void HebrewCalendar::validateField(UCalendarDateFields field, UErrorCode &status) {
if (field == UCAL_MONTH && !isLeapYear(handleGetExtendedYear()) && internalGet(UCAL_MONTH) == ADAR_1) {
status = U_ILLEGAL_ARGUMENT_ERROR;
return;
}
Calendar::validateField(field, status);
}
void BuddhistCalendar::handleComputeFields(int32_t julianDay, UErrorCode& status)
{
GregorianCalendar::handleComputeFields(julianDay, status);
int32_t y = internalGet(UCAL_EXTENDED_YEAR) - kBuddhistEraStart;
internalSet(UCAL_ERA, 0);
internalSet(UCAL_YEAR, y);
}
int32_t
CopticCalendar::handleGetExtendedYear()
{
int32_t eyear;
if (newerField(UCAL_EXTENDED_YEAR, UCAL_YEAR) == UCAL_EXTENDED_YEAR) {
eyear = internalGet(UCAL_EXTENDED_YEAR, 1); // Default to year 1
} else {
// The year defaults to the epoch start, the era to CE
int32_t era = internalGet(UCAL_ERA, CE);
if (era == BCE) {
eyear = 1 - internalGet(UCAL_YEAR, 1); // Convert to extended year
} else {
eyear = internalGet(UCAL_YEAR, 1); // Default to year 1
}
}
return eyear;
}
int32_t
BuddhistCalendar::monthLength(int32_t month) const
{
UErrorCode status = U_ZERO_ERROR;
int32_t year = internalGet(UCAL_YEAR);
// ignore era
return GregorianCalendar::monthLength(month, getGregorianYear(status));
}
/**
* Return the Julian day number of day before the first day of the
* given month in the given extended year.
*
* <p>Note: This method reads the IS_LEAP_MONTH field to determine
* whether the given month is a leap month.
* @param eyear the extended year
* @param month the zero-based month. The month is also determined
* by reading the IS_LEAP_MONTH field.
* @return the Julian day number of the day before the first
* day of the given month and year
* @stable ICU 2.8
*/
int32_t ChineseCalendar::handleComputeMonthStart(int32_t eyear, int32_t month, UBool useMonth) const {
ChineseCalendar *nonConstThis = (ChineseCalendar*)this; // cast away const
// If the month is out of range, adjust it into range, and
// modify the extended year value accordingly.
if (month < 0 || month > 11) {
double m = month;
eyear += (int32_t)ClockMath::floorDivide(m, 12.0, m);
month = (int32_t)m;
}
int32_t gyear = eyear + fEpochYear - 1; // Gregorian year
int32_t theNewYear = newYear(gyear);
int32_t newMoon = newMoonNear(theNewYear + month * 29, TRUE);
int32_t julianDay = newMoon + kEpochStartAsJulianDay;
// Save fields for later restoration
int32_t saveMonth = internalGet(UCAL_MONTH);
int32_t saveIsLeapMonth = internalGet(UCAL_IS_LEAP_MONTH);
// Ignore IS_LEAP_MONTH field if useMonth is false
int32_t isLeapMonth = useMonth ? saveIsLeapMonth : 0;
UErrorCode status = U_ZERO_ERROR;
nonConstThis->computeGregorianFields(julianDay, status);
if (U_FAILURE(status))
return 0;
// This will modify the MONTH and IS_LEAP_MONTH fields (only)
nonConstThis->computeChineseFields(newMoon, getGregorianYear(),
getGregorianMonth(), FALSE);
if (month != internalGet(UCAL_MONTH) ||
isLeapMonth != internalGet(UCAL_IS_LEAP_MONTH)) {
newMoon = newMoonNear(newMoon + SYNODIC_GAP, TRUE);
julianDay = newMoon + kEpochStartAsJulianDay;
}
nonConstThis->internalSet(UCAL_MONTH, saveMonth);
nonConstThis->internalSet(UCAL_IS_LEAP_MONTH, saveIsLeapMonth);
return julianDay - 1;
}
int32_t GregorianCalendar::handleGetExtendedYearFromWeekFields(int32_t yearWoy, int32_t woy)
{
// convert year to extended form
