year numbering)
    gregorianCutoverYear = d.getYear();

    BaseCalendar julianCal = getJulianCalendarSystem();
    d = (BaseCalendar.Date) julianCal.newCalendarDate(TimeZone.NO_TIMEZONE);
    julianCal.getCalendarDateFromFixedDate(d, gregorianCutoverDate - 1);
    gregorianCutoverYearJulian = d.getNormalizedYear();

    if (time < gregorianCutover) {
        // The field values are no longer valid under the new
        // cutover date.
        setUnnormalized();
    }
}
 

private void setGregorianChange(long cutoverTime) {
    gregorianCutover = cutoverTime;
    gregorianCutoverDate = CalendarUtils.floorDivide(cutoverTime, ONE_DAY)
                            + EPOCH_OFFSET;

    // To provide the "pure" Julian calendar as advertised.
    // Strictly speaking, the last millisecond should be a
    // Gregorian date. However, the API doc specifies that setting
    // the cutover date to Long.MAX_VALUE will make this calendar
    // a pure Julian calendar. (See 4167995)
    if (cutoverTime == Long.MAX_VALUE) {
        gregorianCutoverDate++;
    }

    BaseCalendar.Date d = getGregorianCutoverDate();

    // Set the cutover year (in the Gregorian year numbering)
    gregorianCutoverYear = d.getYear();

    BaseCalendar julianCal = getJulianCalendarSystem();
    d = (BaseCalendar.Date) julianCal.newCalendarDate(TimeZone.NO_TIMEZONE);
    julianCal.getCalendarDateFromFixedDate(d, gregorianCutoverDate - 1);
    gregorianCutoverYearJulian = d.getNormalizedYear();

    if (time < gregorianCutover) {
        // The field values are no longer valid under the new
        // cutover date.
        setUnnormalized();
    }
}
 

private void setGregorianChange(long cutoverTime) {
    gregorianCutover = cutoverTime;
    gregorianCutoverDate = CalendarUtils.floorDivide(cutoverTime, ONE_DAY)
                            + EPOCH_OFFSET;

    // To provide the "pure" Julian calendar as advertised.
    // Strictly speaking, the last millisecond should be a
    // Gregorian date. However, the API doc specifies that setting
    // the cutover date to Long.MAX_VALUE will make this calendar
    // a pure Julian calendar. (See 4167995)
    if (cutoverTime == Long.MAX_VALUE) {
        gregorianCutoverDate++;
    }

    BaseCalendar.Date d = getGregorianCutoverDate();

    // Set the cutover year (in the Gregorian year numbering)
    gregorianCutoverYear = d.getYear();

    BaseCalendar julianCal = getJulianCalendarSystem();
    d = (BaseCalendar.Date) julianCal.newCalendarDate(TimeZone.NO_TIMEZONE);
    julianCal.getCalendarDateFromFixedDate(d, gregorianCutoverDate - 1);
    gregorianCutoverYearJulian = d.getNormalizedYear();

    if (time < gregorianCutover) {
        // The field values are no longer valid under the new
        // cutover date.
        setUnnormalized();
    }
}
 

private void setGregorianChange(long cutoverTime) {
    gregorianCutover = cutoverTime;
    gregorianCutoverDate = CalendarUtils.floorDivide(cutoverTime, ONE_DAY)
                            + EPOCH_OFFSET;

    // To provide the "pure" Julian calendar as advertised.
    // Strictly speaking, the last millisecond should be a
    // Gregorian date. However, the API doc specifies that setting
    // the cutover date to Long.MAX_VALUE will make this calendar
    // a pure Julian calendar. (See 4167995)
    if (cutoverTime == Long.MAX_VALUE) {
        gregorianCutoverDate++;
    }

    BaseCalendar.Date d = getGregorianCutoverDate();

    // Set the cutover year (in the Gregorian year numbering)
    gregorianCutoverYear = d.getYear();

    BaseCalendar julianCal = getJulianCalendarSystem();
    d = (BaseCalendar.Date) julianCal.newCalendarDate(TimeZone.NO_TIMEZONE);
    julianCal.getCalendarDateFromFixedDate(d, gregorianCutoverDate - 1);
    gregorianCutoverYearJulian = d.getNormalizedYear();

    if (time < gregorianCutover) {
        // The field values are no longer valid under the new
        // cutover date.
        setUnnormalized();
    }
}
 

