// © 2016 and later: Unicode, Inc. and others. // License & terms of use: http://www.unicode.org/copyright.html /* ******************************************************************************* * Copyright (C) 1997-2016, International Business Machines Corporation and * * others. All Rights Reserved. * ******************************************************************************* * * File SMPDTFMT.CPP * * Modification History: * * Date Name Description * 02/19/97 aliu Converted from java. * 03/31/97 aliu Modified extensively to work with 50 locales. * 04/01/97 aliu Added support for centuries. * 07/09/97 helena Made ParsePosition into a class. * 07/21/98 stephen Added initializeDefaultCentury. * Removed getZoneIndex (added in DateFormatSymbols) * Removed subParseLong * Removed chk * 02/22/99 stephen Removed character literals for EBCDIC safety * 10/14/99 aliu Updated 2-digit year parsing so that only "00" thru * "99" are recognized. {j28 4182066} * 11/15/99 weiv Added support for week of year/day of week format ******************************************************************************** */ #define ZID_KEY_MAX 128 #include "unicode/utypes.h" #if !UCONFIG_NO_FORMATTING #include "unicode/smpdtfmt.h" #include "unicode/dtfmtsym.h" #include "unicode/ures.h" #include "unicode/msgfmt.h" #include "unicode/calendar.h" #include "unicode/gregocal.h" #include "unicode/timezone.h" #include "unicode/decimfmt.h" #include "unicode/dcfmtsym.h" #include "unicode/uchar.h" #include "unicode/uniset.h" #include "unicode/ustring.h" #include "unicode/basictz.h" #include "unicode/simpleformatter.h" #include "unicode/simpletz.h" #include "unicode/rbtz.h" #include "unicode/tzfmt.h" #include "unicode/ucasemap.h" #include "unicode/utf16.h" #include "unicode/vtzone.h" #include "unicode/udisplaycontext.h" #include "unicode/brkiter.h" #include "unicode/rbnf.h" #include "uresimp.h" #include "olsontz.h" #include "patternprops.h" #include "fphdlimp.h" #include "hebrwcal.h" #include "cstring.h" #include "uassert.h" #include "cmemory.h" #include "umutex.h" #include #include "smpdtfst.h" #include "sharednumberformat.h" #include "ucasemap_imp.h" #include "ustr_imp.h" #include "charstr.h" #include "uvector.h" #include "cstr.h" #include "dayperiodrules.h" #include "tznames_impl.h" // ZONE_NAME_U16_MAX #include "number_utypes.h" #if defined( U_DEBUG_CALSVC ) || defined (U_DEBUG_CAL) #include #endif // ***************************************************************************** // class SimpleDateFormat // ***************************************************************************** U_NAMESPACE_BEGIN /** * Last-resort string to use for "GMT" when constructing time zone strings. */ // For time zones that have no names, use strings GMT+minutes and // GMT-minutes. For instance, in France the time zone is GMT+60. // Also accepted are GMT+H:MM or GMT-H:MM. // Currently not being used //static const UChar gGmt[] = {0x0047, 0x004D, 0x0054, 0x0000}; // "GMT" //static const UChar gGmtPlus[] = {0x0047, 0x004D, 0x0054, 0x002B, 0x0000}; // "GMT+" //static const UChar gGmtMinus[] = {0x0047, 0x004D, 0x0054, 0x002D, 0x0000}; // "GMT-" //static const UChar gDefGmtPat[] = {0x0047, 0x004D, 0x0054, 0x007B, 0x0030, 0x007D, 0x0000}; /* GMT{0} */ //static const UChar gDefGmtNegHmsPat[] = {0x002D, 0x0048, 0x0048, 0x003A, 0x006D, 0x006D, 0x003A, 0x0073, 0x0073, 0x0000}; /* -HH:mm:ss */ //static const UChar gDefGmtNegHmPat[] = {0x002D, 0x0048, 0x0048, 0x003A, 0x006D, 0x006D, 0x0000}; /* -HH:mm */ //static const UChar gDefGmtPosHmsPat[] = {0x002B, 0x0048, 0x0048, 0x003A, 0x006D, 0x006D, 0x003A, 0x0073, 0x0073, 0x0000}; /* +HH:mm:ss */ //static const UChar gDefGmtPosHmPat[] = {0x002B, 0x0048, 0x0048, 0x003A, 0x006D, 0x006D, 0x0000}; /* +HH:mm */ //static const UChar gUt[] = {0x0055, 0x0054, 0x0000}; // "UT" //static const UChar gUtc[] = {0x0055, 0x0054, 0x0043, 0x0000}; // "UT" typedef enum GmtPatSize { kGmtLen = 3, kGmtPatLen = 6, kNegHmsLen = 9, kNegHmLen = 6, kPosHmsLen = 9, kPosHmLen = 6, kUtLen = 2, kUtcLen = 3 } GmtPatSize; // Stuff needed for numbering system overrides typedef enum OvrStrType { kOvrStrDate = 0, kOvrStrTime = 1, kOvrStrBoth = 2 } OvrStrType; static const UDateFormatField kDateFields[] = { UDAT_YEAR_FIELD, UDAT_MONTH_FIELD, UDAT_DATE_FIELD, UDAT_DAY_OF_YEAR_FIELD, UDAT_DAY_OF_WEEK_IN_MONTH_FIELD, UDAT_WEEK_OF_YEAR_FIELD, UDAT_WEEK_OF_MONTH_FIELD, UDAT_YEAR_WOY_FIELD, UDAT_EXTENDED_YEAR_FIELD, UDAT_JULIAN_DAY_FIELD, UDAT_STANDALONE_DAY_FIELD, UDAT_STANDALONE_MONTH_FIELD, UDAT_QUARTER_FIELD, UDAT_STANDALONE_QUARTER_FIELD, UDAT_YEAR_NAME_FIELD, UDAT_RELATED_YEAR_FIELD }; static const int8_t kDateFieldsCount = 16; static const UDateFormatField kTimeFields[] = { UDAT_HOUR_OF_DAY1_FIELD, UDAT_HOUR_OF_DAY0_FIELD, UDAT_MINUTE_FIELD, UDAT_SECOND_FIELD, UDAT_FRACTIONAL_SECOND_FIELD, UDAT_HOUR1_FIELD, UDAT_HOUR0_FIELD, UDAT_MILLISECONDS_IN_DAY_FIELD, UDAT_TIMEZONE_RFC_FIELD, UDAT_TIMEZONE_LOCALIZED_GMT_OFFSET_FIELD }; static const int8_t kTimeFieldsCount = 10; // This is a pattern-of-last-resort used when we can't load a usable pattern out // of a resource. static const UChar gDefaultPattern[] = { 0x79, 0x79, 0x79, 0x79, 0x4D, 0x4D, 0x64, 0x64, 0x20, 0x68, 0x68, 0x3A, 0x6D, 0x6D, 0x20, 0x61, 0 }; /* "yyyyMMdd hh:mm a" */ // This prefix is designed to NEVER MATCH real text, in order to // suppress the parsing of negative numbers. Adjust as needed (if // this becomes valid Unicode). static const UChar SUPPRESS_NEGATIVE_PREFIX[] = {0xAB00, 0}; /** * These are the tags we expect to see in normal resource bundle files associated * with a locale. */ static const UChar QUOTE = 0x27; // Single quote /* * The field range check bias for each UDateFormatField. * The bias is added to the minimum and maximum values * before they are compared to the parsed number. * For example, the calendar stores zero-based month numbers * but the parsed month numbers start at 1, so the bias is 1. * * A value of -1 means that the value is not checked. */ static const int32_t gFieldRangeBias[] = { -1, // 'G' - UDAT_ERA_FIELD -1, // 'y' - UDAT_YEAR_FIELD 1, // 'M' - UDAT_MONTH_FIELD 0, // 'd' - UDAT_DATE_FIELD -1, // 'k' - UDAT_HOUR_OF_DAY1_FIELD -1, // 'H' - UDAT_HOUR_OF_DAY0_FIELD 0, // 'm' - UDAT_MINUTE_FIELD 0, // 's' - UDAT_SECOND_FIELD -1, // 'S' - UDAT_FRACTIONAL_SECOND_FIELD (0-999?) -1, // 'E' - UDAT_DAY_OF_WEEK_FIELD (1-7?) -1, // 'D' - UDAT_DAY_OF_YEAR_FIELD (1 - 366?) -1, // 'F' - UDAT_DAY_OF_WEEK_IN_MONTH_FIELD (1-5?) -1, // 'w' - UDAT_WEEK_OF_YEAR_FIELD (1-52?) -1, // 'W' - UDAT_WEEK_OF_MONTH_FIELD (1-5?) -1, // 'a' - UDAT_AM_PM_FIELD -1, // 'h' - UDAT_HOUR1_FIELD -1, // 'K' - UDAT_HOUR0_FIELD -1, // 'z' - UDAT_TIMEZONE_FIELD -1, // 'Y' - UDAT_YEAR_WOY_FIELD -1, // 'e' - UDAT_DOW_LOCAL_FIELD -1, // 'u' - UDAT_EXTENDED_YEAR_FIELD -1, // 'g' - UDAT_JULIAN_DAY_FIELD -1, // 'A' - UDAT_MILLISECONDS_IN_DAY_FIELD -1, // 'Z' - UDAT_TIMEZONE_RFC_FIELD -1, // 'v' - UDAT_TIMEZONE_GENERIC_FIELD 0, // 'c' - UDAT_STANDALONE_DAY_FIELD 1, // 'L' - UDAT_STANDALONE_MONTH_FIELD -1, // 'Q' - UDAT_QUARTER_FIELD (1-4?) -1, // 'q' - UDAT_STANDALONE_QUARTER_FIELD -1, // 'V' - UDAT_TIMEZONE_SPECIAL_FIELD -1, // 'U' - UDAT_YEAR_NAME_FIELD -1, // 'O' - UDAT_TIMEZONE_LOCALIZED_GMT_OFFSET_FIELD -1, // 'X' - UDAT_TIMEZONE_ISO_FIELD -1, // 'x' - UDAT_TIMEZONE_ISO_LOCAL_FIELD -1, // 'r' - UDAT_RELATED_YEAR_FIELD #if UDAT_HAS_PATTERN_CHAR_FOR_TIME_SEPARATOR -1, // ':' - UDAT_TIME_SEPARATOR_FIELD #else -1, // (no pattern character currently) - UDAT_TIME_SEPARATOR_FIELD #endif }; // When calendar uses hebr numbering (i.e. he@calendar=hebrew), // offset the years within the current millenium down to 1-999 static const int32_t HEBREW_CAL_CUR_MILLENIUM_START_YEAR = 5000; static const int32_t HEBREW_CAL_CUR_MILLENIUM_END_YEAR = 6000; static UMutex *LOCK() { static UMutex m = U_MUTEX_INITIALIZER; return &m; } UOBJECT_DEFINE_RTTI_IMPLEMENTATION(SimpleDateFormat) SimpleDateFormat::NSOverride::~NSOverride() { if (snf != NULL) { snf->removeRef(); } } void SimpleDateFormat::NSOverride::free() { NSOverride *cur = this; while (cur) { NSOverride *next_temp = cur->next; delete cur; cur = next_temp; } } // no matter what the locale's default number format looked like, we want // to modify it so that it doesn't use thousands separators, doesn't always // show the decimal point, and recognizes integers only when parsing static void fixNumberFormatForDates(NumberFormat &nf) { nf.setGroupingUsed(FALSE); DecimalFormat* decfmt = dynamic_cast(&nf); if (decfmt != NULL) { decfmt->setDecimalSeparatorAlwaysShown(FALSE); } nf.setParseIntegerOnly(TRUE); nf.setMinimumFractionDigits(0); // To prevent "Jan 1.00, 1997.00" } static const SharedNumberFormat *createSharedNumberFormat( NumberFormat *nfToAdopt) { fixNumberFormatForDates(*nfToAdopt); const SharedNumberFormat *result = new SharedNumberFormat(nfToAdopt); if (result == NULL) { delete nfToAdopt; } return result; } static const SharedNumberFormat *createSharedNumberFormat( const Locale &loc, UErrorCode &status) { NumberFormat *nf = NumberFormat::createInstance(loc, status); if (U_FAILURE(status)) { return NULL; } const SharedNumberFormat *result = createSharedNumberFormat(nf); if (result == NULL) { status = U_MEMORY_ALLOCATION_ERROR; } return result; } static const SharedNumberFormat **allocSharedNumberFormatters() { const SharedNumberFormat **result = (const SharedNumberFormat**) uprv_malloc(UDAT_FIELD_COUNT * sizeof(const SharedNumberFormat*)); if (result == NULL) { return NULL; } for (int32_t i = 0; i < UDAT_FIELD_COUNT; ++i) { result[i] = NULL; } return result; } static void freeSharedNumberFormatters(const SharedNumberFormat ** list) { for (int32_t i = 0; i < UDAT_FIELD_COUNT; ++i) { SharedObject::clearPtr(list[i]); } uprv_free(list); } const NumberFormat *SimpleDateFormat::getNumberFormatByIndex( UDateFormatField index) const { if (fSharedNumberFormatters == NULL || fSharedNumberFormatters[index] == NULL) { return fNumberFormat; } return &(**fSharedNumberFormatters[index]); } //---------------------------------------------------------------------- SimpleDateFormat::~SimpleDateFormat() { delete fSymbols; if (fSharedNumberFormatters) { freeSharedNumberFormatters(fSharedNumberFormatters); } if (fTimeZoneFormat) { delete fTimeZoneFormat; } freeFastNumberFormatters(); #if !UCONFIG_NO_BREAK_ITERATION delete fCapitalizationBrkIter; #endif } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(UErrorCode& status) : fLocale(Locale::getDefault()), fSymbols(NULL), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { initializeBooleanAttributes(); construct(kShort, (EStyle) (kShort + kDateOffset), fLocale, status); initializeDefaultCentury(); } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(const UnicodeString& pattern, UErrorCode &status) : fPattern(pattern), fLocale(Locale::getDefault()), fSymbols(NULL), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { fDateOverride.setToBogus(); fTimeOverride.setToBogus(); initializeBooleanAttributes(); initializeCalendar(NULL,fLocale,status); fSymbols = DateFormatSymbols::createForLocale(fLocale, status); initialize(fLocale, status); initializeDefaultCentury(); } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(const UnicodeString& pattern, const UnicodeString& override, UErrorCode &status) : fPattern(pattern), fLocale(Locale::getDefault()), fSymbols(NULL), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { fDateOverride.setTo(override); fTimeOverride.setToBogus(); initializeBooleanAttributes(); initializeCalendar(NULL,fLocale,status); fSymbols = DateFormatSymbols::createForLocale(fLocale, status); initialize(fLocale, status); initializeDefaultCentury(); processOverrideString(fLocale,override,kOvrStrBoth,status); } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(const UnicodeString& pattern, const Locale& locale, UErrorCode& status) : fPattern(pattern), fLocale(locale), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { fDateOverride.setToBogus(); fTimeOverride.setToBogus(); initializeBooleanAttributes(); initializeCalendar(NULL,fLocale,status); fSymbols = DateFormatSymbols::createForLocale(fLocale, status); initialize(fLocale, status); initializeDefaultCentury(); } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(const UnicodeString& pattern, const UnicodeString& override, const Locale& locale, UErrorCode& status) : fPattern(pattern), fLocale(locale), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { fDateOverride.setTo(override); fTimeOverride.setToBogus(); initializeBooleanAttributes(); initializeCalendar(NULL,fLocale,status); fSymbols = DateFormatSymbols::createForLocale(fLocale, status); initialize(fLocale, status); initializeDefaultCentury(); processOverrideString(locale,override,kOvrStrBoth,status); } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(const UnicodeString& pattern, DateFormatSymbols* symbolsToAdopt, UErrorCode& status) : fPattern(pattern), fLocale(Locale::getDefault()), fSymbols(symbolsToAdopt), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { fDateOverride.setToBogus(); fTimeOverride.setToBogus(); initializeBooleanAttributes(); initializeCalendar(NULL,fLocale,status); initialize(fLocale, status); initializeDefaultCentury(); } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(const UnicodeString& pattern, const DateFormatSymbols& symbols, UErrorCode& status) : fPattern(pattern), fLocale(Locale::getDefault()), fSymbols(new DateFormatSymbols(symbols)), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { fDateOverride.setToBogus(); fTimeOverride.setToBogus(); initializeBooleanAttributes(); initializeCalendar(NULL, fLocale, status); initialize(fLocale, status); initializeDefaultCentury(); } //---------------------------------------------------------------------- // Not for public consumption; used by DateFormat SimpleDateFormat::SimpleDateFormat(EStyle timeStyle, EStyle dateStyle, const Locale& locale, UErrorCode& status) : fLocale(locale), fSymbols(NULL), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { initializeBooleanAttributes(); construct(timeStyle, dateStyle, fLocale, status); if(U_SUCCESS(status)) { initializeDefaultCentury(); } } //---------------------------------------------------------------------- /** * Not for public consumption; used by DateFormat. This constructor * never fails. If the resource data is not available, it uses the * the last resort symbols. */ SimpleDateFormat::SimpleDateFormat(const Locale& locale, UErrorCode& status) : fPattern(gDefaultPattern), fLocale(locale), fSymbols(NULL), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { if (U_FAILURE(status)) return; initializeBooleanAttributes(); initializeCalendar(NULL, fLocale, status); fSymbols = DateFormatSymbols::createForLocale(fLocale, status); if (U_FAILURE(status)) { status = U_ZERO_ERROR; delete fSymbols; // This constructor doesn't fail; it uses last resort data fSymbols = new DateFormatSymbols(status); /* test for NULL */ if (fSymbols == 0) { status = U_MEMORY_ALLOCATION_ERROR; return; } } fDateOverride.setToBogus(); fTimeOverride.setToBogus(); initialize(fLocale, status); if(U_SUCCESS(status)) { initializeDefaultCentury(); } } //---------------------------------------------------------------------- SimpleDateFormat::SimpleDateFormat(const