int32_t era = internalGet(UCAL_ERA, AD);
if(era == BC) {
yearWoy = 1 - yearWoy;
}
return Calendar::handleGetExtendedYearFromWeekFields(yearWoy, woy);
}
int32_t JapaneseCalendar::handleGetExtendedYear()
{
// EXTENDED_YEAR in JapaneseCalendar is a Gregorian year
// The default value of EXTENDED_YEAR is 1970 (Showa 45)
int32_t year;
if (newerField(UCAL_EXTENDED_YEAR, UCAL_YEAR) == UCAL_EXTENDED_YEAR &&
newerField(UCAL_EXTENDED_YEAR, UCAL_ERA) == UCAL_EXTENDED_YEAR)
{
year = internalGet(UCAL_EXTENDED_YEAR, kGregorianEpoch);
}
else
{
// Subtract one because year starts at 1
year = internalGet(UCAL_YEAR) + kEraInfo[internalGetEra()].year - 1;
}
return year;
}
int32_t TaiwanCalendar::handleGetExtendedYear()
{
// EXTENDED_YEAR in TaiwanCalendar is a Gregorian year
// The default value of EXTENDED_YEAR is 1970 (Minguo 59)
int32_t year = kGregorianEpoch;
if (newerField(UCAL_EXTENDED_YEAR, UCAL_YEAR) == UCAL_EXTENDED_YEAR
&& newerField(UCAL_EXTENDED_YEAR, UCAL_ERA) == UCAL_EXTENDED_YEAR) {
year = internalGet(UCAL_EXTENDED_YEAR, kGregorianEpoch);
} else {
int32_t era = internalGet(UCAL_ERA, MINGUO);
if(era == MINGUO) {
year = internalGet(UCAL_YEAR, 1) + kTaiwanEraStart;
} else if(era == BEFORE_MINGUO) {
year = 1 - internalGet(UCAL_YEAR, 1) + kTaiwanEraStart;
}
}
return year;
}
UBool
GregorianCalendar::inDaylightTime(UErrorCode& status) const
{
if (U_FAILURE(status) || !getTimeZone().useDaylightTime())
return FALSE;
// Force an update of the state of the Calendar.
((GregorianCalendar*)this)->complete(status); // cast away const
return (UBool)(U_SUCCESS(status) ? (internalGet(UCAL_DST_OFFSET) != 0) : FALSE);
}
bool SkBitSet::orBits(const SkBitSet& source) {
if (fBitCount != source.fBitCount) {
return false;
}
uint32_t* targetBitmap = internalGet(0);
uint32_t* sourceBitmap = source.internalGet(0);
for (size_t i = 0; i < fDwordCount; ++i) {
targetBitmap[i] |= sourceBitmap[i];
}
return true;
}
void BuddhistCalendar::timeToFields(UDate theTime, UBool quick, UErrorCode& status)
{
//Calendar::timeToFields(theTime, quick, status);
int32_t era = internalGet(UCAL_ERA);
int32_t year = internalGet(UCAL_YEAR);
if(era == GregorianCalendar::BC) {
year = 1-year;
era = BuddhistCalendar::BE;
} else if(era == GregorianCalendar::AD) {
era = BuddhistCalendar::BE;
} else {
status = U_INTERNAL_PROGRAM_ERROR;
}
year = year - kBuddhistEraStart;
internalSet(UCAL_ERA, era);
internalSet(UCAL_YEAR, year);
}
UBool
IslamicCalendar::inDaylightTime(UErrorCode & status) const
{
// copied from GregorianCalendar
if (U_FAILURE(status) || (&(getTimeZone()) == NULL && !getTimeZone().useDaylightTime()))
{ return FALSE; }
// Force an update of the state of the Calendar.
((IslamicCalendar *)this)->complete(status); // cast away const
return (UBool)(U_SUCCESS(status) ? (internalGet(UCAL_DST_OFFSET) != 0) : FALSE);
}
void TaiwanCalendar::handleComputeFields(int32_t julianDay, UErrorCode& status)
{
GregorianCalendar::handleComputeFields(julianDay, status);
int32_t y = internalGet(UCAL_EXTENDED_YEAR) - kTaiwanEraStart;
if(y>0) {
internalSet(UCAL_ERA, MINGUO);
internalSet(UCAL_YEAR, y);
} else {
internalSet(UCAL_ERA, BEFORE_MINGUO);
internalSet(UCAL_YEAR, 1-y);
}
}
int32_t
EthiopicCalendar::handleGetExtendedYear()
{
// Ethiopic calendar uses EXTENDED_YEAR aligned to
// Amelete Hihret year always.