/**
 * Determines the date and time based on the arguments. The
 * arguments are interpreted as a year, month, day of the month,
 * hour of the day, minute within the hour, and second within the
 * minute, exactly as for the <tt>Date</tt> constructor with six
 * arguments, except that the arguments are interpreted relative
 * to UTC rather than to the local time zone. The time indicated is
 * returned represented as the distance, measured in milliseconds,
 * of that time from the epoch (00:00:00 GMT on January 1, 1970).
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @return  the number of milliseconds since January 1, 1970, 00:00:00 GMT for
 *          the date and time specified by the arguments.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>, using a UTC
 * <code>TimeZone</code>, followed by <code>Calendar.getTime().getTime()</code>.
 */
@Deprecated
public static long UTC(int year, int month, int date,
                       int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    int m = month + 1;
    BaseCalendar cal = getCalendarSystem(y);
    BaseCalendar.Date udate = (BaseCalendar.Date) cal.newCalendarDate(null);
    udate.setNormalizedDate(y, m, date).setTimeOfDay(hrs, min, sec, 0);

    // Use a Date instance to perform normalization. Its fastTime
    // is the UTC value after the normalization.
    Date d = new Date(0);
    d.normalize(udate);
    return d.fastTime;
}
 

/**
 * Allocates a <code>Date</code> object and initializes it so that
 * it represents the instant at the start of the second specified
 * by the <code>year</code>, <code>month</code>, <code>date</code>,
 * <code>hrs</code>, <code>min</code>, and <code>sec</code> arguments,
 * in the local time zone.
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>.
 */
@Deprecated
public Date(int year, int month, int date, int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar cal = getCalendarSystem(y);
    cdate = (BaseCalendar.Date) cal.newCalendarDate(TimeZone.getDefaultRef());
    cdate.setNormalizedDate(y, month + 1, date).setTimeOfDay(hrs, min, sec, 0);
    getTimeImpl();
    cdate = null;
}
 

/**
 * Determines the date and time based on the arguments. The
 * arguments are interpreted as a year, month, day of the month,
 * hour of the day, minute within the hour, and second within the
 * minute, exactly as for the <tt>Date</tt> constructor with six
 * arguments, except that the arguments are interpreted relative
 * to UTC rather than to the local time zone. The time indicated is
 * returned represented as the distance, measured in milliseconds,
 * of that time from the epoch (00:00:00 GMT on January 1, 1970).
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @return  the number of milliseconds since January 1, 1970, 00:00:00 GMT for
 *          the date and time specified by the arguments.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>, using a UTC
 * <code>TimeZone</code>, followed by <code>Calendar.getTime().getTime()</code>.
 */
@Deprecated
public static long UTC(int year, int month, int date,
                       int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    int m = month + 1;
    BaseCalendar cal = getCalendarSystem(y);
    BaseCalendar.Date udate = (BaseCalendar.Date) cal.newCalendarDate(null);
    udate.setNormalizedDate(y, m, date).setTimeOfDay(hrs, min, sec, 0);

    // Use a Date instance to perform normalization. Its fastTime
    // is the UTC value after the normalization.
    Date d = new Date(0);
    d.normalize(udate);
    return d.fastTime;
}
 

/**
 * Determines the date and time based on the arguments. The
 * arguments are interpreted as a year, month, day of the month,
 * hour of the day, minute within the hour, and second within the
 * minute, exactly as for the <tt>Date</tt> constructor with six
 * arguments, except that the arguments are interpreted relative
 * to UTC rather than to the local time zone. The time indicated is
 * returned represented as the distance, measured in milliseconds,
 * of that time from the epoch (00:00:00 GMT on January 1, 1970).
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @return  the number of milliseconds since January 1, 1970, 00:00:00 GMT for
 *          the date and time specified by the arguments.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>, using a UTC
 * <code>TimeZone</code>, followed by <code>Calendar.getTime().getTime()</code>.
 */
@Deprecated
public static long UTC(int year, int month, int date,
                       int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    int m = month + 1;
    BaseCalendar cal = getCalendarSystem(y);
    BaseCalendar.Date udate = (BaseCalendar.Date) cal.newCalendarDate(null);
    udate.setNormalizedDate(y, m, date).setTimeOfDay(hrs, min, sec, 0);

    // Use a Date instance to perform normalization. Its fastTime
    // is the UTC value after the normalization.
    Date d = new Date(0);
    d.normalize(udate);
    return d.fastTime;
}
 

/**
 * Allocates a <code>Date</code> object and initializes it so that
 * it represents the instant at the start of the second specified
 * by the <code>year</code>, <code>month</code>, <code>date</code>,
 * <code>hrs</code>, <code>min</code>, and <code>sec</code> arguments,
 * in the local time zone.
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>.
 */
@Deprecated
public Date(int year, int month, int date, int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar cal = getCalendarSystem(y);
    cdate = (BaseCalendar.Date) cal.newCalendarDate(TimeZone.getDefaultRef());
    cdate.setNormalizedDate(y, month + 1, date).setTimeOfDay(hrs, min, sec, 0);
    getTimeImpl();
    cdate = null;
}
 