SimpleDateFormat& other) : DateFormat(other), fLocale(other.fLocale), fSymbols(NULL), fTimeZoneFormat(NULL), fSharedNumberFormatters(NULL), fCapitalizationBrkIter(NULL) { initializeBooleanAttributes(); *this = other; } //---------------------------------------------------------------------- SimpleDateFormat& SimpleDateFormat::operator=(const SimpleDateFormat& other) { if (this == &other) { return *this; } DateFormat::operator=(other); fDateOverride = other.fDateOverride; fTimeOverride = other.fTimeOverride; delete fSymbols; fSymbols = NULL; if (other.fSymbols) fSymbols = new DateFormatSymbols(*other.fSymbols); fDefaultCenturyStart = other.fDefaultCenturyStart; fDefaultCenturyStartYear = other.fDefaultCenturyStartYear; fHaveDefaultCentury = other.fHaveDefaultCentury; fPattern = other.fPattern; fHasMinute = other.fHasMinute; fHasSecond = other.fHasSecond; // TimeZoneFormat in ICU4C only depends on a locale for now if (fLocale != other.fLocale) { delete fTimeZoneFormat; fTimeZoneFormat = NULL; // forces lazy instantiation with the other locale fLocale = other.fLocale; } #if !UCONFIG_NO_BREAK_ITERATION if (other.fCapitalizationBrkIter != NULL) { fCapitalizationBrkIter = (other.fCapitalizationBrkIter)->clone(); } #endif if (fSharedNumberFormatters != NULL) { freeSharedNumberFormatters(fSharedNumberFormatters); fSharedNumberFormatters = NULL; } if (other.fSharedNumberFormatters != NULL) { fSharedNumberFormatters = allocSharedNumberFormatters(); if (fSharedNumberFormatters) { for (int32_t i = 0; i < UDAT_FIELD_COUNT; ++i) { SharedObject::copyPtr( other.fSharedNumberFormatters[i], fSharedNumberFormatters[i]); } } } UErrorCode localStatus = U_ZERO_ERROR; freeFastNumberFormatters(); initFastNumberFormatters(localStatus); return *this; } //---------------------------------------------------------------------- Format* SimpleDateFormat::clone() const { return new SimpleDateFormat(*this); } //---------------------------------------------------------------------- UBool SimpleDateFormat::operator==(const Format& other) const { if (DateFormat::operator==(other)) { // The DateFormat::operator== check for fCapitalizationContext equality above // is sufficient to check equality of all derived context-related data. // DateFormat::operator== guarantees following cast is safe SimpleDateFormat* that = (SimpleDateFormat*)&other; return (fPattern == that->fPattern && fSymbols != NULL && // Check for pathological object that->fSymbols != NULL && // Check for pathological object *fSymbols == *that->fSymbols && fHaveDefaultCentury == that->fHaveDefaultCentury && fDefaultCenturyStart == that->fDefaultCenturyStart); } return FALSE; } //---------------------------------------------------------------------- void SimpleDateFormat::construct(EStyle timeStyle, EStyle dateStyle, const Locale& locale, UErrorCode& status) { // called by several constructors to load pattern data from the resources if (U_FAILURE(status)) return; // We will need the calendar to know what type of symbols to load. initializeCalendar(NULL, locale, status); if (U_FAILURE(status)) return; // Load date time patterns directly from resources. const char* cType = fCalendar ? fCalendar->getType() : NULL; LocalUResourceBundlePointer bundle(ures_open(NULL, locale.getBaseName(), &status)); if (U_FAILURE(status)) return; UBool cTypeIsGregorian = TRUE; LocalUResourceBundlePointer dateTimePatterns; if (cType != NULL && uprv_strcmp(cType, "gregorian") != 0) { CharString resourcePath("calendar/", status); resourcePath.append(cType, status).append("/DateTimePatterns", status); dateTimePatterns.adoptInstead( ures_getByKeyWithFallback(bundle.getAlias(), resourcePath.data(), (UResourceBundle*)NULL, &status)); cTypeIsGregorian = FALSE; } // Check for "gregorian" fallback. if (cTypeIsGregorian || status == U_MISSING_RESOURCE_ERROR) { status = U_ZERO_ERROR; dateTimePatterns.adoptInstead( ures_getByKeyWithFallback(bundle.getAlias(), "calendar/gregorian/DateTimePatterns", (UResourceBundle*)NULL, &status)); } if (U_FAILURE(status)) return; LocalUResourceBundlePointer currentBundle; if (ures_getSize(dateTimePatterns.getAlias()) <= kDateTime) { status = U_INVALID_FORMAT_ERROR; return; } setLocaleIDs(ures_getLocaleByType(dateTimePatterns.getAlias(), ULOC_VALID_LOCALE, &status), ures_getLocaleByType(dateTimePatterns.getAlias(), ULOC_ACTUAL_LOCALE, &status)); // create a symbols object from the locale fSymbols = DateFormatSymbols::createForLocale(locale, status); if (U_FAILURE(status)) return; /* test for NULL */ if (fSymbols == 0) { status = U_MEMORY_ALLOCATION_ERROR; return; } const UChar *resStr,*ovrStr; int32_t resStrLen,ovrStrLen = 0; fDateOverride.setToBogus(); fTimeOverride.setToBogus(); // if the pattern should include both date and time information, use the date/time // pattern string as a guide to tell use how to glue together the appropriate date // and time pattern strings. if ((timeStyle != kNone) && (dateStyle != kNone)) { currentBundle.adoptInstead( ures_getByIndex(dateTimePatterns.getAlias(), (int32_t)timeStyle, NULL, &status)); if (U_FAILURE(status)) { status = U_INVALID_FORMAT_ERROR; return; } switch (ures_getType(currentBundle.getAlias())) { case URES_STRING: { resStr = ures_getString(currentBundle.getAlias(), &resStrLen, &status); break; } case URES_ARRAY: { resStr = ures_getStringByIndex(currentBundle.getAlias(), 0, &resStrLen, &status); ovrStr = ures_getStringByIndex(currentBundle.getAlias(), 1, &ovrStrLen, &status); fTimeOverride.setTo(TRUE, ovrStr, ovrStrLen); break; } default: { status = U_INVALID_FORMAT_ERROR; return; } } UnicodeString tempus1(TRUE, resStr, resStrLen); currentBundle.adoptInstead( ures_getByIndex(dateTimePatterns.getAlias(), (int32_t)dateStyle, NULL, &status)); if (U_FAILURE(status)) { status = U_INVALID_FORMAT_ERROR; return; } switch (ures_getType(currentBundle.getAlias())) { case URES_STRING: { resStr = ures_getString(currentBundle.getAlias(), &resStrLen, &status); break; } case URES_ARRAY: { resStr = ures_getStringByIndex(currentBundle.getAlias(), 0, &resStrLen, &status); ovrStr = ures_getStringByIndex(currentBundle.getAlias(), 1, &ovrStrLen, &status); fDateOverride.setTo(TRUE, ovrStr, ovrStrLen); break; } default: { status = U_INVALID_FORMAT_ERROR; return; } } UnicodeString tempus2(TRUE, resStr, resStrLen); int32_t glueIndex = kDateTime; int32_t patternsSize = ures_getSize(dateTimePatterns.getAlias()); if (patternsSize >= (kDateTimeOffset + kShort + 1)) { // Get proper date time format glueIndex = (int32_t)(kDateTimeOffset + (dateStyle - kDateOffset)); } resStr = ures_getStringByIndex(dateTimePatterns.getAlias(), glueIndex, &resStrLen, &status); SimpleFormatter(UnicodeString(TRUE, resStr, resStrLen), 2, 2, status). format(tempus1, tempus2, fPattern, status); } // if the pattern includes just time data or just date date, load the appropriate // pattern string from the resources // setTo() - see DateFormatSymbols::assignArray comments else if (timeStyle != kNone) { currentBundle.adoptInstead( ures_getByIndex(dateTimePatterns.getAlias(), (int32_t)timeStyle, NULL, &status)); if (U_FAILURE(status)) { status = U_INVALID_FORMAT_ERROR; return; } switch (ures_getType(currentBundle.getAlias())) { case URES_STRING: { resStr = ures_getString(currentBundle.getAlias(), &resStrLen, &status); break; } case URES_ARRAY: { resStr = ures_getStringByIndex(currentBundle.getAlias(), 0, &resStrLen, &status); ovrStr = ures_getStringByIndex(currentBundle.getAlias(), 1, &ovrStrLen, &status); fDateOverride.setTo(TRUE, ovrStr, ovrStrLen); break; } default: { status = U_INVALID_FORMAT_ERROR; return; } } fPattern.setTo(TRUE, resStr, resStrLen); } else if (dateStyle != kNone) { currentBundle.adoptInstead( ures_getByIndex(dateTimePatterns.getAlias(), (int32_t)dateStyle, NULL, &status)); if (U_FAILURE(status)) { status = U_INVALID_FORMAT_ERROR; return; } switch (ures_getType(currentBundle.getAlias())) { case URES_STRING: { resStr = ures_getString(currentBundle.getAlias(), &resStrLen, &status); break; } case URES_ARRAY: { resStr = ures_getStringByIndex(currentBundle.getAlias(), 0, &resStrLen, &status); ovrStr = ures_getStringByIndex(currentBundle.getAlias(), 1, &ovrStrLen, &status); fDateOverride.setTo(TRUE, ovrStr, ovrStrLen); break; } default: { status = U_INVALID_FORMAT_ERROR; return; } } fPattern.setTo(TRUE, resStr, resStrLen); } // and if it includes _neither_, that's an error else status = U_INVALID_FORMAT_ERROR; // finally, finish initializing by creating a Calendar and a NumberFormat initialize(locale, status); } //---------------------------------------------------------------------- Calendar* SimpleDateFormat::initializeCalendar(TimeZone* adoptZone, const Locale& locale, UErrorCode& status) { if(!U_FAILURE(status)) { fCalendar = Calendar::createInstance(adoptZone?adoptZone:TimeZone::createDefault(), locale, status); } return fCalendar; } void SimpleDateFormat::initialize(const Locale& locale, UErrorCode& status) { if (U_FAILURE(status)) return; parsePattern(); // Need this before initNumberFormatters(), to set fHasHanYearChar // Simple-minded hack to force Gannen year numbering for ja@calendar=japanese // if format is non-numeric (includes 年) and fDateOverride is not already specified. // Now this does get updated if applyPattern subsequently changes the pattern type. if (fDateOverride.isBogus() && fHasHanYearChar && fCalendar != nullptr && uprv_strcmp(fCalendar->getType(),"japanese") == 0 && uprv_strcmp(fLocale.getLanguage(),"ja") == 0) { fDateOverride.setTo(u"y=jpanyear", -1); } // We don't need to check that the row count is >= 1, since all 2d arrays have at // least one row fNumberFormat = NumberFormat::createInstance(locale, status); if (fNumberFormat != NULL && U_SUCCESS(status)) { fixNumberFormatForDates(*fNumberFormat); //fNumberFormat->setLenient(TRUE); // Java uses a custom DateNumberFormat to format/parse initNumberFormatters(locale, status); initFastNumberFormatters(status); } else if (U_SUCCESS(status)) { status = U_MISSING_RESOURCE_ERROR; } } /* Initialize the fields we use to disambiguate ambiguous years. Separate * so we can call it from readObject(). */ void SimpleDateFormat::initializeDefaultCentury() { if(fCalendar) { fHaveDefaultCentury = fCalendar->haveDefaultCentury(); if(fHaveDefaultCentury) { fDefaultCenturyStart = fCalendar->defaultCenturyStart(); fDefaultCenturyStartYear = fCalendar->defaultCenturyStartYear(); } else { fDefaultCenturyStart = DBL_MIN; fDefaultCenturyStartYear = -1; } } } /* * Initialize the boolean attributes. Separate so we can call it from all constructors. */ void SimpleDateFormat::initializeBooleanAttributes() { UErrorCode status = U_ZERO_ERROR; setBooleanAttribute(UDAT_PARSE_ALLOW_WHITESPACE, true, status); setBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC, true, status); setBooleanAttribute(UDAT_PARSE_PARTIAL_LITERAL_MATCH, true, status); setBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, true, status); } /* Define one-century window into which to disambiguate dates using * two-digit years. Make public in JDK 1.2. */ void SimpleDateFormat::parseAmbiguousDatesAsAfter(UDate startDate, UErrorCode& status) { if(U_FAILURE(status)) { return; } if(!fCalendar) { status = U_ILLEGAL_ARGUMENT_ERROR; return; } fCalendar->setTime(startDate, status); if(U_SUCCESS(status)) { fHaveDefaultCentury = TRUE; fDefaultCenturyStart = startDate; fDefaultCenturyStartYear = fCalendar->get(UCAL_YEAR, status); } } //---------------------------------------------------------------------- UnicodeString& SimpleDateFormat::format(Calendar& cal, UnicodeString& appendTo, FieldPosition& pos) const { UErrorCode status = U_ZERO_ERROR; FieldPositionOnlyHandler handler(pos); return _format(cal, appendTo, handler, status); } //---------------------------------------------------------------------- UnicodeString& SimpleDateFormat::format(Calendar& cal, UnicodeString& appendTo, FieldPositionIterator* posIter, UErrorCode& status) const { FieldPositionIteratorHandler handler(posIter, status); return _format(cal, appendTo, handler, status); } //---------------------------------------------------------------------- UnicodeString& SimpleDateFormat::_format(Calendar& cal, UnicodeString& appendTo, FieldPositionHandler& handler, UErrorCode& status) const { if ( U_FAILURE(status) ) { return appendTo; } Calendar* workCal = &cal; Calendar* calClone = NULL; if (&cal != fCalendar && uprv_strcmp(cal.getType(), fCalendar->getType()) != 0) { // Different calendar type // We use the time and time zone from the input calendar, but // do not use the input calendar for field calculation. calClone = fCalendar->clone(); if (calClone != NULL) { UDate t = cal.getTime(status); calClone->setTime(t, status); calClone->setTimeZone(cal.getTimeZone()); workCal = calClone; } else { status = U_MEMORY_ALLOCATION_ERROR; return appendTo; } } UBool inQuote = FALSE; UChar prevCh = 0; int32_t count = 0; int32_t fieldNum = 0; UDisplayContext capitalizationContext = getContext(UDISPCTX_TYPE_CAPITALIZATION, status); // loop through the pattern string character by character for (int32_t i = 0; i < fPattern.length() && U_SUCCESS(status); ++i) { UChar ch = fPattern[i]; // Use subFormat() to format a repeated pattern character // when a different pattern or non-pattern character is seen if (ch != prevCh && count > 0) { subFormat(appendTo, prevCh, count, capitalizationContext, fieldNum++, handler, *workCal, status); count = 0; } if (ch == QUOTE) { // Consecutive single quotes are a single quote literal, // either outside of quotes or between quotes if ((i+1) < fPattern.length() && fPattern[i+1] == QUOTE) { appendTo += (UChar)QUOTE; ++i; } else { inQuote = ! inQuote; } } else if (!inQuote && isSyntaxChar(ch)) { // ch is a date-time pattern character to be interpreted // by subFormat(); count the number of times it is repeated prevCh = ch; ++count; } else { // Append quoted characters and unquoted non-pattern characters appendTo += ch; } } // Format the last item in the pattern, if any if (count > 0) { subFormat(appendTo, prevCh, count, capitalizationContext, fieldNum++, handler, *workCal, status); } if (calClone != NULL) { delete calClone; } return appendTo; } //---------------------------------------------------------------------- /* Map calendar field into calendar field level. * the larger the level, the smaller the field unit. * For example, UCAL_ERA level is 0, UCAL_YEAR level is 10, * UCAL_MONTH level is 20. * NOTE: if new fields adds in, the table needs to update. */ const int32_t SimpleDateFormat::fgCalendarFieldToLevel[] = { /*GyM*/ 0, 10, 20, /*wW*/ 20, 30, /*dDEF*/ 30, 20, 30, 30, /*ahHm*/ 40, 50, 50, 60, /*sS*/ 70, 80, /*z?Y*/ 0, 0, 10, /*eug*/ 30, 10, 0, /*A?.