int32_t eyear;
if (newerField(UCAL_EXTENDED_YEAR, UCAL_YEAR) == UCAL_EXTENDED_YEAR) {
eyear = internalGet(UCAL_EXTENDED_YEAR, 1); // Default to year 1
} else if (isAmeteAlemEra()) {
eyear = internalGet(UCAL_YEAR, 1 + AMETE_MIHRET_DELTA)
- AMETE_MIHRET_DELTA; // Default to year 1 of Amelete Mihret
} else {
// The year defaults to the epoch start, the era to AMETE_MIHRET
int32_t era = internalGet(UCAL_ERA, AMETE_MIHRET);
if (era == AMETE_MIHRET) {
eyear = internalGet(UCAL_YEAR, 1); // Default to year 1
} else {
eyear = internalGet(UCAL_YEAR, 1) - AMETE_MIHRET_DELTA;
}
}
return eyear;
}
UBool
GregorianCalendar::validateFields() const
{
for (int32_t field = 0; field < UCAL_FIELD_COUNT; field++) {
// Ignore DATE and DAY_OF_YEAR which are handled below
if (field != UCAL_DATE &&
field != UCAL_DAY_OF_YEAR &&
isSet((UCalendarDateFields)field) &&
! boundsCheck(internalGet((UCalendarDateFields)field), (UCalendarDateFields)field))
return FALSE;
}
// Values differ in Least-Maximum and Maximum should be handled
// specially.
if (isSet(UCAL_DATE)) {
int32_t date = internalGet(UCAL_DATE);
if (date < getMinimum(UCAL_DATE) ||
date > monthLength(internalGet(UCAL_MONTH))) {
return FALSE;
}
}
if (isSet(UCAL_DAY_OF_YEAR)) {
int32_t days = internalGet(UCAL_DAY_OF_YEAR);
if (days < 1 || days > yearLength()) {
return FALSE;
}
}
// Handle DAY_OF_WEEK_IN_MONTH, which must not have the value zero.
// We've checked against minimum and maximum above already.
if (isSet(UCAL_DAY_OF_WEEK_IN_MONTH) &&
0 == internalGet(UCAL_DAY_OF_WEEK_IN_MONTH)) {
return FALSE;
}
return TRUE;
}
int32_t GregorianCalendar::handleGetExtendedYear() {
// the year to return
int32_t year = kEpochYear;
// year field to use
int32_t yearField = UCAL_EXTENDED_YEAR;
// There are three separate fields which could be used to
// derive the proper year. Use the one most recently set.
if (fStamp[yearField] < fStamp[UCAL_YEAR])
yearField = UCAL_YEAR;
if (fStamp[yearField] < fStamp[UCAL_YEAR_WOY])
yearField = UCAL_YEAR_WOY;
// based on the "best" year field, get the year
switch(yearField) {
case UCAL_EXTENDED_YEAR:
year = internalGet(UCAL_EXTENDED_YEAR, kEpochYear);
break;
case UCAL_YEAR:
{
// The year defaults to the epoch start, the era to AD
int32_t era = internalGet(UCAL_ERA, AD);
if (era == BC) {
year = 1 - internalGet(UCAL_YEAR, 1); // Convert to extended year
} else {
year = internalGet(UCAL_YEAR, kEpochYear);
}
}
break;
case UCAL_YEAR_WOY:
year = handleGetExtendedYearFromWeekFields(internalGet(UCAL_YEAR_WOY), internalGet(UCAL_WEEK_OF_YEAR));
#if defined (U_DEBUG_CAL)
// if(internalGet(UCAL_YEAR_WOY) != year) {
fprintf(stderr, "%s:%d: hGEYFWF[%d,%d] -> %d\n",
__FILE__, __LINE__,internalGet(UCAL_YEAR_WOY),internalGet(UCAL_WEEK_OF_YEAR),year);
//}
#endif
break;
default:
year = kEpochYear;
}
return year;
}
void BuddhistCalendar::add(UCalendarDateFields field, int32_t amount, UErrorCode& status)
{
if (U_FAILURE(status))
return;
if (amount == 0)
return; // Do nothing!