/**
 * Determines the date and time based on the arguments. The
 * arguments are interpreted as a year, month, day of the month,
 * hour of the day, minute within the hour, and second within the
 * minute, exactly as for the <tt>Date</tt> constructor with six
 * arguments, except that the arguments are interpreted relative
 * to UTC rather than to the local time zone. The time indicated is
 * returned represented as the distance, measured in milliseconds,
 * of that time from the epoch (00:00:00 GMT on January 1, 1970).
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @return  the number of milliseconds since January 1, 1970, 00:00:00 GMT for
 *          the date and time specified by the arguments.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>, using a UTC
 * <code>TimeZone</code>, followed by <code>Calendar.getTime().getTime()</code>.
 */
@Deprecated
public static long UTC(int year, int month, int date,
                       int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    int m = month + 1;
    BaseCalendar cal = getCalendarSystem(y);
    BaseCalendar.Date udate = (BaseCalendar.Date) cal.newCalendarDate(null);
    udate.setNormalizedDate(y, m, date).setTimeOfDay(hrs, min, sec, 0);

    // Use a Date instance to perform normalization. Its fastTime
    // is the UTC value after the normalization.
    Date d = new Date(0);
    d.normalize(udate);
    return d.fastTime;
}
 

/**
 * Allocates a {@code Date} object and initializes it so that
 * it represents the instant at the start of the second specified
 * by the {@code year}, {@code month}, {@code date},
 * {@code hrs}, {@code min}, and {@code sec} arguments,
 * in the local time zone.
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by {@code Calendar.set(year + 1900, month, date, hrs, min, sec)}
 * or {@code GregorianCalendar(year + 1900, month, date, hrs, min, sec)}.
 */
@Deprecated
public Date(int year, int month, int date, int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar cal = getCalendarSystem(y);
    cdate = (BaseCalendar.Date) cal.newCalendarDate(TimeZone.getDefaultRef());
    cdate.setNormalizedDate(y, month + 1, date).setTimeOfDay(hrs, min, sec, 0);
    getTimeImpl();
    cdate = null;
}
 

/**
 * Determines the date and time based on the arguments. The
 * arguments are interpreted as a year, month, day of the month,
 * hour of the day, minute within the hour, and second within the
 * minute, exactly as for the <tt>Date</tt> constructor with six
 * arguments, except that the arguments are interpreted relative
 * to UTC rather than to the local time zone. The time indicated is
 * returned represented as the distance, measured in milliseconds,
 * of that time from the epoch (00:00:00 GMT on January 1, 1970).
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @return  the number of milliseconds since January 1, 1970, 00:00:00 GMT for
 *          the date and time specified by the arguments.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>, using a UTC
 * <code>TimeZone</code>, followed by <code>Calendar.getTime().getTime()</code>.
 */
@Deprecated
public static long UTC(int year, int month, int date,
                       int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    int m = month + 1;
    BaseCalendar cal = getCalendarSystem(y);
    BaseCalendar.Date udate = (BaseCalendar.Date) cal.newCalendarDate(null);
    udate.setNormalizedDate(y, m, date).setTimeOfDay(hrs, min, sec, 0);

    // Use a Date instance to perform normalization. Its fastTime
    // is the UTC value after the normalization.
    Date d = new Date(0);
    d.normalize(udate);
    return d.fastTime;
}
 

/**
 * Allocates a <code>Date</code> object and initializes it so that
 * it represents the instant at the start of the second specified
 * by the <code>year</code>, <code>month</code>, <code>date</code>,
 * <code>hrs</code>, <code>min</code>, and <code>sec</code> arguments,
 * in the local time zone.
 *
 * @param   year    the year minus 1900.
 * @param   month   the month between 0-11.
 * @param   date    the day of the month between 1-31.
 * @param   hrs     the hours between 0-23.
 * @param   min     the minutes between 0-59.
 * @param   sec     the seconds between 0-59.
 * @see     java.util.Calendar
 * @deprecated As of JDK version 1.1,
 * replaced by <code>Calendar.set(year + 1900, month, date,
 * hrs, min, sec)</code> or <code>GregorianCalendar(year + 1900,
 * month, date, hrs, min, sec)</code>.
 */
@Deprecated
public Date(int year, int month, int date, int hrs, int min, int sec) {
    int y = year + 1900;
    // month is 0-based. So we have to normalize month to support Long.MAX_VALUE.
    if (month >= 12) {
        y += month / 12;
        month %= 12;
    } else if (month < 0) {
        y += CalendarUtils.floorDivide(month, 12);
        month = CalendarUtils.mod(month, 12);
    }
    BaseCalendar cal = getCalendarSystem(y);
    cdate = (BaseCalendar.Date) cal.newCalendarDate(TimeZone.getDefaultRef());
    cdate.setNormalizedDate(y, month + 1, date).setTimeOfDay(hrs, min, sec, 0);
    getTimeImpl();
    cdate = null;
}