*/ 40, 0, 0 }; int32_t SimpleDateFormat::getLevelFromChar(UChar ch) { // Map date field LETTER into calendar field level. // the larger the level, the smaller the field unit. // NOTE: if new fields adds in, the table needs to update. static const int32_t mapCharToLevel[] = { -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, // -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, // ! " # $ % & ' ( ) * + , - . / -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, #if UDAT_HAS_PATTERN_CHAR_FOR_TIME_SEPARATOR // 0 1 2 3 4 5 6 7 8 9 : ; < = > ? -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, 0, -1, -1, -1, -1, -1, #else // 0 1 2 3 4 5 6 7 8 9 : ; < = > ? -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, #endif // @ A B C D E F G H I J K L M N O -1, 40, -1, -1, 20, 30, 30, 0, 50, -1, -1, 50, 20, 20, -1, 0, // P Q R S T U V W X Y Z [ \ ] ^ _ -1, 20, -1, 80, -1, 10, 0, 30, 0, 10, 0, -1, -1, -1, -1, -1, // ` a b c d e f g h i j k l m n o -1, 40, -1, 30, 30, 30, -1, 0, 50, -1, -1, 50, 0, 60, -1, -1, // p q r s t u v w x y z { | } ~ -1, 20, 10, 70, -1, 10, 0, 20, 0, 10, 0, -1, -1, -1, -1, -1 }; return ch < UPRV_LENGTHOF(mapCharToLevel) ? mapCharToLevel[ch] : -1; } UBool SimpleDateFormat::isSyntaxChar(UChar ch) { static const UBool mapCharToIsSyntax[] = { // FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, // FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, // FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, // FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, // ! " # $ % & ' FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, // ( ) * + , - . / FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, // 0 1 2 3 4 5 6 7 FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, #if UDAT_HAS_PATTERN_CHAR_FOR_TIME_SEPARATOR // 8 9 : ; < = > ? FALSE, FALSE, TRUE, FALSE, FALSE, FALSE, FALSE, FALSE, #else // 8 9 : ; < = > ? FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, FALSE, #endif // @ A B C D E F G FALSE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, // H I J K L M N O TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, // P Q R S T U V W TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, // X Y Z [ \ ] ^ _ TRUE, TRUE, TRUE, FALSE, FALSE, FALSE, FALSE, FALSE, // ` a b c d e f g FALSE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, // h i j k l m n o TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, // p q r s t u v w TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, TRUE, // x y z { | } ~ TRUE, TRUE, TRUE, FALSE, FALSE, FALSE, FALSE, FALSE }; return ch < UPRV_LENGTHOF(mapCharToIsSyntax) ? mapCharToIsSyntax[ch] : FALSE; } // Map index into pattern character string to Calendar field number. const UCalendarDateFields SimpleDateFormat::fgPatternIndexToCalendarField[] = { /*GyM*/ UCAL_ERA, UCAL_YEAR, UCAL_MONTH, /*dkH*/ UCAL_DATE, UCAL_HOUR_OF_DAY, UCAL_HOUR_OF_DAY, /*msS*/ UCAL_MINUTE, UCAL_SECOND, UCAL_MILLISECOND, /*EDF*/ UCAL_DAY_OF_WEEK, UCAL_DAY_OF_YEAR, UCAL_DAY_OF_WEEK_IN_MONTH, /*wWa*/ UCAL_WEEK_OF_YEAR, UCAL_WEEK_OF_MONTH, UCAL_AM_PM, /*hKz*/ UCAL_HOUR, UCAL_HOUR, UCAL_ZONE_OFFSET, /*Yeu*/ UCAL_YEAR_WOY, UCAL_DOW_LOCAL, UCAL_EXTENDED_YEAR, /*gAZ*/ UCAL_JULIAN_DAY, UCAL_MILLISECONDS_IN_DAY, UCAL_ZONE_OFFSET, /*v*/ UCAL_ZONE_OFFSET, /*c*/ UCAL_DOW_LOCAL, /*L*/ UCAL_MONTH, /*Q*/ UCAL_MONTH, /*q*/ UCAL_MONTH, /*V*/ UCAL_ZONE_OFFSET, /*U*/ UCAL_YEAR, /*O*/ UCAL_ZONE_OFFSET, /*Xx*/ UCAL_ZONE_OFFSET, UCAL_ZONE_OFFSET, /*r*/ UCAL_EXTENDED_YEAR, /*bB*/ UCAL_FIELD_COUNT, UCAL_FIELD_COUNT, // no mappings to calendar fields #if UDAT_HAS_PATTERN_CHAR_FOR_TIME_SEPARATOR /*:*/ UCAL_FIELD_COUNT, /* => no useful mapping to any calendar field */ #else /*no pattern char for UDAT_TIME_SEPARATOR_FIELD*/ UCAL_FIELD_COUNT, /* => no useful mapping to any calendar field */ #endif }; // Map index into pattern character string to DateFormat field number const UDateFormatField SimpleDateFormat::fgPatternIndexToDateFormatField[] = { /*GyM*/ UDAT_ERA_FIELD, UDAT_YEAR_FIELD, UDAT_MONTH_FIELD, /*dkH*/ UDAT_DATE_FIELD, UDAT_HOUR_OF_DAY1_FIELD, UDAT_HOUR_OF_DAY0_FIELD, /*msS*/ UDAT_MINUTE_FIELD, UDAT_SECOND_FIELD, UDAT_FRACTIONAL_SECOND_FIELD, /*EDF*/ UDAT_DAY_OF_WEEK_FIELD, UDAT_DAY_OF_YEAR_FIELD, UDAT_DAY_OF_WEEK_IN_MONTH_FIELD, /*wWa*/ UDAT_WEEK_OF_YEAR_FIELD, UDAT_WEEK_OF_MONTH_FIELD, UDAT_AM_PM_FIELD, /*hKz*/ UDAT_HOUR1_FIELD, UDAT_HOUR0_FIELD, UDAT_TIMEZONE_FIELD, /*Yeu*/ UDAT_YEAR_WOY_FIELD, UDAT_DOW_LOCAL_FIELD, UDAT_EXTENDED_YEAR_FIELD, /*gAZ*/ UDAT_JULIAN_DAY_FIELD, UDAT_MILLISECONDS_IN_DAY_FIELD, UDAT_TIMEZONE_RFC_FIELD, /*v*/ UDAT_TIMEZONE_GENERIC_FIELD, /*c*/ UDAT_STANDALONE_DAY_FIELD, /*L*/ UDAT_STANDALONE_MONTH_FIELD, /*Q*/ UDAT_QUARTER_FIELD, /*q*/ UDAT_STANDALONE_QUARTER_FIELD, /*V*/ UDAT_TIMEZONE_SPECIAL_FIELD, /*U*/ UDAT_YEAR_NAME_FIELD, /*O*/ UDAT_TIMEZONE_LOCALIZED_GMT_OFFSET_FIELD, /*Xx*/ UDAT_TIMEZONE_ISO_FIELD, UDAT_TIMEZONE_ISO_LOCAL_FIELD, /*r*/ UDAT_RELATED_YEAR_FIELD, /*bB*/ UDAT_AM_PM_MIDNIGHT_NOON_FIELD, UDAT_FLEXIBLE_DAY_PERIOD_FIELD, #if UDAT_HAS_PATTERN_CHAR_FOR_TIME_SEPARATOR /*:*/ UDAT_TIME_SEPARATOR_FIELD, #else /*no pattern char for UDAT_TIME_SEPARATOR_FIELD*/ UDAT_TIME_SEPARATOR_FIELD, #endif }; //---------------------------------------------------------------------- /** * Append symbols[value] to dst. Make sure the array index is not out * of bounds. */ static inline void _appendSymbol(UnicodeString& dst, int32_t value, const UnicodeString* symbols, int32_t symbolsCount) { U_ASSERT(0 <= value && value < symbolsCount); if (0 <= value && value < symbolsCount) { dst += symbols[value]; } } static inline void _appendSymbolWithMonthPattern(UnicodeString& dst, int32_t value, const UnicodeString* symbols, int32_t symbolsCount, const UnicodeString* monthPattern, UErrorCode& status) { U_ASSERT(0 <= value && value < symbolsCount); if (0 <= value && value < symbolsCount) { if (monthPattern == NULL) { dst += symbols[value]; } else { SimpleFormatter(*monthPattern, 1, 1, status).format(symbols[value], dst, status); } } } //---------------------------------------------------------------------- static number::LocalizedNumberFormatter* createFastFormatter(const DecimalFormat* df, int32_t minInt, int32_t maxInt) { return new number::LocalizedNumberFormatter( df->toNumberFormatter() .integerWidth(number::IntegerWidth::zeroFillTo(minInt).truncateAt(maxInt))); } void SimpleDateFormat::initFastNumberFormatters(UErrorCode& status) { if (U_FAILURE(status)) { return; } auto* df = dynamic_cast(fNumberFormat); if (df == nullptr) { return; } fFastNumberFormatters[SMPDTFMT_NF_1x10] = createFastFormatter(df, 1, 10); fFastNumberFormatters[SMPDTFMT_NF_2x10] = createFastFormatter(df, 2, 10); fFastNumberFormatters[SMPDTFMT_NF_3x10] = createFastFormatter(df, 3, 10); fFastNumberFormatters[SMPDTFMT_NF_4x10] = createFastFormatter(df, 4, 10); fFastNumberFormatters[SMPDTFMT_NF_2x2] = createFastFormatter(df, 2, 2); } void SimpleDateFormat::freeFastNumberFormatters() { delete fFastNumberFormatters[SMPDTFMT_NF_1x10]; delete fFastNumberFormatters[SMPDTFMT_NF_2x10]; delete fFastNumberFormatters[SMPDTFMT_NF_3x10]; delete fFastNumberFormatters[SMPDTFMT_NF_4x10]; delete fFastNumberFormatters[SMPDTFMT_NF_2x2]; fFastNumberFormatters[SMPDTFMT_NF_1x10] = nullptr; fFastNumberFormatters[SMPDTFMT_NF_2x10] = nullptr; fFastNumberFormatters[SMPDTFMT_NF_3x10] = nullptr; fFastNumberFormatters[SMPDTFMT_NF_4x10] = nullptr; fFastNumberFormatters[SMPDTFMT_NF_2x2] = nullptr; } void SimpleDateFormat::initNumberFormatters(const Locale &locale,UErrorCode &status) { if (U_FAILURE(status)) { return; } if ( fDateOverride.isBogus() && fTimeOverride.isBogus() ) { return; } umtx_lock(LOCK()); if (fSharedNumberFormatters == NULL) { fSharedNumberFormatters = allocSharedNumberFormatters(); if (fSharedNumberFormatters == NULL) { status = U_MEMORY_ALLOCATION_ERROR; } } umtx_unlock(LOCK()); if (U_FAILURE(status)) { return; } processOverrideString(locale,fDateOverride,kOvrStrDate,status); processOverrideString(locale,fTimeOverride,kOvrStrTime,status); } void SimpleDateFormat::processOverrideString(const Locale &locale, const UnicodeString &str, int8_t type, UErrorCode &status) { if (str.isBogus() || U_FAILURE(status)) { return; } int32_t start = 0; int32_t len; UnicodeString nsName; UnicodeString ovrField; UBool moreToProcess = TRUE; NSOverride *overrideList = NULL; while (moreToProcess) { int32_t delimiterPosition = str.indexOf((UChar)ULOC_KEYWORD_ITEM_SEPARATOR_UNICODE,start); if (delimiterPosition == -1) { moreToProcess = FALSE; len = str.length() - start; } else { len = delimiterPosition - start; } UnicodeString currentString(str,start,len); int32_t equalSignPosition = currentString.indexOf((UChar)ULOC_KEYWORD_ASSIGN_UNICODE,0); if (equalSignPosition == -1) { // Simple override string such as "hebrew" nsName.setTo(currentString); ovrField.setToBogus(); } else { // Field specific override string such as "y=hebrew" nsName.setTo(currentString,equalSignPosition+1); ovrField.setTo(currentString,0,1); // We just need the first character. } int32_t nsNameHash = nsName.hashCode(); // See if the numbering system is in the override list, if not, then add it. NSOverride *curr = overrideList; const SharedNumberFormat *snf = NULL; UBool found = FALSE; while ( curr && !found ) { if ( curr->hash == nsNameHash ) { snf = curr->snf; found = TRUE; } curr = curr->next; } if (!found) { LocalPointer cur(new NSOverride); if (!cur.isNull()) { char kw[ULOC_KEYWORD_AND_VALUES_CAPACITY]; uprv_strcpy(kw,"numbers="); nsName.extract(0,len,kw+8,ULOC_KEYWORD_AND_VALUES_CAPACITY-8,US_INV); Locale ovrLoc(locale.getLanguage(),locale.getCountry(),locale.getVariant(),kw); cur->hash = nsNameHash; cur->next = overrideList; SharedObject::copyPtr( createSharedNumberFormat(ovrLoc, status), cur->snf); if (U_FAILURE(status)) { if (overrideList) { overrideList->free(); } return; } snf = cur->snf; overrideList = cur.orphan(); } else { status = U_MEMORY_ALLOCATION_ERROR; if (overrideList) { overrideList->free(); } return; } } // Now that we have an appropriate number formatter, fill in the appropriate spaces in the // number formatters table. if (ovrField.isBogus()) { switch (type) { case kOvrStrDate: case kOvrStrBoth: { for ( int8_t i=0 ; ifree(); } return; } SharedObject::copyPtr(snf, fSharedNumberFormatters[patternCharIndex]); } start = delimiterPosition + 1; } if (overrideList) { overrideList->free(); } } //--------------------------------------------------------------------- void SimpleDateFormat::subFormat(UnicodeString &appendTo, UChar ch, int32_t count, UDisplayContext capitalizationContext, int32_t fieldNum, FieldPositionHandler& handler, Calendar& cal, UErrorCode& status) const { if (U_FAILURE(status)) { return; } // this function gets called by format() to produce the appropriate substitution // text for an individual pattern symbol (e.g., "HH" or "yyyy") UDateFormatField patternCharIndex = DateFormatSymbols::getPatternCharIndex(ch); const int32_t maxIntCount = 10; int32_t beginOffset = appendTo.length(); const NumberFormat *currentNumberFormat; DateFormatSymbols::ECapitalizationContextUsageType capContextUsageType = DateFormatSymbols::kCapContextUsageOther; UBool isHebrewCalendar = (uprv_strcmp(cal.getType(),"hebrew") == 0); UBool isChineseCalendar = (uprv_strcmp(cal.getType(),"chinese") == 0 || uprv_strcmp(cal.getType(),"dangi") == 0); // if the pattern character is unrecognized, signal an error and dump out if (patternCharIndex == UDAT_FIELD_COUNT) { if (ch != 0x6C) { // pattern char 'l' (SMALL LETTER L) just gets ignored status = U_INVALID_FORMAT_ERROR; } return; } UCalendarDateFields field = fgPatternIndexToCalendarField[patternCharIndex]; int32_t value = 0; // Don't get value unless it is useful if (field < UCAL_FIELD_COUNT) { value = (patternCharIndex != UDAT_RELATED_YEAR_FIELD)? cal.get(field, status): cal.getRelatedYear(status); } if (U_FAILURE(status)) { return; } currentNumberFormat = getNumberFormatByIndex(patternCharIndex); if (currentNumberFormat == NULL) { status = U_INTERNAL_PROGRAM_ERROR; return; } UnicodeString hebr("hebr", 4, US_INV); switch (patternCharIndex) { // for any "G" symbol, write out the appropriate era string // "GGGG" is wide era name, "GGGGG" is narrow era name, anything else is abbreviated name case UDAT_ERA_FIELD: if (isChineseCalendar) { zeroPaddingNumber(currentNumberFormat,appendTo, value, 1, 9); // as in ICU4J } else { if (count == 5) { _appendSymbol(appendTo, value, fSymbols->fNarrowEras, fSymbols->fNarrowErasCount); capContextUsageType = DateFormatSymbols::kCapContextUsageEraNarrow; } else if (count == 4) { _appendSymbol(appendTo, value, fSymbols->fEraNames, fSymbols->fEraNamesCount); capContextUsageType = DateFormatSymbols::kCapContextUsageEraWide; } else { _appendSymbol(appendTo, value, fSymbols->fEras, fSymbols->fErasCount); capContextUsageType = DateFormatSymbols::kCapContextUsageEraAbbrev; } } break; case UDAT_YEAR_NAME_FIELD: if (fSymbols->fShortYearNames != NULL && value <= fSymbols->fShortYearNamesCount) { // the Calendar YEAR field runs 1 through 60 for cyclic years _appendSymbol(appendTo, value - 1, fSymbols->fShortYearNames, fSymbols->fShortYearNamesCount); break; } // else fall through to numeric year handling, do not break here U_FALLTHROUGH; // OLD: for "yyyy", write out the whole year; for "yy", write out the last 2 digits // NEW: UTS#35: //Year y yy yyy yyyy yyyyy //AD 1 1 01 001 0001 00001 //AD 12 12 12 012 0012 00012 //AD 123 123 23 123 0123 00123 //AD 1234 1234 34 1234 1234 01234 //AD 12345 12345 45 12345 12345 12345 case UDAT_YEAR_FIELD: case UDAT_YEAR_WOY_FIELD: if (fDateOverride.compare(hebr)==0 && value>HEBREW_CAL_CUR_MILLENIUM_START_YEAR && valueisLeapYear(hc->get(UCAL_YEAR,status)) && value == 6 && count >= 3 ) value = 13; // Show alternate form for Adar II in leap years in Hebrew calendar. if (!hc->isLeapYear(hc->get(UCAL_YEAR,status)) && value >= 6 && count < 3 ) value--; // Adjust the month number down 1 in Hebrew non-leap years, i.e. Adar is 6, not 7. } { int32_t isLeapMonth = (fSymbols->fLeapMonthPatterns != NULL && fSymbols->fLeapMonthPatternsCount >= DateFormatSymbols::kMonthPatternsCount)? cal.get(UCAL_IS_LEAP_MONTH, status): 0; // should consolidate the next section by using arrays of pointers & counts for the right symbols... if (count == 5) { if (patternCharIndex == UDAT_MONTH_FIELD) { _appendSymbolWithMonthPattern(appendTo, value, fSymbols->fNarrowMonths, fSymbols->fNarrowMonthsCount, (isLeapMonth!=0)? &(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternFormatNarrow]): NULL, status); } else { _appendSymbolWithMonthPattern(appendTo, value, fSymbols->fStandaloneNarrowMonths, fSymbols->fStandaloneNarrowMonthsCount, (isLeapMonth!=0)? &(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternStandaloneNarrow]): NULL, status); } capContextUsageType = DateFormatSymbols::kCapContextUsageMonthNarrow; } else if (count == 4) { if (patternCharIndex == UDAT_MONTH_FIELD) { _appendSymbolWithMonthPattern(appendTo, value, fSymbols->fMonths, fSymbols->fMonthsCount, (isLeapMonth!=0)? &(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternFormatWide]): NULL, status); capContextUsageType = DateFormatSymbols::kCapContextUsageMonthFormat; } else { _appendSymbolWithMonthPattern(appendTo, value, fSymbols->fStandaloneMonths, fSymbols->fStandaloneMonthsCount, (isLeapMonth!=0)? &(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternStandaloneWide]): NULL, status); capContextUsageType = DateFormatSymbols::kCapContextUsageMonthStandalone; } } else if (count == 3) { if (patternCharIndex == UDAT_MONTH_FIELD) { _appendSymbolWithMonthPattern(appendTo, value, fSymbols->fShortMonths, fSymbols->fShortMonthsCount, (isLeapMonth!=0)? &(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternFormatAbbrev]): NULL, status); capContextUsageType = DateFormatSymbols::kCapContextUsageMonthFormat; } else { _appendSymbolWithMonthPattern(appendTo, value, fSymbols->fStandaloneShortMonths, fSymbols->fStandaloneShortMonthsCount, (isLeapMonth!