if(field == UCAL_YEAR /* || field == UCAL_YEAR_WOY */) {
int32_t year = internalGet(field);
int32_t era = internalGetEra();
year += amount;
set(field,year);
pinDayOfMonth();
} else {
GregorianCalendar::add(field,amount,status);
}
}
int32_t
GregorianCalendar::yearLength() const
{
return isLeapYear(internalGet(UCAL_YEAR)) ? 366 : 365;
}
int32_t BuddhistCalendar::internalGetEra() const
{
return isSet(UCAL_ERA) ? internalGet(UCAL_ERA) : BE;
}
bool SkBitSet::isBitSet(int index) const {
uint32_t mask = 1 << (index % 32);
return 0 != (*internalGet(index) & mask);
}
/**
* Return the ERA. We need a special method for this because the
* default ERA is AD, but a zero (unset) ERA is BC.
*/
int32_t
GregorianCalendar::internalGetEra() const {
return isSet(UCAL_ERA) ? internalGet(UCAL_ERA) : (int32_t)AD;
}
void JapaneseCalendar::handleComputeFields(int32_t julianDay, UErrorCode & status)
{
//Calendar::timeToFields(theTime, quick, status);
GregorianCalendar::handleComputeFields(julianDay, status);
int32_t year = internalGet(UCAL_EXTENDED_YEAR); // Gregorian year
int32_t low = 0;
// Short circuit for recent years. Most modern computations will
// occur in the current era and won't require the binary search.
// Note that if the year is == the current era year, then we use
// the binary search to handle the month/dom comparison.
#ifdef U_DEBUG_JCAL
fprintf(stderr, "== %d \n", year);
#endif
if (year > kEraInfo[kCurrentEra].year)
{
low = kCurrentEra;
#ifdef U_DEBUG_JCAL
fprintf(stderr, " low=%d (special)\n", low);
#endif
}
else
{
// Binary search
int32_t high = kEraCount;
#ifdef U_DEBUG_JCAL
fprintf(stderr, " high=%d\n", high);
#endif
while (low < high - 1)
{
int32_t i = (low + high) / 2;
int32_t diff = year - kEraInfo[i].year;
#ifdef U_DEBUG_JCAL
fprintf(stderr, " d=%d low=%d, high=%d. Considering %d:M%d D%d Y%d. { we are ?:M%d D%d Y%d }\n",
diff, low, high, i, kEraInfo[i].month - 1, kEraInfo[i].day, kEraInfo[i].year, internalGet(UCAL_MONTH),
internalGet(UCAL_DATE), year);
#endif
// If years are the same, then compare the months, and if those
// are the same, compare days of month. In the ERAS array
// months are 1-based for easier maintenance.
if (diff == 0)
{
diff = internalGet(UCAL_MONTH) - (kEraInfo[i].month - 1);
#ifdef U_DEBUG_JCAL
fprintf(stderr, "diff now %d (M) = %d - %d - 1\n", diff, internalGet(UCAL_MONTH), kEraInfo[i].month);
#endif
if (diff == 0)
{
diff = internalGet(UCAL_DATE) - kEraInfo[i].day;
#ifdef U_DEBUG_JCAL
fprintf(stderr, "diff now %d (D)\n", diff);
#endif
}
}
if (diff >= 0)
{
low = i;
}
else
{
high = i;
}
#ifdef U_DEBUG_JCAL
fprintf(stderr, ". low=%d, high=%d, i=%d, diff=%d.. %d\n", low, high, i, diff, year);
#endif
}
}
#ifdef U_DEBUG_JCAL
fprintf(stderr, " low[era]=%d,.. %d\n", low, year);
#endif
// Now we've found the last era that starts before this date, so
// adjust the year to count from the start of that era. Note that
// all dates before the first era will fall into the first era by
// the algorithm.