=0)? &(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternStandaloneAbbrev]): NULL, status); capContextUsageType = DateFormatSymbols::kCapContextUsageMonthStandalone; } } else { UnicodeString monthNumber; zeroPaddingNumber(currentNumberFormat,monthNumber, value + 1, count, maxIntCount); _appendSymbolWithMonthPattern(appendTo, 0, &monthNumber, 1, (isLeapMonth!=0)? &(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternNumeric]): NULL, status); } } break; // for "k" and "kk", write out the hour, adjusting midnight to appear as "24" case UDAT_HOUR_OF_DAY1_FIELD: if (value == 0) zeroPaddingNumber(currentNumberFormat,appendTo, cal.getMaximum(UCAL_HOUR_OF_DAY) + 1, count, maxIntCount); else zeroPaddingNumber(currentNumberFormat,appendTo, value, count, maxIntCount); break; case UDAT_FRACTIONAL_SECOND_FIELD: // Fractional seconds left-justify { int32_t minDigits = (count > 3) ? 3 : count; if (count == 1) { value /= 100; } else if (count == 2) { value /= 10; } zeroPaddingNumber(currentNumberFormat, appendTo, value, minDigits, maxIntCount); if (count > 3) { zeroPaddingNumber(currentNumberFormat, appendTo, 0, count - 3, maxIntCount); } } break; // for "ee" or "e", use local numeric day-of-the-week // for "EEEEEE" or "eeeeee", write out the short day-of-the-week name // for "EEEEE" or "eeeee", write out the narrow day-of-the-week name // for "EEEE" or "eeee", write out the wide day-of-the-week name // for "EEE" or "EE" or "E" or "eee", write out the abbreviated day-of-the-week name case UDAT_DOW_LOCAL_FIELD: if ( count < 3 ) { zeroPaddingNumber(currentNumberFormat,appendTo, value, count, maxIntCount); break; } // fall through to EEEEE-EEE handling, but for that we don't want local day-of-week, // we want standard day-of-week, so first fix value to work for EEEEE-EEE. value = cal.get(UCAL_DAY_OF_WEEK, status); if (U_FAILURE(status)) { return; } // fall through, do not break here U_FALLTHROUGH; case UDAT_DAY_OF_WEEK_FIELD: if (count == 5) { _appendSymbol(appendTo, value, fSymbols->fNarrowWeekdays, fSymbols->fNarrowWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayNarrow; } else if (count == 4) { _appendSymbol(appendTo, value, fSymbols->fWeekdays, fSymbols->fWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayFormat; } else if (count == 6) { _appendSymbol(appendTo, value, fSymbols->fShorterWeekdays, fSymbols->fShorterWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayFormat; } else { _appendSymbol(appendTo, value, fSymbols->fShortWeekdays, fSymbols->fShortWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayFormat; } break; // for "ccc", write out the abbreviated day-of-the-week name // for "cccc", write out the wide day-of-the-week name // for "ccccc", use the narrow day-of-the-week name // for "ccccc", use the short day-of-the-week name case UDAT_STANDALONE_DAY_FIELD: if ( count < 3 ) { zeroPaddingNumber(currentNumberFormat,appendTo, value, 1, maxIntCount); break; } // fall through to alpha DOW handling, but for that we don't want local day-of-week, // we want standard day-of-week, so first fix value. value = cal.get(UCAL_DAY_OF_WEEK, status); if (U_FAILURE(status)) { return; } if (count == 5) { _appendSymbol(appendTo, value, fSymbols->fStandaloneNarrowWeekdays, fSymbols->fStandaloneNarrowWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayNarrow; } else if (count == 4) { _appendSymbol(appendTo, value, fSymbols->fStandaloneWeekdays, fSymbols->fStandaloneWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayStandalone; } else if (count == 6) { _appendSymbol(appendTo, value, fSymbols->fStandaloneShorterWeekdays, fSymbols->fStandaloneShorterWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayStandalone; } else { // count == 3 _appendSymbol(appendTo, value, fSymbols->fStandaloneShortWeekdays, fSymbols->fStandaloneShortWeekdaysCount); capContextUsageType = DateFormatSymbols::kCapContextUsageDayStandalone; } break; // for "a" symbol, write out the whole AM/PM string case UDAT_AM_PM_FIELD: if (count < 5) { _appendSymbol(appendTo, value, fSymbols->fAmPms, fSymbols->fAmPmsCount); } else { _appendSymbol(appendTo, value, fSymbols->fNarrowAmPms, fSymbols->fNarrowAmPmsCount); } break; // if we see pattern character for UDAT_TIME_SEPARATOR_FIELD (none currently defined), // write out the time separator string. Leave support in for future definition. case UDAT_TIME_SEPARATOR_FIELD: { UnicodeString separator; appendTo += fSymbols->getTimeSeparatorString(separator); } break; // for "h" and "hh", write out the hour, adjusting noon and midnight to show up // as "12" case UDAT_HOUR1_FIELD: if (value == 0) zeroPaddingNumber(currentNumberFormat,appendTo, cal.getLeastMaximum(UCAL_HOUR) + 1, count, maxIntCount); else zeroPaddingNumber(currentNumberFormat,appendTo, value, count, maxIntCount); break; case UDAT_TIMEZONE_FIELD: // 'z' case UDAT_TIMEZONE_RFC_FIELD: // 'Z' case UDAT_TIMEZONE_GENERIC_FIELD: // 'v' case UDAT_TIMEZONE_SPECIAL_FIELD: // 'V' case UDAT_TIMEZONE_LOCALIZED_GMT_OFFSET_FIELD: // 'O' case UDAT_TIMEZONE_ISO_FIELD: // 'X' case UDAT_TIMEZONE_ISO_LOCAL_FIELD: // 'x' { UChar zsbuf[ZONE_NAME_U16_MAX]; UnicodeString zoneString(zsbuf, 0, UPRV_LENGTHOF(zsbuf)); const TimeZone& tz = cal.getTimeZone(); UDate date = cal.getTime(status); const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { if (patternCharIndex == UDAT_TIMEZONE_FIELD) { if (count < 4) { // "z", "zz", "zzz" tzfmt->format(UTZFMT_STYLE_SPECIFIC_SHORT, tz, date, zoneString); capContextUsageType = DateFormatSymbols::kCapContextUsageMetazoneShort; } else { // "zzzz" or longer tzfmt->format(UTZFMT_STYLE_SPECIFIC_LONG, tz, date, zoneString); capContextUsageType = DateFormatSymbols::kCapContextUsageMetazoneLong; } } else if (patternCharIndex == UDAT_TIMEZONE_RFC_FIELD) { if (count < 4) { // "Z" tzfmt->format(UTZFMT_STYLE_ISO_BASIC_LOCAL_FULL, tz, date, zoneString); } else if (count == 5) { // "ZZZZZ" tzfmt->format(UTZFMT_STYLE_ISO_EXTENDED_FULL, tz, date, zoneString); } else { // "ZZ", "ZZZ", "ZZZZ" tzfmt->format(UTZFMT_STYLE_LOCALIZED_GMT, tz, date, zoneString); } } else if (patternCharIndex == UDAT_TIMEZONE_GENERIC_FIELD) { if (count == 1) { // "v" tzfmt->format(UTZFMT_STYLE_GENERIC_SHORT, tz, date, zoneString); capContextUsageType = DateFormatSymbols::kCapContextUsageMetazoneShort; } else if (count == 4) { // "vvvv" tzfmt->format(UTZFMT_STYLE_GENERIC_LONG, tz, date, zoneString); capContextUsageType = DateFormatSymbols::kCapContextUsageMetazoneLong; } } else if (patternCharIndex == UDAT_TIMEZONE_SPECIAL_FIELD) { if (count == 1) { // "V" tzfmt->format(UTZFMT_STYLE_ZONE_ID_SHORT, tz, date, zoneString); } else if (count == 2) { // "VV" tzfmt->format(UTZFMT_STYLE_ZONE_ID, tz, date, zoneString); } else if (count == 3) { // "VVV" tzfmt->format(UTZFMT_STYLE_EXEMPLAR_LOCATION, tz, date, zoneString); } else if (count == 4) { // "VVVV" tzfmt->format(UTZFMT_STYLE_GENERIC_LOCATION, tz, date, zoneString); capContextUsageType = DateFormatSymbols::kCapContextUsageZoneLong; } } else if (patternCharIndex == UDAT_TIMEZONE_LOCALIZED_GMT_OFFSET_FIELD) { if (count == 1) { // "O" tzfmt->format(UTZFMT_STYLE_LOCALIZED_GMT_SHORT, tz, date, zoneString); } else if (count == 4) { // "OOOO" tzfmt->format(UTZFMT_STYLE_LOCALIZED_GMT, tz, date, zoneString); } } else if (patternCharIndex == UDAT_TIMEZONE_ISO_FIELD) { if (count == 1) { // "X" tzfmt->format(UTZFMT_STYLE_ISO_BASIC_SHORT, tz, date, zoneString); } else if (count == 2) { // "XX" tzfmt->format(UTZFMT_STYLE_ISO_BASIC_FIXED, tz, date, zoneString); } else if (count == 3) { // "XXX" tzfmt->format(UTZFMT_STYLE_ISO_EXTENDED_FIXED, tz, date, zoneString); } else if (count == 4) { // "XXXX" tzfmt->format(UTZFMT_STYLE_ISO_BASIC_FULL, tz, date, zoneString); } else if (count == 5) { // "XXXXX" tzfmt->format(UTZFMT_STYLE_ISO_EXTENDED_FULL, tz, date, zoneString); } } else if (patternCharIndex == UDAT_TIMEZONE_ISO_LOCAL_FIELD) { if (count == 1) { // "x" tzfmt->format(UTZFMT_STYLE_ISO_BASIC_LOCAL_SHORT, tz, date, zoneString); } else if (count == 2) { // "xx" tzfmt->format(UTZFMT_STYLE_ISO_BASIC_LOCAL_FIXED, tz, date, zoneString); } else if (count == 3) { // "xxx" tzfmt->format(UTZFMT_STYLE_ISO_EXTENDED_LOCAL_FIXED, tz, date, zoneString); } else if (count == 4) { // "xxxx" tzfmt->format(UTZFMT_STYLE_ISO_BASIC_LOCAL_FULL, tz, date, zoneString); } else if (count == 5) { // "xxxxx" tzfmt->format(UTZFMT_STYLE_ISO_EXTENDED_LOCAL_FULL, tz, date, zoneString); } } else { UPRV_UNREACHABLE; } } appendTo += zoneString; } break; case UDAT_QUARTER_FIELD: if (count >= 4) _appendSymbol(appendTo, value/3, fSymbols->fQuarters, fSymbols->fQuartersCount); else if (count == 3) _appendSymbol(appendTo, value/3, fSymbols->fShortQuarters, fSymbols->fShortQuartersCount); else zeroPaddingNumber(currentNumberFormat,appendTo, (value/3) + 1, count, maxIntCount); break; case UDAT_STANDALONE_QUARTER_FIELD: if (count >= 4) _appendSymbol(appendTo, value/3, fSymbols->fStandaloneQuarters, fSymbols->fStandaloneQuartersCount); else if (count == 3) _appendSymbol(appendTo, value/3, fSymbols->fStandaloneShortQuarters, fSymbols->fStandaloneShortQuartersCount); else zeroPaddingNumber(currentNumberFormat,appendTo, (value/3) + 1, count, maxIntCount); break; case UDAT_AM_PM_MIDNIGHT_NOON_FIELD: { const UnicodeString *toAppend = NULL; int32_t hour = cal.get(UCAL_HOUR_OF_DAY, status); // Note: "midnight" can be ambiguous as to whether it refers to beginning of day or end of day. // For ICU 57 output of "midnight" is temporarily suppressed. // For "midnight" and "noon": // Time, as displayed, must be exactly noon or midnight. // This means minutes and seconds, if present, must be zero. if ((/*hour == 0 ||*/ hour == 12) && (!fHasMinute || cal.get(UCAL_MINUTE, status) == 0) && (!fHasSecond || cal.get(UCAL_SECOND, status) == 0)) { // Stealing am/pm value to use as our array index. // It works out: am/midnight are both 0, pm/noon are both 1, // 12 am is 12 midnight, and 12 pm is 12 noon. int32_t val = cal.get(UCAL_AM_PM, status); if (count <= 3) { toAppend = &fSymbols->fAbbreviatedDayPeriods[val]; } else if (count == 4 || count > 5) { toAppend = &fSymbols->fWideDayPeriods[val]; } else { // count == 5 toAppend = &fSymbols->fNarrowDayPeriods[val]; } } // toAppend is NULL if time isn't exactly midnight or noon (as displayed). // toAppend is bogus if time is midnight or noon, but no localized string exists. // In either case, fall back to am/pm. if (toAppend == NULL || toAppend->isBogus()) { // Reformat with identical arguments except ch, now changed to 'a'. subFormat(appendTo, 0x61, count, capitalizationContext, fieldNum, handler, cal, status); } else { appendTo += *toAppend; } break; } case UDAT_FLEXIBLE_DAY_PERIOD_FIELD: { // TODO: Maybe fetch the DayperiodRules during initialization (instead of at the first // loading of an instance) if a relevant pattern character (b or B) is used. const DayPeriodRules *ruleSet = DayPeriodRules::getInstance(this->getSmpFmtLocale(), status); if (U_FAILURE(status)) { // Data doesn't conform to spec, therefore loading failed. break; } if (ruleSet == NULL) { // Data doesn't exist for the locale we're looking for. // Falling back to am/pm. subFormat(appendTo, 0x61, count, capitalizationContext, fieldNum, handler, cal, status); break; } // Get current display time. int32_t hour = cal.get(UCAL_HOUR_OF_DAY, status); int32_t minute = 0; if (fHasMinute) { minute = cal.get(UCAL_MINUTE, status); } int32_t second = 0; if (fHasSecond) { second = cal.get(UCAL_SECOND, status); } // Determine day period. DayPeriodRules::DayPeriod periodType; if (hour == 0 && minute == 0 && second == 0 && ruleSet->hasMidnight()) { periodType = DayPeriodRules::DAYPERIOD_MIDNIGHT; } else if (hour == 12 && minute == 0 && second == 0 && ruleSet->hasNoon()) { periodType = DayPeriodRules::DAYPERIOD_NOON; } else { periodType = ruleSet->getDayPeriodForHour(hour); } // Rule set exists, therefore periodType can't be UNKNOWN. // Get localized string. U_ASSERT(periodType != DayPeriodRules::DAYPERIOD_UNKNOWN); UnicodeString *toAppend = NULL; int32_t index; // Note: "midnight" can be ambiguous as to whether it refers to beginning of day or end of day. // For ICU 57 output of "midnight" is temporarily suppressed. if (periodType != DayPeriodRules::DAYPERIOD_AM && periodType != DayPeriodRules::DAYPERIOD_PM && periodType != DayPeriodRules::DAYPERIOD_MIDNIGHT) { index = (int32_t)periodType; if (count <= 3) { toAppend = &fSymbols->fAbbreviatedDayPeriods[index]; // i.e. short } else if (count == 4 || count > 5) { toAppend = &fSymbols->fWideDayPeriods[index]; } else { // count == 5 toAppend = &fSymbols->fNarrowDayPeriods[index]; } } // Fallback schedule: // Midnight/Noon -> General Periods -> AM/PM. // Midnight/Noon -> General Periods. if ((toAppend == NULL || toAppend->isBogus()) && (periodType == DayPeriodRules::DAYPERIOD_MIDNIGHT || periodType == DayPeriodRules::DAYPERIOD_NOON)) { periodType = ruleSet->getDayPeriodForHour(hour); index = (int32_t)periodType; if (count <= 3) { toAppend = &fSymbols->fAbbreviatedDayPeriods[index]; // i.e. short } else if (count == 4 || count > 5) { toAppend = &fSymbols->fWideDayPeriods[index]; } else { // count == 5 toAppend = &fSymbols->fNarrowDayPeriods[index]; } } // General Periods -> AM/PM. if (periodType == DayPeriodRules::DAYPERIOD_AM || periodType == DayPeriodRules::DAYPERIOD_PM || toAppend->isBogus()) { subFormat(appendTo, 0x61, count, capitalizationContext, fieldNum, handler, cal, status); } else { appendTo += *toAppend; } break; } // all of the other pattern symbols can be formatted as simple numbers with // appropriate zero padding default: zeroPaddingNumber(currentNumberFormat,appendTo, value, count, maxIntCount); break; } #if !UCONFIG_NO_BREAK_ITERATION // if first field, check to see whether we need to and are able to titlecase it if (fieldNum == 0 && fCapitalizationBrkIter != NULL && appendTo.length() > beginOffset && u_islower(appendTo.char32At(beginOffset))) { UBool titlecase = FALSE; switch (capitalizationContext) { case UDISPCTX_CAPITALIZATION_FOR_BEGINNING_OF_SENTENCE: titlecase = TRUE; break; case UDISPCTX_CAPITALIZATION_FOR_UI_LIST_OR_MENU: titlecase = fSymbols->fCapitalization[capContextUsageType][0]; break; case UDISPCTX_CAPITALIZATION_FOR_STANDALONE: titlecase = fSymbols->fCapitalization[capContextUsageType][1]; break; default: // titlecase = FALSE; break; } if (titlecase) { UnicodeString firstField(appendTo, beginOffset); firstField.toTitle(fCapitalizationBrkIter, fLocale, U_TITLECASE_NO_LOWERCASE | U_TITLECASE_NO_BREAK_ADJUSTMENT); appendTo.replaceBetween(beginOffset, appendTo.length(), firstField); } } #endif handler.addAttribute(fgPatternIndexToDateFormatField[patternCharIndex], beginOffset, appendTo.length()); } //---------------------------------------------------------------------- void SimpleDateFormat::adoptNumberFormat(NumberFormat *formatToAdopt) { fixNumberFormatForDates(*formatToAdopt); delete fNumberFormat; fNumberFormat = formatToAdopt; // We successfully set the default number format. Now delete the overrides // (can't fail). if (fSharedNumberFormatters) { freeSharedNumberFormatters(fSharedNumberFormatters); fSharedNumberFormatters = NULL; } // Also re-compute the fast formatters. UErrorCode localStatus = U_ZERO_ERROR; freeFastNumberFormatters(); initFastNumberFormatters(localStatus); } void SimpleDateFormat::adoptNumberFormat(const UnicodeString& fields, NumberFormat *formatToAdopt, UErrorCode &status){ fixNumberFormatForDates(*formatToAdopt); LocalPointer fmt(formatToAdopt); if (U_FAILURE(status)) { return; } // We must ensure fSharedNumberFormatters is allocated. if (fSharedNumberFormatters == NULL) { fSharedNumberFormatters = allocSharedNumberFormatters(); if (fSharedNumberFormatters == NULL) { status = U_MEMORY_ALLOCATION_ERROR; return; } } const SharedNumberFormat *newFormat = createSharedNumberFormat(fmt.orphan()); if (newFormat == NULL) { status = U_MEMORY_ALLOCATION_ERROR; return; } for (int i=0; ideleteIfZeroRefCount(); return; } // Set the number formatter in the table SharedObject::copyPtr( newFormat, fSharedNumberFormatters[patternCharIndex]); } newFormat->deleteIfZeroRefCount(); } const NumberFormat * SimpleDateFormat::getNumberFormatForField(UChar field) const { UDateFormatField index = DateFormatSymbols::getPatternCharIndex(field); if (index == UDAT_FIELD_COUNT) { return NULL; } return getNumberFormatByIndex(index); } //---------------------------------------------------------------------- void SimpleDateFormat::zeroPaddingNumber( const NumberFormat *currentNumberFormat, UnicodeString &appendTo, int32_t value, int32_t minDigits, int32_t maxDigits) const { const number::LocalizedNumberFormatter* fastFormatter = nullptr; // NOTE: This uses the heuristic that these five min/max int settings account for the vast majority // of SimpleDateFormat number formatting cases at the time of writing (ICU 62). if (currentNumberFormat == fNumberFormat) { if (maxDigits == 10) { if (minDigits == 1) { fastFormatter = fFastNumberFormatters[SMPDTFMT_NF_1x10]; } else if (minDigits == 2) { fastFormatter = fFastNumberFormatters[SMPDTFMT_NF_2x10]; } else if (minDigits == 3) { fastFormatter = fFastNumberFormatters[SMPDTFMT_NF_3x10]; } else if (minDigits == 4) { fastFormatter = fFastNumberFormatters[SMPDTFMT_NF_4x10]; } } else if (maxDigits == 2) { if (minDigits == 2) { fastFormatter = fFastNumberFormatters[SMPDTFMT_NF_2x2]; } } } if (fastFormatter != nullptr) { // Can use fast path number::impl::UFormattedNumberData result; result.quantity.setToInt(value); UErrorCode localStatus = U_ZERO_ERROR; fastFormatter->formatImpl(&result, localStatus); if (U_FAILURE(localStatus)) { return; } appendTo.append(result.getStringRef().toTempUnicodeString()); return; } // Check for RBNF (no clone necessary) auto* rbnf = dynamic_cast(currentNumberFormat); if (rbnf != nullptr) { FieldPosition pos(FieldPosition::DONT_CARE); rbnf->format(value, appendTo, pos); // 3rd arg is there to speed up processing return; } // Fall back to slow path (clone and mutate the NumberFormat) if (currentNumberFormat != nullptr) { FieldPosition pos(FieldPosition::DONT_CARE); LocalPointer nf(dynamic_cast(currentNumberFormat->clone())); nf->setMinimumIntegerDigits(minDigits); nf->setMaximumIntegerDigits(maxDigits); nf->format(value, appendTo, pos); // 3rd arg is there to speed up processing } } //---------------------------------------------------------------------- /** * Return true if the given format character, occuring count * times, represents a numeric field. */ UBool SimpleDateFormat::isNumeric(UChar formatChar, int32_t count) { return DateFormatSymbols::isNumericPatternChar(formatChar, count); } UBool SimpleDateFormat::isAtNumericField(const UnicodeString &pattern, int32_t patternOffset) { if (patternOffset >= pattern.length()) { // not at any field return FALSE; } UChar ch = pattern.charAt(patternOffset); UDateFormatField f = DateFormatSymbols::getPatternCharIndex(ch); if (f == UDAT_FIELD_COUNT) { // not at any field return FALSE; } int32_t i = patternOffset; while (pattern.charAt(++i) == ch) {} return DateFormatSymbols::isNumericField(f, i - patternOffset); } UBool SimpleDateFormat::isAfterNonNumericField(const UnicodeString &pattern, int32_t patternOffset) { if (patternOffset <= 0) { // not after any field return FALSE; } UChar ch = pattern.charAt(--patternOffset); UDateFormatField f = DateFormatSymbols::getPatternCharIndex(ch); if (f == UDAT_FIELD_COUNT) { // not after any field return FALSE; } int32_t i = patternOffset; while (pattern.charAt(--i) == ch) {} return !DateFormatSymbols::isNumericField(f, patternOffset - i); } void SimpleDateFormat::parse(const UnicodeString& text, Calendar& cal, ParsePosition& parsePos) const { UErrorCode status = U_ZERO_ERROR; int32_t pos = parsePos.getIndex(); if(parsePos.getIndex() < 0) { parsePos.setErrorIndex(0); return; } int32_t start = pos; // Hold the day period until everything else is parsed, because we need // the hour to interpret time correctly. int32_t dayPeriodInt = -1; UBool ambiguousYear[] = { FALSE }; int32_t saveHebrewMonth = -1; int32_t count = 0; UTimeZoneFormatTimeType tzTimeType = UTZFMT_TIME_TYPE_UNKNOWN; // For parsing abutting numeric fields. 'abutPat' is the // offset into 'pattern' of the first of 2 or more abutting // numeric fields. 'abutStart' is the offset into 'text' // where parsing the fields begins. 'abutPass' starts off as 0 // and increments each time we try to parse the fields. int32_t abutPat = -1; // If >=0, we are in a run of abutting numeric fields int32_t abutStart = 0; int32_t abutPass = 0; UBool inQuote = FALSE; MessageFormat * numericLeapMonthFormatter = NULL; Calendar* calClone = NULL; Calendar *workCal = &cal; if (&cal != fCalendar && uprv_strcmp(cal.getType(), fCalendar->getType()) != 0) { // Different calendar type // We use the time/zone from the input calendar, but // do not use the input calendar for field calculation. calClone = fCalendar->clone(); if (calClone != NULL) { calClone->setTime(cal.getTime(status),status); if (U_FAILURE(status)) { goto ExitParse; } calClone->setTimeZone(cal.getTimeZone()); workCal = calClone; } else { status = U_MEMORY_ALLOCATION_ERROR; goto ExitParse; } } if (fSymbols->fLeapMonthPatterns != NULL && fSymbols->fLeapMonthPatternsCount >= DateFormatSymbols::kMonthPatternsCount) { numericLeapMonthFormatter = new MessageFormat(fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternNumeric], fLocale, status); if (numericLeapMonthFormatter == NULL) { status = U_MEMORY_ALLOCATION_ERROR; goto ExitParse; } else if (U_FAILURE(status)) { goto ExitParse; // this will delete numericLeapMonthFormatter } } for (int32_t i=0; i 12:34:56, but // "12345" => 1:23:45. Likewise, for the pattern "yyyyMMdd" we // try 4/2/2, 3/2/2, 2/2/2, and finally 1/2/2. if (abutPat >= 0) { // If we are at the start of a run of abutting fields, then // shorten this field in each pass. If we can't shorten // this field any more, then the parse of this set of // abutting numeric fields has failed. if (fieldPat == abutPat) { count -= abutPass++; if (count == 0) { status = U_PARSE_ERROR; goto ExitParse; } } pos = subParse(text, pos, ch, count, TRUE, FALSE, ambiguousYear, saveHebrewMonth, *workCal, i, numericLeapMonthFormatter, &tzTimeType); // If the parse fails anywhere in the run, back up to the // start of the run and retry. if (pos < 0) { i = abutPat - 1; pos = abutStart; continue; } } // Handle non-numeric fields and non-abutting numeric // fields. else if (ch != 0x6C) { // pattern char 'l' (SMALL LETTER L) just gets ignored int32_t s = subParse(text, pos, ch, count, FALSE, TRUE, ambiguousYear, saveHebrewMonth, *workCal, i, numericLeapMonthFormatter, &tzTimeType, &dayPeriodInt); if (s == -pos-1) { // era not present, in special cases allow this to continue // from the position where the era was expected s = pos; if (i+1 < fPattern.length()) { // move to next pattern character UChar c = fPattern.charAt(i+1); // check for whitespace if (PatternProps::isWhiteSpace(c)) { i++; // Advance over run in pattern while ((i+1)= 0) { DayPeriodRules::DayPeriod dayPeriod = (DayPeriodRules::DayPeriod)dayPeriodInt; const DayPeriodRules *ruleSet = DayPeriodRules::getInstance(this->getSmpFmtLocale(), status); if (!cal.isSet(UCAL_HOUR) && !cal.isSet(UCAL_HOUR_OF_DAY)) { // If hour is not set, set time to the midpoint of current day period, overwriting // minutes if it's set. double midPoint = ruleSet->getMidPointForDayPeriod(dayPeriod, status); // If we can't get midPoint we do nothing. if (U_SUCCESS(status)) { // Truncate midPoint toward zero to get the hour. // Any leftover means it was a half-hour. int32_t midPointHour = (int32_t) midPoint; int32_t midPointMinute = (midPoint - midPointHour) > 0 ? 30 : 0; // No need to set am/pm because hour-of-day is set last therefore takes precedence. cal.set(UCAL_HOUR_OF_DAY, midPointHour); cal.set(UCAL_MINUTE, midPointMinute); } } else { int hourOfDay; if (cal.isSet(UCAL_HOUR_OF_DAY)) { // Hour is parsed in 24-hour format. hourOfDay = cal.get(UCAL_HOUR_OF_DAY, status); } else { // Hour is parsed in 12-hour format. hourOfDay = cal.get(UCAL_HOUR, status); // cal.get() turns 12 to 0 for 12-hour time; change 0 to 12 // so 0 unambiguously means a 24-hour time from above. if (hourOfDay == 0) { hourOfDay = 12; } } U_ASSERT(0 <= hourOfDay && hourOfDay <= 23); // If hour-of-day is 0 or 13 thru 23 then input time in unambiguously in 24-hour format. if (hourOfDay == 0 || (13 <= hourOfDay && hourOfDay <= 23)) { // Make hour-of-day take precedence over (hour + am/pm) by setting it again. cal.set(UCAL_HOUR_OF_DAY, hourOfDay); } else { // We have a 12-hour time and need to choose between am and pm. // Behave as if dayPeriod spanned 6 hours each way from its center point. // This will parse correctly for consistent time + period (e.g. 10 at night) as // well as provide a reasonable recovery for inconsistent time + period (e.g. // 9 in the afternoon). // Assume current time is in the AM. // - Change 12 back to 0 for easier handling of 12am. // - Append minutes as fractional hours because e.g. 8:15 and 8:45 could be parsed // into different half-days if center of dayPeriod is at 14:30. // - cal.get(MINUTE) will return 0 if MINUTE is unset, which works. if (hourOfDay == 12) { hourOfDay = 0; } double currentHour = hourOfDay + (cal.get(UCAL_MINUTE, status)) / 60.0; double midPointHour = ruleSet->getMidPointForDayPeriod(dayPeriod, status); if (U_SUCCESS(status)) { double hoursAheadMidPoint = currentHour - midPointHour; // Assume current time is in the AM. if (-6 <= hoursAheadMidPoint && hoursAheadMidPoint < 6) { // Assumption holds; set time as such. cal.set(UCAL_AM_PM, 0); } else { cal.set(UCAL_AM_PM, 1); } } } } } // At this point the fields of Calendar have been set. Calendar // will fill in default values for missing fields when the time // is computed. parsePos.setIndex(pos); // This part is a problem: When we call parsedDate.after, we compute the time. // Take the date April 3 2004 at 2:30 am. When this is first set up, the year // will be wrong if we're parsing a 2-digit year pattern. It will be 1904. // April 3 1904 is a Sunday (unlike 2004) so it is the DST onset day. 2:30 am // is therefore an "impossible" time, since the time goes from 1:59 to 3:00 am // on that day. It is therefore parsed out to fields as 3:30 am. Then we // add 100 years, and get April 3 2004 at 3:30 am. Note that April 3 2004 is // a Saturday, so it can have a 2:30 am -- and it should. [LIU] /* UDate parsedDate = calendar.getTime(); if( ambiguousYear[0] && !parsedDate.after(fDefaultCenturyStart) ) { calendar.add(Calendar.YEAR, 100); parsedDate = calendar.getTime(); } */ // Because of the above condition, save off the fields in case we need to readjust. // The procedure we use here is not particularly efficient, but there is no other // way to do this given the API restrictions present in Calendar. We minimize // inefficiency by only performing this computation when it might apply, that is, // when the two-digit year is equal to the start year, and thus might fall at the // front or the back of the default century. This only works because we adjust // the year correctly to start with in other cases -- see subParse(). if (ambiguousYear[0] || tzTimeType != UTZFMT_TIME_TYPE_UNKNOWN) // If this is true then the two-digit year == the default start year { // We need a copy of the fields, and we need to avoid triggering a call to // complete(), which will recalculate the fields. Since we can't access // the fields[] array in Calendar, we clone the entire object. This will // stop working if Calendar.clone() is ever rewritten to call complete(). Calendar *copy; if (ambiguousYear[0]) { copy = cal.clone(); // Check for failed cloning. if (copy == NULL) { status = U_MEMORY_ALLOCATION_ERROR; goto ExitParse; } UDate parsedDate = copy->getTime(status); // {sfb} check internalGetDefaultCenturyStart if (fHaveDefaultCentury && (parsedDate < fDefaultCenturyStart)) { // We can't use add here because that does a complete() first. cal.set(UCAL_YEAR, fDefaultCenturyStartYear + 100); } delete copy; } if (tzTimeType != UTZFMT_TIME_TYPE_UNKNOWN) { copy = cal.clone(); // Check for failed cloning. if (copy == NULL) { status = U_MEMORY_ALLOCATION_ERROR; goto ExitParse; } const TimeZone & tz = cal.getTimeZone(); BasicTimeZone *btz = NULL; if (dynamic_cast(&tz) != NULL || dynamic_cast(&tz) != NULL || dynamic_cast(&tz) != NULL || dynamic_cast(&tz) != NULL) { btz = (BasicTimeZone*)&tz; } // Get local millis copy->set(UCAL_ZONE_OFFSET, 0); copy->set(UCAL_DST_OFFSET, 0); UDate localMillis = copy->getTime(status); // Make sure parsed time zone type (Standard or Daylight) // matches the rule used by the parsed time zone. int32_t raw, dst; if (btz != NULL) { if (tzTimeType == UTZFMT_TIME_TYPE_STANDARD) { btz->getOffsetFromLocal(localMillis, BasicTimeZone::kStandard, BasicTimeZone::kStandard, raw, dst, status); } else { btz->getOffsetFromLocal(localMillis, BasicTimeZone::kDaylight, BasicTimeZone::kDaylight, raw, dst, status); } } else { // No good way to resolve ambiguous time at transition, // but following code work in most case. tz.getOffset(localMillis, TRUE, raw, dst, status); } // Now, compare the results with parsed type, either standard or daylight saving time int32_t resolvedSavings = dst; if (tzTimeType == UTZFMT_TIME_TYPE_STANDARD) { if (dst != 0) { // Override DST_OFFSET = 0 in the result calendar resolvedSavings = 0; } } else { // tztype == TZTYPE_DST if (dst == 0) { if (btz != NULL) { UDate time = localMillis + raw; // We use the nearest daylight saving time rule. TimeZoneTransition beforeTrs, afterTrs; UDate beforeT = time, afterT = time; int32_t beforeSav = 0, afterSav = 0; UBool beforeTrsAvail, afterTrsAvail; // Search for DST rule before or on the time while (TRUE) { beforeTrsAvail = btz->getPreviousTransition(beforeT, TRUE, beforeTrs); if (!beforeTrsAvail) { break; } beforeT = beforeTrs.getTime() - 1; beforeSav = beforeTrs.getFrom()->getDSTSavings(); if (beforeSav != 0) { break; } } // Search for DST rule after the time while (TRUE) { afterTrsAvail = btz->getNextTransition(afterT, FALSE, afterTrs); if (!afterTrsAvail) { break; } afterT = afterTrs.getTime(); afterSav = afterTrs.getTo()->getDSTSavings(); if (afterSav != 0) { break; } } if (beforeTrsAvail && afterTrsAvail) { if (time - beforeT > afterT - time) { resolvedSavings = afterSav; } else { resolvedSavings = beforeSav; } } else if (beforeTrsAvail && beforeSav != 0) { resolvedSavings = beforeSav; } else if (afterTrsAvail && afterSav != 0) { resolvedSavings = afterSav; } else { resolvedSavings = btz->getDSTSavings(); } } else { resolvedSavings = tz.getDSTSavings(); } if (resolvedSavings == 0) { // final fallback resolvedSavings = U_MILLIS_PER_HOUR; } } } cal.set(UCAL_ZONE_OFFSET, raw); cal.set(UCAL_DST_OFFSET, resolvedSavings); delete copy; } } ExitParse: // Set the parsed result if local calendar is used // instead of the input calendar if (U_SUCCESS(status) && workCal != &cal) { cal.setTimeZone(workCal->getTimeZone()); cal.setTime(workCal->getTime(status), status); } if (numericLeapMonthFormatter != NULL) { delete numericLeapMonthFormatter; } if (calClone != NULL) { delete calClone; } // If any Calendar calls failed, we pretend that we // couldn't parse the string, when in reality this isn't quite accurate-- // we did parse it; the Calendar calls just failed. if (U_FAILURE(status)) { parsePos.setErrorIndex(pos); parsePos.setIndex(start); } } //---------------------------------------------------------------------- static int32_t matchStringWithOptionalDot(const UnicodeString &text, int32_t index, const UnicodeString &data); int32_t SimpleDateFormat::matchQuarterString(const UnicodeString& text, int32_t start, UCalendarDateFields field, const UnicodeString* data, int32_t dataCount, Calendar& cal) const { int32_t i = 0; int32_t count = dataCount; // There may be multiple strings in the data[] array which begin with // the same prefix (e.g., Cerven and Cervenec (June and July) in Czech). // We keep track of the longest match, and return that. Note that this // unfortunately requires us to test all array elements. int32_t bestMatchLength = 0, bestMatch = -1; UnicodeString bestMatchName; for (; i < count; ++i) { int32_t matchLength = 0; if ((matchLength = matchStringWithOptionalDot(text, start, data[i])) > bestMatchLength) { bestMatchLength = matchLength; bestMatch = i; } } if (bestMatch >= 0) { cal.set(field, bestMatch * 3); return start + bestMatchLength; } return -start; } int32_t SimpleDateFormat::matchDayPeriodStrings(const UnicodeString& text, int32_t start, const UnicodeString* data, int32_t dataCount, int32_t &dayPeriod) const { int32_t bestMatchLength = 0, bestMatch = -1; for (int32_t i = 0; i < dataCount; ++i) { int32_t matchLength = 0; if ((matchLength = matchStringWithOptionalDot(text, start, data[i])) > bestMatchLength) { bestMatchLength = matchLength; bestMatch = i; } } if (bestMatch >= 0) { dayPeriod = bestMatch; return start + bestMatchLength; } return -start; } //---------------------------------------------------------------------- UBool SimpleDateFormat::matchLiterals(const UnicodeString &pattern, int32_t &patternOffset, const UnicodeString &text, int32_t &textOffset, UBool whitespaceLenient, UBool partialMatchLenient, UBool oldLeniency) { UBool inQuote = FALSE; UnicodeString literal; int32_t i = patternOffset; // scan pattern looking for contiguous literal characters for ( ; i < pattern.length(); i += 1) { UChar ch = pattern.charAt(i); if (!inQuote && isSyntaxChar(ch)) { break; } if (ch == QUOTE) { // Match a quote literal ('') inside OR outside of quotes if ((i + 1) < pattern.length() && pattern.charAt(i + 1) == QUOTE) { i += 1; } else { inQuote = !inQuote; continue; } } literal += ch; } // at this point, literal contains the literal text // and i is the index of the next non-literal pattern character. int32_t p; int32_t t = textOffset; if (whitespaceLenient) { // trim leading, trailing whitespace from // the literal text literal.trim(); // ignore any leading whitespace in the text while (t < text.length() && u_isWhitespace(text.charAt(t))) { t += 1; } } for (p = 0; p < literal.length() && t < text.length();) { UBool needWhitespace = FALSE; while (p < literal.length() && PatternProps::isWhiteSpace(literal.charAt(p))) { needWhitespace = TRUE; p += 1; } if (needWhitespace) { int32_t tStart = t; while (t < text.length()) { UChar tch = text.charAt(t); if (!u_isUWhiteSpace(tch) && !PatternProps::isWhiteSpace(tch)) { break; } t += 1; } // TODO: should we require internal spaces // in lenient mode? (There won't be any // leading or trailing spaces) if (!whitespaceLenient && t == tStart) { // didn't find matching whitespace: // an error in strict mode return FALSE; } // In strict mode, this run of whitespace // may have been at the end. if (p >= literal.length()) { break; } } if (t >= text.length() || literal.charAt(p) != text.charAt(t)) { // Ran out of text, or found a non-matching character: // OK in lenient mode, an error in strict mode. if (whitespaceLenient) { if (t == textOffset && text.charAt(t) == 0x2e && isAfterNonNumericField(pattern, patternOffset)) { // Lenient mode and the literal input text begins with a "." and // we are after a non-numeric field: We skip the "." ++t; continue; // Do not update p. } // if it is actual whitespace and we're whitespace lenient it's OK UChar wsc = text.charAt(t); if(PatternProps::isWhiteSpace(wsc)) { // Lenient mode and it's just whitespace we skip it ++t; continue; // Do not update p. } } // hack around oldleniency being a bit of a catch-all bucket and we're just adding support specifically for paritial matches if(partialMatchLenient && oldLeniency) { break; } return FALSE; } ++p; ++t; } // At this point if we're in strict mode we have a complete match. // If we're in lenient mode we may have a partial match, or no // match at all. if (p <= 0) { // no match. Pretend it matched a run of whitespace // and ignorables in the text. const UnicodeSet *ignorables = NULL; UDateFormatField patternCharIndex = DateFormatSymbols::getPatternCharIndex(pattern.charAt(i)); if (patternCharIndex != UDAT_FIELD_COUNT) { ignorables = SimpleDateFormatStaticSets::getIgnorables(patternCharIndex); } for (t = textOffset; t < text.length(); t += 1) { UChar ch = text.charAt(t); if (ignorables == NULL || !ignorables->contains(ch)) { break; } } } // if we get here, we've got a complete match. patternOffset = i - 1; textOffset = t; return TRUE; } //---------------------------------------------------------------------- int32_t SimpleDateFormat::matchString(const UnicodeString& text, int32_t start, UCalendarDateFields field, const UnicodeString* data, int32_t dataCount, const UnicodeString* monthPattern, Calendar& cal) const { int32_t i = 0; int32_t count = dataCount; if (field == UCAL_DAY_OF_WEEK) i = 1; // There may be multiple strings in the data[] array which begin with // the same prefix (e.g., Cerven and Cervenec (June and July) in Czech). // We keep track of the longest match, and return that. Note that this // unfortunately requires us to test all array elements. int32_t bestMatchLength = 0, bestMatch = -1; UnicodeString bestMatchName; int32_t isLeapMonth = 0; for (; i < count; ++i) { int32_t matchLen = 0; if ((matchLen = matchStringWithOptionalDot(text, start, data[i])) > bestMatchLength) { bestMatch = i; bestMatchLength = matchLen; } if (monthPattern != NULL) { UErrorCode status = U_ZERO_ERROR; UnicodeString leapMonthName; SimpleFormatter(*monthPattern, 1, 1, status).format(data[i], leapMonthName, status); if (U_SUCCESS(status)) { if ((matchLen = matchStringWithOptionalDot(text, start, leapMonthName)) > bestMatchLength) { bestMatch = i; bestMatchLength = matchLen; isLeapMonth = 1; } } } } if (bestMatch >= 0) { if (field < UCAL_FIELD_COUNT) { // Adjustment for Hebrew Calendar month Adar II if (!strcmp(cal.getType(),"hebrew") && field==UCAL_MONTH && bestMatch==13) { cal.set(field,6); } else { if (field == UCAL_YEAR) { bestMatch++; // only get here for cyclic year names, which match 1-based years 1-60 } cal.set(field, bestMatch); } if (monthPattern != NULL) { cal.set(UCAL_IS_LEAP_MONTH, isLeapMonth); } } return start + bestMatchLength; } return -start; } static int32_t matchStringWithOptionalDot(const UnicodeString &text, int32_t index, const UnicodeString &data) { UErrorCode sts = U_ZERO_ERROR; int32_t matchLenText = 0; int32_t matchLenData = 0; u_caseInsensitivePrefixMatch(text.getBuffer() + index, text.length() - index, data.getBuffer(), data.length(), 0 /* default case option */, &matchLenText, &matchLenData, &sts); U_ASSERT (U_SUCCESS(sts)); if (matchLenData == data.length() /* normal match */ || (data.charAt(data.length() - 1) == 0x2e && matchLenData == data.length() - 1 /* match without trailing dot */)) { return matchLenText; } return 0; } //---------------------------------------------------------------------- void SimpleDateFormat::set2DigitYearStart(UDate d, UErrorCode& status) { parseAmbiguousDatesAsAfter(d, status); } /** * Private member function that converts the parsed date strings into * timeFields. Returns -start (for ParsePosition) if failed. */ int32_t SimpleDateFormat::subParse(const UnicodeString& text, int32_t& start, UChar ch, int32_t count, UBool obeyCount, UBool allowNegative, UBool ambiguousYear[], int32_t& saveHebrewMonth, Calendar& cal, int32_t patLoc, MessageFormat * numericLeapMonthFormatter, UTimeZoneFormatTimeType *tzTimeType, int32_t *dayPeriod) const { Formattable number; int32_t value = 0; int32_t i; int32_t ps = 0; UErrorCode status = U_ZERO_ERROR; ParsePosition pos(0); UDateFormatField patternCharIndex = DateFormatSymbols::getPatternCharIndex(ch); const NumberFormat *currentNumberFormat; UnicodeString temp; UBool gotNumber = FALSE; #if defined (U_DEBUG_CAL) //fprintf(stderr, "%s:%d - [%c] st=%d \n", __FILE__, __LINE__, (char) ch, start); #endif if (patternCharIndex == UDAT_FIELD_COUNT) { return -start; } currentNumberFormat = getNumberFormatByIndex(patternCharIndex); if (currentNumberFormat == NULL) { return -start; } UCalendarDateFields field = fgPatternIndexToCalendarField[patternCharIndex]; // UCAL_FIELD_COUNT if irrelevant UnicodeString hebr("hebr", 4, US_INV); if (numericLeapMonthFormatter != NULL) { numericLeapMonthFormatter->setFormats((const Format **)¤tNumberFormat, 1); } UBool isChineseCalendar = (uprv_strcmp(cal.getType(),"chinese") == 0 || uprv_strcmp(cal.getType(),"dangi") == 0); // If there are any spaces here, skip over them. If we hit the end // of the string, then fail. for (;;) { if (start >= text.length()) { return -start; } UChar32 c = text.char32At(start); if (!u_isUWhiteSpace(c) /*||*/ && !PatternProps::isWhiteSpace(c)) { break; } start += U16_LENGTH(c); } pos.setIndex(start); // We handle a few special cases here where we need to parse // a number value. We handle further, more generic cases below. We need // to handle some of them here because some fields require extra processing on // the parsed value. if (patternCharIndex == UDAT_HOUR_OF_DAY1_FIELD || // k patternCharIndex == UDAT_HOUR_OF_DAY0_FIELD || // H patternCharIndex == UDAT_HOUR1_FIELD || // h patternCharIndex == UDAT_HOUR0_FIELD || // K (patternCharIndex == UDAT_DOW_LOCAL_FIELD && count <= 2) || // e (patternCharIndex == UDAT_STANDALONE_DAY_FIELD && count <= 2) || // c (patternCharIndex == UDAT_MONTH_FIELD && count <= 2) || // M (patternCharIndex == UDAT_STANDALONE_MONTH_FIELD && count <= 2) || // L (patternCharIndex == UDAT_QUARTER_FIELD && count <= 2) || // Q (patternCharIndex == UDAT_STANDALONE_QUARTER_FIELD && count <= 2) || // q patternCharIndex == UDAT_YEAR_FIELD || // y patternCharIndex == UDAT_YEAR_WOY_FIELD || // Y patternCharIndex == UDAT_YEAR_NAME_FIELD || // U (falls back to numeric) (patternCharIndex == UDAT_ERA_FIELD && isChineseCalendar) || // G patternCharIndex == UDAT_FRACTIONAL_SECOND_FIELD) // S { int32_t parseStart = pos.getIndex(); // It would be good to unify this with the obeyCount logic below, // but that's going to be difficult. const UnicodeString* src; UBool parsedNumericLeapMonth = FALSE; if (numericLeapMonthFormatter != NULL && (patternCharIndex == UDAT_MONTH_FIELD || patternCharIndex == UDAT_STANDALONE_MONTH_FIELD)) { int32_t argCount; Formattable * args = numericLeapMonthFormatter->parse(text, pos, argCount); if (args != NULL && argCount == 1 && pos.getIndex() > parseStart && args[0].isNumeric()) { parsedNumericLeapMonth = TRUE; number.setLong(args[0].getLong()); cal.set(UCAL_IS_LEAP_MONTH, 1); delete[] args; } else { pos.setIndex(parseStart); cal.set(UCAL_IS_LEAP_MONTH, 0); } } if (!parsedNumericLeapMonth) { if (obeyCount) { if ((start+count) > text.length()) { return -start; } text.extractBetween(0, start + count, temp); src = &temp; } else { src = &text; } parseInt(*src, number, pos, allowNegative,currentNumberFormat); } int32_t txtLoc = pos.getIndex(); if (txtLoc > parseStart) { value = number.getLong(); gotNumber = TRUE; // suffix processing if (value < 0 ) { txtLoc = checkIntSuffix(text, txtLoc, patLoc+1, TRUE); if (txtLoc != pos.getIndex()) { value *= -1; } } else { txtLoc = checkIntSuffix(text, txtLoc, patLoc+1, FALSE); } if (!getBooleanAttribute(UDAT_PARSE_ALLOW_WHITESPACE, status)) { // Check the range of the value int32_t bias = gFieldRangeBias[patternCharIndex]; if (bias >= 0 && (value > cal.getMaximum(field) + bias || value < cal.getMinimum(field) + bias)) { return -start; } } pos.setIndex(txtLoc); } } // Make sure that we got a number if // we want one, and didn't get one // if we don't want one. switch (patternCharIndex) { case UDAT_HOUR_OF_DAY1_FIELD: case UDAT_HOUR_OF_DAY0_FIELD: case UDAT_HOUR1_FIELD: case UDAT_HOUR0_FIELD: // special range check for hours: if (value < 0 || value > 24) { return -start; } // fall through to gotNumber check U_FALLTHROUGH; case UDAT_YEAR_FIELD: case UDAT_YEAR_WOY_FIELD: case UDAT_FRACTIONAL_SECOND_FIELD: // these must be a number if (! gotNumber) { return -start; } break; default: // we check the rest of the fields below. break; } switch (patternCharIndex) { case UDAT_ERA_FIELD: if (isChineseCalendar) { if (!gotNumber) { return -start; } cal.set(UCAL_ERA, value); return pos.getIndex(); } if (count == 5) { ps = matchString(text, start, UCAL_ERA, fSymbols->fNarrowEras, fSymbols->fNarrowErasCount, NULL, cal); } else if (count == 4) { ps = matchString(text, start, UCAL_ERA, fSymbols->fEraNames, fSymbols->fEraNamesCount, NULL, cal); } else { ps = matchString(text, start, UCAL_ERA, fSymbols->fEras, fSymbols->fErasCount, NULL, cal); } // check return position, if it equals -start, then matchString error // special case the return code so we don't necessarily fail out until we // verify no year information also if (ps == -start) ps--; return ps; case UDAT_YEAR_FIELD: // If there are 3 or more YEAR pattern characters, this indicates // that the year value is to be treated literally, without any // two-digit year adjustments (e.g., from "01" to 2001). Otherwise // we made adjustments to place the 2-digit year in the proper // century, for parsed strings from "00" to "99". Any other string // is treated literally: "2250", "-1", "1", "002". if (fDateOverride.compare(hebr)==0 && value < 1000) { value += HEBREW_CAL_CUR_MILLENIUM_START_YEAR; } else if (text.moveIndex32(start, 2) == pos.getIndex() && !isChineseCalendar && u_isdigit(text.char32At(start)) && u_isdigit(text.char32At(text.moveIndex32(start, 1)))) { // only adjust year for patterns less than 3. if(count < 3) { // Assume for example that the defaultCenturyStart is 6/18/1903. // This means that two-digit years will be forced into the range // 6/18/1903 to 6/17/2003. As a result, years 00, 01, and 02 // correspond to 2000, 2001, and 2002. Years 04, 05, etc. correspond // to 1904, 1905, etc. If the year is 03, then it is 2003 if the // other fields specify a date before 6/18, or 1903 if they specify a // date afterwards. As a result, 03 is an ambiguous year. All other // two-digit years are unambiguous. if(fHaveDefaultCentury) { // check if this formatter even has a pivot year int32_t ambiguousTwoDigitYear = fDefaultCenturyStartYear % 100; ambiguousYear[0] = (value == ambiguousTwoDigitYear); value += (fDefaultCenturyStartYear/100)*100 + (value < ambiguousTwoDigitYear ? 