internalSet(UCAL_ERA, low);
internalSet(UCAL_YEAR, year - kEraInfo[low].year + 1);
#ifdef U_DEBUG_JCAL
fprintf(stderr, " Set ERA=%d, year=%d\n", low, year - kEraInfo[low].year + 1);
#endif
}
int32_t
GregorianCalendar::monthLength(int32_t month) const
{
int32_t year = internalGet(UCAL_EXTENDED_YEAR);
return handleGetMonthLength(year, month);
}
int32_t JapaneseCalendar::internalGetEra() const
{
return internalGet(UCAL_ERA, kCurrentEra);
}
void
GregorianCalendar::roll(UCalendarDateFields field, int32_t amount, UErrorCode& status)
{
if((amount == 0) || U_FAILURE(status)) {
return;
}
// J81 processing. (gregorian cutover)
UBool inCutoverMonth = FALSE;
int32_t cMonthLen=0; // 'c' for cutover; in days
int32_t cDayOfMonth=0; // no discontinuity: [0, cMonthLen)
double cMonthStart=0.0; // in ms
// Common code - see if we're in the cutover month of the cutover year
if(get(UCAL_EXTENDED_YEAR, status) == fGregorianCutoverYear) {
switch (field) {
case UCAL_DAY_OF_MONTH:
case UCAL_WEEK_OF_MONTH:
{
int32_t max = monthLength(internalGet(UCAL_MONTH));
UDate t = internalGetTime();
// We subtract 1 from the DAY_OF_MONTH to make it zero-based, and an
// additional 10 if we are after the cutover. Thus the monthStart
// value will be correct iff we actually are in the cutover month.
cDayOfMonth = internalGet(UCAL_DAY_OF_MONTH) - ((t >= fGregorianCutover) ? 10 : 0);
cMonthStart = t - ((cDayOfMonth - 1) * kOneDay);
// A month containing the cutover is 10 days shorter.
if ((cMonthStart < fGregorianCutover) &&
(cMonthStart + (cMonthLen=(max-10))*kOneDay >= fGregorianCutover)) {
inCutoverMonth = TRUE;
}
}
default:
;
}
}
switch (field) {
case UCAL_WEEK_OF_YEAR: {
// Unlike WEEK_OF_MONTH, WEEK_OF_YEAR never shifts the day of the
// week. Also, rolling the week of the year can have seemingly
// strange effects simply because the year of the week of year
// may be different from the calendar year. For example, the
// date Dec 28, 1997 is the first day of week 1 of 1998 (if
// weeks start on Sunday and the minimal days in first week is
// <= 3).
int32_t woy = get(UCAL_WEEK_OF_YEAR, status);
// Get the ISO year, which matches the week of year. This
// may be one year before or after the calendar year.
int32_t isoYear = get(UCAL_YEAR_WOY, status);
int32_t isoDoy = internalGet(UCAL_DAY_OF_YEAR);
if (internalGet(UCAL_MONTH) == UCAL_JANUARY) {
if (woy >= 52) {
isoDoy += handleGetYearLength(isoYear);
}
} else {
if (woy == 1) {
isoDoy -= handleGetYearLength(isoYear - 1);
}
}
woy += amount;
// Do fast checks to avoid unnecessary computation:
if (woy < 1 || woy > 52) {
// Determine the last week of the ISO year.
// We do this using the standard formula we use
// everywhere in this file. If we can see that the
// days at the end of the year are going to fall into
// week 1 of the next year, we drop the last week by
// subtracting 7 from the last day of the year.
int32_t lastDoy = handleGetYearLength(isoYear);
int32_t lastRelDow = (lastDoy - isoDoy + internalGet(UCAL_DAY_OF_WEEK) -
getFirstDayOfWeek()) % 7;
if (lastRelDow < 0) lastRelDow += 7;
if ((6 - lastRelDow) >= getMinimalDaysInFirstWeek()) lastDoy -= 7;
int32_t lastWoy = weekNumber(lastDoy, lastRelDow + 1);
woy = ((woy + lastWoy - 1) % lastWoy) + 1;
}
set(UCAL_WEEK_OF_YEAR, woy);
set(UCAL_YEAR_WOY,isoYear);
return;
}
case UCAL_DAY_OF_MONTH:
if( !inCutoverMonth ) {
Calendar::roll(field, amount, status);
return;
} else {
// [j81] 1582 special case for DOM
// The default computation works except when the current month
// contains the Gregorian cutover. We handle this special case
// here. [j81 - aliu]
double monthLen = cMonthLen * kOneDay;
double msIntoMonth = uprv_fmod(internalGetTime() - cMonthStart +
amount * kOneDay, monthLen);
if (msIntoMonth < 0) {
msIntoMonth += monthLen;
}
#if defined (U_DEBUG_CAL)
fprintf(stderr, "%s:%d: roll DOM %d -> %.0lf ms \n",
__FILE__, __LINE__,amount, cMonthLen, cMonthStart+msIntoMonth);
#endif
setTimeInMillis(cMonthStart + msIntoMonth, status);
return;
}
case UCAL_WEEK_OF_MONTH:
if( !inCutoverMonth ) {
Calendar::roll(field, amount, status);
return;
} else {
#if defined (U_DEBUG_CAL)
fprintf(stderr, "%s:%d: roll WOM %d ??????????????????? \n",
__FILE__, __LINE__,amount);
#endif
// NOTE: following copied from the old
// GregorianCalendar::roll( WEEK_OF_MONTH ) code
// This is tricky, because during the roll we may have to shift
// to a different day of the week. For example:
// s m t w r f s
// 1 2 3 4 5
// 6 7 8 9 10 11 12
// When rolling from the 6th or 7th back one week, we go to the
// 1st (assuming that the first partial week counts). The same
// thing happens at the end of the month.