100 : 0); } } } cal.set(UCAL_YEAR, value); // Delayed checking for adjustment of Hebrew month numbers in non-leap years. if (saveHebrewMonth >= 0) { HebrewCalendar *hc = (HebrewCalendar*)&cal; if (!hc->isLeapYear(value) && saveHebrewMonth >= 6) { cal.set(UCAL_MONTH,saveHebrewMonth); } else { cal.set(UCAL_MONTH,saveHebrewMonth-1); } saveHebrewMonth = -1; } return pos.getIndex(); case UDAT_YEAR_WOY_FIELD: // Comment is the same as for UDAT_Year_FIELDs - look above if (fDateOverride.compare(hebr)==0 && value < 1000) { value += HEBREW_CAL_CUR_MILLENIUM_START_YEAR; } else if (text.moveIndex32(start, 2) == pos.getIndex() && u_isdigit(text.char32At(start)) && u_isdigit(text.char32At(text.moveIndex32(start, 1))) && fHaveDefaultCentury ) { int32_t ambiguousTwoDigitYear = fDefaultCenturyStartYear % 100; ambiguousYear[0] = (value == ambiguousTwoDigitYear); value += (fDefaultCenturyStartYear/100)*100 + (value < ambiguousTwoDigitYear ? 100 : 0); } cal.set(UCAL_YEAR_WOY, value); return pos.getIndex(); case UDAT_YEAR_NAME_FIELD: if (fSymbols->fShortYearNames != NULL) { int32_t newStart = matchString(text, start, UCAL_YEAR, fSymbols->fShortYearNames, fSymbols->fShortYearNamesCount, NULL, cal); if (newStart > 0) { return newStart; } } if (gotNumber && (getBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC,status) || value > fSymbols->fShortYearNamesCount)) { cal.set(UCAL_YEAR, value); return pos.getIndex(); } return -start; case UDAT_MONTH_FIELD: case UDAT_STANDALONE_MONTH_FIELD: if (gotNumber) // i.e., M or MM. { // When parsing month numbers from the Hebrew Calendar, we might need to adjust the month depending on whether // or not it was a leap year. We may or may not yet know what year it is, so might have to delay checking until // the year is parsed. if (!strcmp(cal.getType(),"hebrew")) { HebrewCalendar *hc = (HebrewCalendar*)&cal; if (cal.isSet(UCAL_YEAR)) { UErrorCode monthStatus = U_ZERO_ERROR; if (!hc->isLeapYear(hc->get(UCAL_YEAR, monthStatus)) && value >= 6) { cal.set(UCAL_MONTH, value); } else { cal.set(UCAL_MONTH, value - 1); } } else { saveHebrewMonth = value; } } else { // Don't want to parse the month if it is a string // while pattern uses numeric style: M/MM, L/LL // [We computed 'value' above.] cal.set(UCAL_MONTH, value - 1); } return pos.getIndex(); } else { // count >= 3 // i.e., MMM/MMMM, LLL/LLLL // Want to be able to parse both short and long forms. // Try count == 4 first: UnicodeString * wideMonthPat = NULL; UnicodeString * shortMonthPat = NULL; if (fSymbols->fLeapMonthPatterns != NULL && fSymbols->fLeapMonthPatternsCount >= DateFormatSymbols::kMonthPatternsCount) { if (patternCharIndex==UDAT_MONTH_FIELD) { wideMonthPat = &fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternFormatWide]; shortMonthPat = &fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternFormatAbbrev]; } else { wideMonthPat = &fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternStandaloneWide]; shortMonthPat = &fSymbols->fLeapMonthPatterns[DateFormatSymbols::kLeapMonthPatternStandaloneAbbrev]; } } int32_t newStart = 0; if (patternCharIndex==UDAT_MONTH_FIELD) { if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 4) { newStart = matchString(text, start, UCAL_MONTH, fSymbols->fMonths, fSymbols->fMonthsCount, wideMonthPat, cal); // try MMMM if (newStart > 0) { return newStart; } } if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { newStart = matchString(text, start, UCAL_MONTH, fSymbols->fShortMonths, fSymbols->fShortMonthsCount, shortMonthPat, cal); // try MMM } } else { if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 4) { newStart = matchString(text, start, UCAL_MONTH, fSymbols->fStandaloneMonths, fSymbols->fStandaloneMonthsCount, wideMonthPat, cal); // try LLLL if (newStart > 0) { return newStart; } } if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { newStart = matchString(text, start, UCAL_MONTH, fSymbols->fStandaloneShortMonths, fSymbols->fStandaloneShortMonthsCount, shortMonthPat, cal); // try LLL } } if (newStart > 0 || !getBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC, status)) // currently we do not try to parse MMMMM/LLLLL: #8860 return newStart; // else we allowing parsing as number, below } break; case UDAT_HOUR_OF_DAY1_FIELD: // [We computed 'value' above.] if (value == cal.getMaximum(UCAL_HOUR_OF_DAY) + 1) value = 0; // fall through to set field U_FALLTHROUGH; case UDAT_HOUR_OF_DAY0_FIELD: cal.set(UCAL_HOUR_OF_DAY, value); return pos.getIndex(); case UDAT_FRACTIONAL_SECOND_FIELD: // Fractional seconds left-justify i = countDigits(text, start, pos.getIndex()); if (i < 3) { while (i < 3) { value *= 10; i++; } } else { int32_t a = 1; while (i > 3) { a *= 10; i--; } value /= a; } cal.set(UCAL_MILLISECOND, value); return pos.getIndex(); case UDAT_DOW_LOCAL_FIELD: if (gotNumber) // i.e., e or ee { // [We computed 'value' above.] cal.set(UCAL_DOW_LOCAL, value); return pos.getIndex(); } // else for eee-eeeee fall through to handling of EEE-EEEEE // fall through, do not break here U_FALLTHROUGH; case UDAT_DAY_OF_WEEK_FIELD: { // Want to be able to parse both short and long forms. // Try count == 4 (EEEE) wide first: int32_t newStart = 0; if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 4) { if ((newStart = matchString(text, start, UCAL_DAY_OF_WEEK, fSymbols->fWeekdays, fSymbols->fWeekdaysCount, NULL, cal)) > 0) return newStart; } // EEEE wide failed, now try EEE abbreviated if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { if ((newStart = matchString(text, start, UCAL_DAY_OF_WEEK, fSymbols->fShortWeekdays, fSymbols->fShortWeekdaysCount, NULL, cal)) > 0) return newStart; } // EEE abbreviated failed, now try EEEEEE short if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 6) { if ((newStart = matchString(text, start, UCAL_DAY_OF_WEEK, fSymbols->fShorterWeekdays, fSymbols->fShorterWeekdaysCount, NULL, cal)) > 0) return newStart; } // EEEEEE short failed, now try EEEEE narrow if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 5) { if ((newStart = matchString(text, start, UCAL_DAY_OF_WEEK, fSymbols->fNarrowWeekdays, fSymbols->fNarrowWeekdaysCount, NULL, cal)) > 0) return newStart; } if (!getBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC, status) || patternCharIndex == UDAT_DAY_OF_WEEK_FIELD) return newStart; // else we allowing parsing as number, below } break; case UDAT_STANDALONE_DAY_FIELD: { if (gotNumber) // c or cc { // [We computed 'value' above.] cal.set(UCAL_DOW_LOCAL, value); return pos.getIndex(); } // Want to be able to parse both short and long forms. // Try count == 4 (cccc) first: int32_t newStart = 0; if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 4) { if ((newStart = matchString(text, start, UCAL_DAY_OF_WEEK, fSymbols->fStandaloneWeekdays, fSymbols->fStandaloneWeekdaysCount, NULL, cal)) > 0) return newStart; } if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { if ((newStart = matchString(text, start, UCAL_DAY_OF_WEEK, fSymbols->fStandaloneShortWeekdays, fSymbols->fStandaloneShortWeekdaysCount, NULL, cal)) > 0) return newStart; } if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 6) { if ((newStart = matchString(text, start, UCAL_DAY_OF_WEEK, fSymbols->fStandaloneShorterWeekdays, fSymbols->fStandaloneShorterWeekdaysCount, NULL, cal)) > 0) return newStart; } if (!getBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC, status)) return newStart; // else we allowing parsing as number, below } break; case UDAT_AM_PM_FIELD: { // optionally try both wide/abbrev and narrow forms int32_t newStart = 0; // try wide/abbrev if( getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count < 5 ) { if ((newStart = matchString(text, start, UCAL_AM_PM, fSymbols->fAmPms, fSymbols->fAmPmsCount, NULL, cal)) > 0) { return newStart; } } // try narrow if( getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count >= 5 ) { if ((newStart = matchString(text, start, UCAL_AM_PM, fSymbols->fNarrowAmPms, fSymbols->fNarrowAmPmsCount, NULL, cal)) > 0) { return newStart; } } // no matches for given options return -start; } case UDAT_HOUR1_FIELD: // [We computed 'value' above.] if (value == cal.getLeastMaximum(UCAL_HOUR)+1) value = 0; // fall through to set field U_FALLTHROUGH; case UDAT_HOUR0_FIELD: cal.set(UCAL_HOUR, value); return pos.getIndex(); case UDAT_QUARTER_FIELD: if (gotNumber) // i.e., Q or QQ. { // Don't want to parse the month if it is a string // while pattern uses numeric style: Q or QQ. // [We computed 'value' above.] cal.set(UCAL_MONTH, (value - 1) * 3); return pos.getIndex(); } else { // count >= 3 // i.e., QQQ or QQQQ // Want to be able to parse both short and long forms. // Try count == 4 first: int32_t newStart = 0; if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 4) { if ((newStart = matchQuarterString(text, start, UCAL_MONTH, fSymbols->fQuarters, fSymbols->fQuartersCount, cal)) > 0) return newStart; } if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { if ((newStart = matchQuarterString(text, start, UCAL_MONTH, fSymbols->fShortQuarters, fSymbols->fShortQuartersCount, cal)) > 0) return newStart; } if (!getBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC, status)) return newStart; // else we allowing parsing as number, below if(!getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status)) return -start; } break; case UDAT_STANDALONE_QUARTER_FIELD: if (gotNumber) // i.e., q or qq. { // Don't want to parse the month if it is a string // while pattern uses numeric style: q or q. // [We computed 'value' above.] cal.set(UCAL_MONTH, (value - 1) * 3); return pos.getIndex(); } else { // count >= 3 // i.e., qqq or qqqq // Want to be able to parse both short and long forms. // Try count == 4 first: int32_t newStart = 0; if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 4) { if ((newStart = matchQuarterString(text, start, UCAL_MONTH, fSymbols->fStandaloneQuarters, fSymbols->fStandaloneQuartersCount, cal)) > 0) return newStart; } if(getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { if ((newStart = matchQuarterString(text, start, UCAL_MONTH, fSymbols->fStandaloneShortQuarters, fSymbols->fStandaloneShortQuartersCount, cal)) > 0) return newStart; } if (!getBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC, status)) return newStart; // else we allowing parsing as number, below if(!getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status)) return -start; } break; case UDAT_TIMEZONE_FIELD: // 'z' { UTimeZoneFormatStyle style = (count < 4) ? UTZFMT_STYLE_SPECIFIC_SHORT : UTZFMT_STYLE_SPECIFIC_LONG; const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { TimeZone *tz = tzfmt->parse(style, text, pos, tzTimeType); if (tz != NULL) { cal.adoptTimeZone(tz); return pos.getIndex(); } } return -start; } break; case UDAT_TIMEZONE_RFC_FIELD: // 'Z' { UTimeZoneFormatStyle style = (count < 4) ? UTZFMT_STYLE_ISO_BASIC_LOCAL_FULL : ((count == 5) ? UTZFMT_STYLE_ISO_EXTENDED_FULL: UTZFMT_STYLE_LOCALIZED_GMT); const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { TimeZone *tz = tzfmt->parse(style, text, pos, tzTimeType); if (tz != NULL) { cal.adoptTimeZone(tz); return pos.getIndex(); } } return -start; } case UDAT_TIMEZONE_GENERIC_FIELD: // 'v' { UTimeZoneFormatStyle style = (count < 4) ? UTZFMT_STYLE_GENERIC_SHORT : UTZFMT_STYLE_GENERIC_LONG; const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { TimeZone *tz = tzfmt->parse(style, text, pos, tzTimeType); if (tz != NULL) { cal.adoptTimeZone(tz); return pos.getIndex(); } } return -start; } case UDAT_TIMEZONE_SPECIAL_FIELD: // 'V' { UTimeZoneFormatStyle style; switch (count) { case 1: style = UTZFMT_STYLE_ZONE_ID_SHORT; break; case 2: style = UTZFMT_STYLE_ZONE_ID; break; case 3: style = UTZFMT_STYLE_EXEMPLAR_LOCATION; break; default: style = UTZFMT_STYLE_GENERIC_LOCATION; break; } const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { TimeZone *tz = tzfmt->parse(style, text, pos, tzTimeType); if (tz != NULL) { cal.adoptTimeZone(tz); return pos.getIndex(); } } return -start; } case UDAT_TIMEZONE_LOCALIZED_GMT_OFFSET_FIELD: // 'O' { UTimeZoneFormatStyle style = (count < 4) ? UTZFMT_STYLE_LOCALIZED_GMT_SHORT : UTZFMT_STYLE_LOCALIZED_GMT; const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { TimeZone *tz = tzfmt->parse(style, text, pos, tzTimeType); if (tz != NULL) { cal.adoptTimeZone(tz); return pos.getIndex(); } } return -start; } case UDAT_TIMEZONE_ISO_FIELD: // 'X' { UTimeZoneFormatStyle style; switch (count) { case 1: style = UTZFMT_STYLE_ISO_BASIC_SHORT; break; case 2: style = UTZFMT_STYLE_ISO_BASIC_FIXED; break; case 3: style = UTZFMT_STYLE_ISO_EXTENDED_FIXED; break; case 4: style = UTZFMT_STYLE_ISO_BASIC_FULL; break; default: style = UTZFMT_STYLE_ISO_EXTENDED_FULL; break; } const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { TimeZone *tz = tzfmt->parse(style, text, pos, tzTimeType); if (tz != NULL) { cal.adoptTimeZone(tz); return pos.getIndex(); } } return -start; } case UDAT_TIMEZONE_ISO_LOCAL_FIELD: // 'x' { UTimeZoneFormatStyle style; switch (count) { case 1: style = UTZFMT_STYLE_ISO_BASIC_LOCAL_SHORT; break; case 2: style = UTZFMT_STYLE_ISO_BASIC_LOCAL_FIXED; break; case 3: style = UTZFMT_STYLE_ISO_EXTENDED_LOCAL_FIXED; break; case 4: style = UTZFMT_STYLE_ISO_BASIC_LOCAL_FULL; break; default: style = UTZFMT_STYLE_ISO_EXTENDED_LOCAL_FULL; break; } const TimeZoneFormat *tzfmt = tzFormat(status); if (U_SUCCESS(status)) { TimeZone *tz = tzfmt->parse(style, text, pos, tzTimeType); if (tz != NULL) { cal.adoptTimeZone(tz); return pos.getIndex(); } } return -start; } // currently no pattern character is defined for UDAT_TIME_SEPARATOR_FIELD // so we should not get here. Leave support in for future definition. case UDAT_TIME_SEPARATOR_FIELD: { static const UChar def_sep = DateFormatSymbols::DEFAULT_TIME_SEPARATOR; static const UChar alt_sep = DateFormatSymbols::ALTERNATE_TIME_SEPARATOR; // Try matching a time separator. int32_t count_sep = 1; UnicodeString data[3]; fSymbols->getTimeSeparatorString(data[0]); // Add the default, if different from the locale. if (data[0].compare(&def_sep, 1) != 0) { data[count_sep++].setTo(def_sep); } // If lenient, add also the alternate, if different from the locale. if (isLenient() && data[0].compare(&alt_sep, 1) != 0) { data[count_sep++].setTo(alt_sep); } return matchString(text, start, UCAL_FIELD_COUNT /* => nothing to set */, data, count_sep, NULL, cal); } case UDAT_AM_PM_MIDNIGHT_NOON_FIELD: { U_ASSERT(dayPeriod != NULL); int32_t ampmStart = subParse(text, start, 0x61, count, obeyCount, allowNegative, ambiguousYear, saveHebrewMonth, cal, patLoc, numericLeapMonthFormatter, tzTimeType); if (ampmStart > 0) { return ampmStart; } else { int32_t newStart = 0; // Only match the first two strings from the day period strings array. if (getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { if ((newStart = matchDayPeriodStrings(text, start, fSymbols->fAbbreviatedDayPeriods, 2, *dayPeriod)) > 0) { return newStart; } } if (getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 5) { if ((newStart = matchDayPeriodStrings(text, start, fSymbols->fNarrowDayPeriods, 2, *dayPeriod)) > 0) { return newStart; } } // count == 4, but allow other counts if (getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status)) { if ((newStart = matchDayPeriodStrings(text, start, fSymbols->fWideDayPeriods, 2, *dayPeriod)) > 0) { return newStart; } } return -start; } } case UDAT_FLEXIBLE_DAY_PERIOD_FIELD: { U_ASSERT(dayPeriod != NULL); int32_t newStart = 0; if (getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 3) { if ((newStart = matchDayPeriodStrings(text, start, fSymbols->fAbbreviatedDayPeriods, fSymbols->fAbbreviatedDayPeriodsCount, *dayPeriod)) > 0) { return newStart; } } if (getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 5) { if ((newStart = matchDayPeriodStrings(text, start, fSymbols->fNarrowDayPeriods, fSymbols->fNarrowDayPeriodsCount, *dayPeriod)) > 0) { return newStart; } } if (getBooleanAttribute(UDAT_PARSE_MULTIPLE_PATTERNS_FOR_MATCH, status) || count == 4) { if ((newStart = matchDayPeriodStrings(text, start, fSymbols->fWideDayPeriods, fSymbols->fWideDayPeriodsCount, *dayPeriod)) > 0) { return newStart; } } return -start; } default: // Handle "generic" fields // this is now handled below, outside the switch block break; } // Handle "generic" fields: // switch default case now handled here (outside switch block) to allow // parsing of some string fields as digits for lenient case int32_t parseStart = pos.getIndex(); const UnicodeString* src; if (obeyCount) { if ((start+count) > text.length()) { return -start; } text.extractBetween(0, start + count, temp); src = &temp; } else { src = &text; } parseInt(*src, number, pos, allowNegative,currentNumberFormat); if (pos.getIndex() != parseStart) { int32_t val = number.getLong(); // Don't need suffix processing here (as in number processing at the beginning of the function); // the new fields being handled as numeric values (month, weekdays, quarters) should not have suffixes. if (!getBooleanAttribute(UDAT_PARSE_ALLOW_NUMERIC, status)) { // Check the range of the value int32_t bias = gFieldRangeBias[patternCharIndex]; if (bias >= 0 && (val > cal.getMaximum(field) + bias || val < cal.getMinimum(field) + bias)) { return -start; } } // For the following, need to repeat some of the "if (gotNumber)" code above: // UDAT_[STANDALONE_]MONTH_FIELD, UDAT_DOW_LOCAL_FIELD, UDAT_STANDALONE_DAY_FIELD, // UDAT_[STANDALONE_]QUARTER_FIELD switch (patternCharIndex) { case UDAT_MONTH_FIELD: // See notes under UDAT_MONTH_FIELD case above if (!strcmp(cal.getType(),"hebrew")) { HebrewCalendar *hc = (HebrewCalendar*)&cal; if (cal.isSet(UCAL_YEAR)) { UErrorCode monthStatus = U_ZERO_ERROR; if (!hc->isLeapYear(hc->get(UCAL_YEAR, monthStatus)) && val >= 6) { cal.set(UCAL_MONTH, val); } else { cal.set(UCAL_MONTH, val - 1); } } else { saveHebrewMonth = val; } } else { cal.set(UCAL_MONTH, val - 1); } break; case UDAT_STANDALONE_MONTH_FIELD: cal.set(UCAL_MONTH, val - 1); break; case UDAT_DOW_LOCAL_FIELD: case UDAT_STANDALONE_DAY_FIELD: cal.set(UCAL_DOW_LOCAL, val); break; case UDAT_QUARTER_FIELD: case UDAT_STANDALONE_QUARTER_FIELD: cal.set(UCAL_MONTH, (val - 1) * 3); break; case UDAT_RELATED_YEAR_FIELD: cal.setRelatedYear(val); break; default: cal.set(field, val); break; } return pos.getIndex(); } return -start; } /** * Parse an integer using fNumberFormat. This method is semantically * const, but actually may modify fNumberFormat. */ void SimpleDateFormat::parseInt(const UnicodeString& text, Formattable& number, ParsePosition& pos, UBool allowNegative, const NumberFormat *fmt) const { parseInt(text, number, -1, pos, allowNegative,fmt); } /** * Parse an integer using fNumberFormat up to maxDigits. */ void SimpleDateFormat::parseInt(const UnicodeString& text, Formattable& number, int32_t maxDigits, ParsePosition& pos, UBool allowNegative, const NumberFormat *fmt) const { UnicodeString oldPrefix; auto* fmtAsDF = dynamic_cast(fmt); LocalPointer df; if (!allowNegative && fmtAsDF != nullptr) { df.adoptInstead(dynamic_cast(fmtAsDF->clone())); if (df.isNull()) { // Memory allocation error return; } df->setNegativePrefix(UnicodeString(TRUE, SUPPRESS_NEGATIVE_PREFIX, -1)); fmt = df.getAlias(); } int32_t oldPos = pos.getIndex(); fmt->parse(text, number, pos); if (maxDigits > 0) { // adjust the result to fit into // the maxDigits and move the position back int32_t nDigits = pos.getIndex() - oldPos; if (nDigits > maxDigits) { int32_t val = number.getLong(); nDigits -= maxDigits; while (nDigits > 0) { val /= 10; nDigits--; } pos.setIndex(oldPos + maxDigits); number.setLong(val); } } } int32_t SimpleDateFormat::countDigits(const UnicodeString& text, int32_t start, int32_t end) const { int32_t numDigits = 0; int32_t idx = start; while (idx < end) { UChar32 cp = text.char32At(idx); if (u_isdigit(cp)) { numDigits++; } idx += U16_LENGTH(cp); } return numDigits; } //---------------------------------------------------------------------- void SimpleDateFormat::translatePattern(const UnicodeString& originalPattern, UnicodeString& translatedPattern, const UnicodeString& from, const UnicodeString& to, UErrorCode& status) { // run through the pattern and convert any pattern symbols from the version // in "from" to the corresponding character in "to". This code takes // quoted strings into account (it doesn't try to translate them), and it signals // an error if a particular "pattern character" doesn't appear in "from". // Depending on the values of "from" and "to" this can convert from generic // to localized patterns or localized to generic. if (U_FAILURE(status)) { return; } translatedPattern.remove(); UBool inQuote = FALSE; for (int32_t i = 0; i < originalPattern.length(); ++i) { UChar c = originalPattern[i]; if (inQuote) { if (c == QUOTE) { inQuote = FALSE; } } else { if (c == QUOTE) { inQuote = TRUE; } else if (isSyntaxChar(c)) { int32_t ci = from.indexOf(c); if (ci == -1) { status = U_INVALID_FORMAT_ERROR; return; } c = to[ci]; } } translatedPattern += c; } if (inQuote) { status = U_INVALID_FORMAT_ERROR; return; } } //---------------------------------------------------------------------- UnicodeString& SimpleDateFormat::toPattern(UnicodeString& result) const { result = fPattern; return result; } //---------------------------------------------------------------------- UnicodeString& SimpleDateFormat::toLocalizedPattern(UnicodeString& result, UErrorCode& status) const { translatePattern(fPattern, result, UnicodeString(DateFormatSymbols::getPatternUChars()), fSymbols->fLocalPatternChars, status); return result; } //---------------------------------------------------------------------- void SimpleDateFormat::applyPattern(const UnicodeString& pattern) { fPattern = pattern; parsePattern(); // Hack to update use of Gannen year numbering for ja@calendar=japanese - // use only if format is non-numeric (includes 年) and no other fDateOverride. if (fCalendar != nullptr && uprv_strcmp(fCalendar->getType(),"japanese") == 0 && uprv_strcmp(fLocale.getLanguage(),"ja") == 0) { if (fDateOverride==UnicodeString(u"y=jpanyear") && !fHasHanYearChar) { // Gannen numbering is set but new pattern should not use it, unset; // use procedure from adoptNumberFormat to clear overrides if (fSharedNumberFormatters) { freeSharedNumberFormatters(fSharedNumberFormatters); fSharedNumberFormatters = NULL; } fDateOverride.setToBogus(); // record status } else if (fDateOverride.isBogus() && fHasHanYearChar) { // No current override (=> no Gannen numbering) but new pattern needs it; // use procedures from initNUmberFormatters / adoptNumberFormat umtx_lock(LOCK()); if (fSharedNumberFormatters == NULL) { fSharedNumberFormatters = allocSharedNumberFormatters(); } umtx_unlock(LOCK()); if (fSharedNumberFormatters != NULL) { Locale ovrLoc(fLocale.getLanguage(),fLocale.getCountry(),fLocale.getVariant(),"numbers=jpanyear"); UErrorCode status = U_ZERO_ERROR; const SharedNumberFormat *snf = createSharedNumberFormat(ovrLoc, status); if (U_SUCCESS(status)) { // Now that we have an appropriate number formatter, fill in the // appropriate slot in the number formatters table. UDateFormatField patternCharIndex = DateFormatSymbols::getPatternCharIndex(u'y'); SharedObject::copyPtr(snf, fSharedNumberFormatters[patternCharIndex]); snf->deleteIfZeroRefCount(); fDateOverride.setTo(u"y=jpanyear", -1); // record status } } } } } //---------------------------------------------------------------------- void SimpleDateFormat::applyLocalizedPattern(const UnicodeString& pattern, UErrorCode &status) { translatePattern(pattern, fPattern, fSymbols->fLocalPatternChars, UnicodeString(DateFormatSymbols::getPatternUChars()), status); } //---------------------------------------------------------------------- const DateFormatSymbols* SimpleDateFormat::getDateFormatSymbols() const { return fSymbols; } //---------------------------------------------------------------------- void SimpleDateFormat::adoptDateFormatSymbols(DateFormatSymbols* newFormatSymbols) { delete fSymbols; fSymbols = newFormatSymbols; } //---------------------------------------------------------------------- void SimpleDateFormat::setDateFormatSymbols(const DateFormatSymbols& newFormatSymbols) { delete fSymbols; fSymbols = new DateFormatSymbols(newFormatSymbols); } //---------------------------------------------------------------------- const TimeZoneFormat* SimpleDateFormat::getTimeZoneFormat(void) const { // TimeZoneFormat initialization might fail when out of memory. // If we always initialize TimeZoneFormat instance, we can return // such status there. For now, this implementation lazily instantiates // a TimeZoneFormat for performance optimization reasons, but cannot // propagate such error (probably just out of memory case) to the caller. UErrorCode status = U_ZERO_ERROR; return (const TimeZoneFormat*)tzFormat(status); } //---------------------------------------------------------------------- void SimpleDateFormat::adoptTimeZoneFormat(TimeZoneFormat* timeZoneFormatToAdopt) { delete fTimeZoneFormat; fTimeZoneFormat = timeZoneFormatToAdopt; } //---------------------------------------------------------------------- void SimpleDateFormat::setTimeZoneFormat(const TimeZoneFormat& newTimeZoneFormat) { delete fTimeZoneFormat; fTimeZoneFormat = new TimeZoneFormat(newTimeZoneFormat); } //---------------------------------------------------------------------- void SimpleDateFormat::adoptCalendar(Calendar* calendarToAdopt) { UErrorCode status = U_ZERO_ERROR; Locale calLocale(fLocale); calLocale.setKeywordValue("calendar", calendarToAdopt->getType(), status); DateFormatSymbols *newSymbols = DateFormatSymbols::createForLocale(calLocale, status); if (U_FAILURE(status)) { return; } DateFormat::adoptCalendar(calendarToAdopt); delete fSymbols; fSymbols = newSymbols; initializeDefaultCentury(); // we need a new century (possibly) } //---------------------------------------------------------------------- // override the DateFormat implementation in order to // lazily initialize fCapitalizationBrkIter void SimpleDateFormat::setContext(UDisplayContext value, UErrorCode& status) { DateFormat::setContext(value, status); #if !UCONFIG_NO_BREAK_ITERATION if (U_SUCCESS(status)) { if ( fCapitalizationBrkIter == NULL && (value==UDISPCTX_CAPITALIZATION_FOR_BEGINNING_OF_SENTENCE || value==UDISPCTX_CAPITALIZATION_FOR_UI_LIST_OR_MENU || value==UDISPCTX_CAPITALIZATION_FOR_STANDALONE) ) { status = U_ZERO_ERROR; fCapitalizationBrkIter = BreakIterator::createSentenceInstance(fLocale, status); if (U_FAILURE(status)) { delete fCapitalizationBrkIter; fCapitalizationBrkIter = NULL; } } } #endif } //---------------------------------------------------------------------- UBool SimpleDateFormat::isFieldUnitIgnored(UCalendarDateFields field) const { return isFieldUnitIgnored(fPattern, field); } UBool SimpleDateFormat::isFieldUnitIgnored(const UnicodeString& pattern, UCalendarDateFields field) { int32_t fieldLevel = fgCalendarFieldToLevel[field]; int32_t level; UChar ch; UBool inQuote = FALSE; UChar prevCh = 0; int32_t count = 0; for (int32_t i = 0; i < pattern.length(); ++i) { ch = pattern[i]; if (ch != prevCh && count > 0) { level = getLevelFromChar(prevCh); // the larger the level, the smaller the field unit. if (fieldLevel <= level) { return FALSE; } count = 0; } if (ch == QUOTE) { if ((i+1) < pattern.length() && pattern[i+1] == QUOTE) { ++i; } else { inQuote = ! inQuote; } } else if (!inQuote && isSyntaxChar(ch)) { prevCh = ch; ++count; } } if (count > 0) { // last item level = getLevelFromChar(prevCh); if (fieldLevel <= level) { return FALSE; } } return TRUE; } //---------------------------------------------------------------------- const Locale& SimpleDateFormat::getSmpFmtLocale(void) const { return fLocale; } //---------------------------------------------------------------------- int32_t SimpleDateFormat::checkIntSuffix(const UnicodeString& text, int32_t start, int32_t patLoc, UBool isNegative) const { // local variables UnicodeString suf; int32_t patternMatch; int32_t textPreMatch; int32_t textPostMatch; // check that we are still in range if ( (start > text.length()) || (start < 0) || (patLoc < 0) || (patLoc > fPattern.length())) { // out of range, don't advance location in text return start; } // get the suffix DecimalFormat* decfmt = dynamic_cast(fNumberFormat); if (decfmt != NULL) { if (isNegative) { suf = decfmt->getNegativeSuffix(suf); } else { suf = decfmt->getPositiveSuffix(suf); } } // check for suffix if (suf.length() <= 0) { return start; } // check suffix will be encountered in the pattern patternMatch = compareSimpleAffix(suf,fPattern,patLoc); // check if a suffix will be encountered in the text textPreMatch = compareSimpleAffix(suf,text,start); // check if a suffix was encountered in the text textPostMatch = compareSimpleAffix(suf,text,start-suf.length()); // check for suffix match if ((textPreMatch >= 0) && (patternMatch >= 0) && (textPreMatch == patternMatch)) { return start; } else if ((textPostMatch >= 0) && (patternMatch >= 0) && (textPostMatch == patternMatch)) { return start - suf.length(); } // should not get here return start; } //---------------------------------------------------------------------- int32_t SimpleDateFormat::compareSimpleAffix(const UnicodeString& affix, const UnicodeString& input, int32_t pos) const { int32_t start = pos; for (int32_t i=0; i(this)->fTimeZoneFormat = tzfmt; } } umtx_unlock(LOCK()); } return fTimeZoneFormat; } void SimpleDateFormat::parsePattern() { fHasMinute = FALSE; fHasSecond = FALSE; fHasHanYearChar = FALSE; int len = fPattern.length(); UBool inQuote = FALSE; for (int32_t i = 0; i < len; ++i) { UChar ch = fPattern[i]; if (ch == QUOTE) { inQuote = !inQuote; } if (ch == 0x5E74) { // don't care whether this is inside quotes fHasHanYearChar = TRUE; } if (!inQuote) { if (ch == 0x6D) { // 0x6D == 'm' fHasMinute = TRUE; } if (ch == 0x73) { // 0x73 == 's' fHasSecond = TRUE; } } } } U_NAMESPACE_END #endif /* #if !UCONFIG_NO_FORMATTING */ //eof