// The other tricky thing is that we have to figure out whether
// the first partial week actually counts or not, based on the
// minimal first days in the week. And we have to use the
// correct first day of the week to delineate the week
// boundaries.
// Here's our algorithm. First, we find the real boundaries of
// the month. Then we discard the first partial week if it
// doesn't count in this locale. Then we fill in the ends with
// phantom days, so that the first partial week and the last
// partial week are full weeks. We then have a nice square
// block of weeks. We do the usual rolling within this block,
// as is done elsewhere in this method. If we wind up on one of
// the phantom days that we added, we recognize this and pin to
// the first or the last day of the month. Easy, eh?
// Another wrinkle: To fix jitterbug 81, we have to make all this
// work in the oddball month containing the Gregorian cutover.
// This month is 10 days shorter than usual, and also contains
// a discontinuity in the days; e.g., the default cutover month
// is Oct 1582, and goes from day of month 4 to day of month 15.
// Normalize the DAY_OF_WEEK so that 0 is the first day of the week
// in this locale. We have dow in 0..6.
int32_t dow = internalGet(UCAL_DAY_OF_WEEK) - getFirstDayOfWeek();
if (dow < 0)
dow += 7;
// Find the day of month, compensating for cutover discontinuity.
int32_t dom = cDayOfMonth;
// Find the day of the week (normalized for locale) for the first
// of the month.
int32_t fdm = (dow - dom + 1) % 7;
if (fdm < 0)
fdm += 7;
// Get the first day of the first full week of the month,
// including phantom days, if any. Figure out if the first week
// counts or not; if it counts, then fill in phantom days. If
// not, advance to the first real full week (skip the partial week).
int32_t start;
if ((7 - fdm) < getMinimalDaysInFirstWeek())
start = 8 - fdm; // Skip the first partial week
else
start = 1 - fdm; // This may be zero or negative
// Get the day of the week (normalized for locale) for the last
// day of the month.
int32_t monthLen = cMonthLen;
int32_t ldm = (monthLen - dom + dow) % 7;
// We know monthLen >= DAY_OF_MONTH so we skip the += 7 step here.
// Get the limit day for the blocked-off rectangular month; that
// is, the day which is one past the last day of the month,
// after the month has already been filled in with phantom days
// to fill out the last week. This day has a normalized DOW of 0.
int32_t limit = monthLen + 7 - ldm;
// Now roll between start and (limit - 1).
int32_t gap = limit - start;
int32_t newDom = (dom + amount*7 - start) % gap;
if (newDom < 0)
newDom += gap;
newDom += start;
// Finally, pin to the real start and end of the month.
if (newDom < 1)
newDom = 1;
if (newDom > monthLen)
newDom = monthLen;
// Set the DAY_OF_MONTH. We rely on the fact that this field
// takes precedence over everything else (since all other fields
// are also set at this point). If this fact changes (if the
// disambiguation algorithm changes) then we will have to unset
// the appropriate fields here so that DAY_OF_MONTH is attended
// to.
// If we are in the cutover month, manipulate ms directly. Don't do
// this in general because it doesn't work across DST boundaries
// (details, details). This takes care of the discontinuity.
setTimeInMillis(cMonthStart + (newDom-1)*kOneDay, status);
return;
}
default:
Calendar::roll(field, amount, status);
return;
}
}
