/* * reserved comment block * DO NOT REMOVE OR ALTER! */ /* * Copyright 1999-2005 The Apache Software Foundation. * * Licensed under the Apache License, Version 2.0 (the "License"); * you may not use this file except in compliance with the License. * You may obtain a copy of the License at * * http://www.apache.org/licenses/LICENSE-2.0 * * Unless required by applicable law or agreed to in writing, software * distributed under the License is distributed on an "AS IS" BASIS, * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. * See the License for the specific language governing permissions and * limitations under the License. */ package com.sun.org.apache.xerces.internal.impl.dv.xs; import java.math.BigDecimal; import javax.xml.datatype.DatatypeFactory; import javax.xml.datatype.Duration; import javax.xml.datatype.XMLGregorianCalendar; import com.sun.org.apache.xerces.internal.impl.Constants; import com.sun.org.apache.xerces.internal.jaxp.datatype.DatatypeFactoryImpl; import com.sun.org.apache.xerces.internal.xs.datatypes.XSDateTime; /** * This is the base class of all date/time datatype validators. * It implements common code for parsing, validating and comparing datatypes. * Classes that extend this class, must implement parse() method. * * REVISIT: There are many instance variables, which would cause problems * when we support grammar caching. A grammar is possibly used by * two parser instances at the same time, then the same simple type * decl object can be used to validate two strings at the same time. * -SG * * @xerces.internal * * @author Elena Litani * @author Len Berman * @author Gopal Sharma, SUN Microsystems Inc. * */ public abstract class AbstractDateTimeDV extends TypeValidator { //debugging private static final boolean DEBUG = false; //define shared variables for date/time //define constants to be used in assigning default values for //all date/time excluding duration protected final static int YEAR = 2000; protected final static int MONTH = 01; protected final static int DAY = 01; protected static final DatatypeFactory datatypeFactory = new DatatypeFactoryImpl(); @Override public short getAllowedFacets() { return (XSSimpleTypeDecl.FACET_PATTERN | XSSimpleTypeDecl.FACET_WHITESPACE | XSSimpleTypeDecl.FACET_ENUMERATION | XSSimpleTypeDecl.FACET_MAXINCLUSIVE | XSSimpleTypeDecl.FACET_MININCLUSIVE | XSSimpleTypeDecl.FACET_MAXEXCLUSIVE | XSSimpleTypeDecl.FACET_MINEXCLUSIVE); }//getAllowedFacets() // distinguishes between identity and equality for date/time values // ie: two values representing the same "moment in time" but with different // remembered timezones are now equal but not identical. @Override public boolean isIdentical(Object value1, Object value2) { if (!(value1 instanceof DateTimeData) || !(value2 instanceof DateTimeData)) { return false; } DateTimeData v1 = (DateTimeData) value1; DateTimeData v2 = (DateTimeData) value2; // original timezones must be the same in addition to date/time values // being 'equal' if ((v1.timezoneHr == v2.timezoneHr) && (v1.timezoneMin == v2.timezoneMin)) { return v1.equals(v2); } return false; }//isIdentical() // the parameters are in compiled form (from getActualValue) @Override public int compare(Object value1, Object value2) { return compareDates(((DateTimeData) value1), ((DateTimeData) value2), true); }//compare() /** * Compare algorithm described in dateDime (3.2.7). Duration datatype * overwrites this method * * @param date1 normalized date representation of the first value * @param date2 normalized date representation of the second value * @param strict * @return less, greater, less_equal, greater_equal, equal */ protected short compareDates(DateTimeData date1, DateTimeData date2, boolean strict) { if (date1.utc == date2.utc) { return compareOrder(date1, date2); } short c1, c2; DateTimeData tempDate = new DateTimeData(null, this); if (date1.utc == 'Z') { //compare date1<=date1<=(date2 with time zone -14) // cloneDate(date2, tempDate); //clones date1 value to global temporary storage: fTempDate tempDate.timezoneHr = 14; tempDate.timezoneMin = 0; tempDate.utc = '+'; normalize(tempDate); c1 = compareOrder(date1, tempDate); if (c1 == LESS_THAN) { return c1; } //compare date1>=(date2 with time zone +14) // cloneDate(date2, tempDate); //clones date1 value to global temporary storage: tempDate tempDate.timezoneHr = -14; tempDate.timezoneMin = 0; tempDate.utc = '-'; normalize(tempDate); c2 = compareOrder(date1, tempDate); if (c2 == GREATER_THAN) { return c2; } return INDETERMINATE; } else if (date2.utc == 'Z') { //compare (date1 with time zone -14)<=date2 // cloneDate(date1, tempDate); //clones date1 value to global temporary storage: tempDate tempDate.timezoneHr = -14; tempDate.timezoneMin = 0; tempDate.utc = '-'; if (DEBUG) { System.out.println("tempDate=" + dateToString(tempDate)); } normalize(tempDate); c1 = compareOrder(tempDate, date2); if (DEBUG) { System.out.println("date=" + dateToString(date2)); System.out.println("tempDate=" + dateToString(tempDate)); } if (c1 == LESS_THAN) { return c1; } //compare (date1 with time zone +14)<=date2 // cloneDate(date1, tempDate); //clones date1 value to global temporary storage: tempDate tempDate.timezoneHr = 14; tempDate.timezoneMin = 0; tempDate.utc = '+'; normalize(tempDate); c2 = compareOrder(tempDate, date2); if (DEBUG) { System.out.println("tempDate=" + dateToString(tempDate)); } if (c2 == GREATER_THAN) { return c2; } return INDETERMINATE; } return INDETERMINATE; } /** * Given normalized values, determines order-relation between give date/time * objects. * * @param date1 date/time object * @param date2 date/time object * @return 0 if date1 and date2 are equal, a value less than 0 if date1 is * less than date2, a value greater than 0 if date1 is greater than date2 */ protected short compareOrder(DateTimeData date1, DateTimeData date2) { if (date1.position < 1) { if (date1.year < date2.year) { return -1; } if (date1.year > date2.year) { return 1; } } if (date1.position < 2) { if (date1.month < date2.month) { return -1; } if (date1.month > date2.month) { return 1; } } if (date1.day < date2.day) { return -1; } if (date1.day > date2.day) { return 1; } if (date1.hour < date2.hour) { return -1; } if (date1.hour > date2.hour) { return 1; } if (date1.minute < date2.minute) { return -1; } if (date1.minute > date2.minute) { return 1; } if (date1.second < date2.second) { return -1; } if (date1.second > date2.second) { return 1; } if (date1.utc < date2.utc) { return -1; } if (date1.utc > date2.utc) { return 1; } return 0; } /** * Parses time hh:mm:ss.sss and time zone if any * * @param start * @param end * @param data * @exception RuntimeException */ protected void getTime(String buffer, int start, int end, DateTimeData data) throws RuntimeException { int stop = start + 2; //get hours (hh) data.hour = parseInt(buffer, start, stop); //get minutes (mm) if (buffer.charAt(stop++) != ':') { throw new RuntimeException("Error in parsing time zone"); } start = stop; stop = stop + 2; data.minute = parseInt(buffer, start, stop); //get seconds (ss) if (buffer.charAt(stop++) != ':') { throw new RuntimeException("Error in parsing time zone"); } //find UTC sign if any int sign = findUTCSign(buffer, start, end); //get seconds (ms) start = stop; stop = sign < 0 ? end : sign; data.second = parseSecond(buffer, start, stop); //parse UTC time zone (hh:mm) if (sign > 0) { getTimeZone(buffer, data, sign, end); } } /** * Parses date CCYY-MM-DD * * @param buffer * @param start start position * @param end end position * @param date * @exception RuntimeException */ protected int getDate(String buffer, int start, int end, DateTimeData date) throws RuntimeException { start = getYearMonth(buffer, start, end, date); if (buffer.charAt(start++) != '-') { throw new RuntimeException("CCYY-MM must be followed by '-' sign"); } int stop = start + 2; date.day = parseInt(buffer, start, stop); return stop; } /** * Parses date CCYY-MM * * @param buffer * @param start start position * @param end end position * @param date * @exception RuntimeException */ protected int getYearMonth(String buffer, int start, int end, DateTimeData date) throws RuntimeException { if (buffer.charAt(0) == '-') { // REVISIT: date starts with preceding '-' sign // do we have to do anything with it? // start++; } int i = indexOf(buffer, start, end, '-'); if (i == -1) { throw new RuntimeException("Year separator is missing or misplaced"); } int length = i - start; if (length < 4) { throw new RuntimeException("Year must have 'CCYY' format"); } else if (length > 4 && buffer.charAt(start) == '0') { throw new RuntimeException("Leading zeros are required if the year value would otherwise have fewer than four digits; otherwise they are forbidden"); } date.year = parseIntYear(buffer, i); if (buffer.charAt(i) != '-') { throw new RuntimeException("CCYY must be followed by '-' sign"); } start = ++i; i = start + 2; date.month = parseInt(buffer, start, i); return i; //fStart points right after the MONTH } /** * Shared code from Date and YearMonth datatypes. Finds if time zone sign is * present * * @param end * @param date * @exception RuntimeException */ protected void parseTimeZone(String buffer, int start, int end, DateTimeData date) throws RuntimeException { //fStart points right after the date if (start < end) { if (!isNextCharUTCSign(buffer, start, end)) { throw new RuntimeException("Error in month parsing"); } else { getTimeZone(buffer, date, start, end); } } } /** * Parses time zone: 'Z' or {+,-} followed by hh:mm * * @param data * @param sign * @exception RuntimeException */ protected void getTimeZone(String buffer, DateTimeData data, int sign, int end) throws RuntimeException { data.utc = buffer.charAt(sign); if (buffer.charAt(sign) == 'Z') { if (end > (++sign)) { throw new RuntimeException("Error in parsing time zone"); } return; } if (sign <= (end - 6)) { int negate = buffer.charAt(sign) == '-' ? -1 : 1; //parse hr int stop = ++sign + 2; data.timezoneHr = negate * parseInt(buffer, sign, stop); if (buffer.charAt(stop++) != ':') { throw new RuntimeException("Error in parsing time zone"); } //parse min data.timezoneMin = negate * parseInt(buffer, stop, stop + 2); if (stop + 2 != end) { throw new RuntimeException("Error in parsing time zone"); } if (data.timezoneHr != 0 || data.timezoneMin != 0) { data.normalized = false; } } else { throw new RuntimeException("Error in parsing time zone"); } if (DEBUG) { System.out.println("time[hh]=" + data.timezoneHr + " time[mm]=" + data.timezoneMin); } } /** * Computes index of given char within StringBuffer * * @param start * @param end * @param ch character to look for in StringBuffer * @return index of ch within StringBuffer */ protected int indexOf(String buffer, int start, int end, char ch) { for (int i = start; i < end; i++) { if (buffer.charAt(i) == ch) { return i; } } return -1; } /** * Validates given date/time object accoring to W3C PR Schema [D.1 ISO 8601 * Conventions] * * @param data */ protected void validateDateTime(DateTimeData data) { //REVISIT: should we throw an exception for not valid dates // or reporting an error message should be sufficient? /** * XML Schema 1.1 - RQ-123: Allow year 0000 in date related types. */ if (!Constants.SCHEMA_1_1_SUPPORT && data.year == 0) { throw new RuntimeException("The year \"0000\" is an illegal year value"); } if (data.month < 1 || data.month > 12) { throw new RuntimeException("The month must have values 1 to 12"); } //validate days if (data.day > maxDayInMonthFor(data.year, data.month) || data.day < 1) { throw new RuntimeException("The day must have values 1 to 31"); } //validate hours if (data.hour > 23 || data.hour < 0) { if (data.hour == 24 && data.minute == 0 && data.second == 0) { data.hour = 0; if (++data.day > maxDayInMonthFor(data.year, data.month)) { data.day = 1; if (++data.month > 12) { data.month = 1; if (Constants.SCHEMA_1_1_SUPPORT) { ++data.year; } else if (++data.year == 0) { data.year = 1; } } } } else { throw new RuntimeException("Hour must have values 0-23, unless 24:00:00"); } } //validate if (data.minute > 59 || data.minute < 0) { throw new RuntimeException("Minute must have values 0-59"); } //validate if (data.second >= 60 || data.second < 0) { throw new RuntimeException("Second must have values 0-59"); } //validate if (data.timezoneHr > 14 || data.timezoneHr < -14) { throw new RuntimeException("Time zone should have range -14:00 to +14:00"); } else { if ((data.timezoneHr == 14 || data.timezoneHr == -14) && data.timezoneMin != 0) { throw new RuntimeException("Time zone should have range -14:00 to +14:00"); } else if (data.timezoneMin > 59 || data.timezoneMin < -59) { throw new RuntimeException("Minute must have values 0-59"); } } } /** * Return index of UTC char: 'Z', '+', '-' * * @param start * @param end * @return index of the UTC character that was found */ protected int findUTCSign(String buffer, int start, int end) { int c; for (int i = start; i < end; i++) { c = buffer.charAt(i); if (c == 'Z' || c == '+' || c == '-') { return i; } } return -1; } /** * Returns * true if the character at start is 'Z', '+' or '-'. */ protected final boolean isNextCharUTCSign(String buffer, int start, int end) { if (start < end) { char c = buffer.charAt(start); return (c == 'Z' || c == '+' || c == '-'); } return false; } /** * Given start and end position, parses string value * * @param buffer string to parse * @param start start position * @param end end position * @return return integer representation of characters */ protected int parseInt(String buffer, int start, int end) throws NumberFormatException { //REVISIT: more testing on this parsing needs to be done. int radix = 10; int result = 0; int digit = 0; int limit = -Integer.MAX_VALUE; int multmin = limit / radix; int i = start; do { digit = getDigit(buffer.charAt(i)); if (digit < 0) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } if (result < multmin) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } result *= radix; if (result < limit + digit) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } result -= digit; } while (++i < end); return -result; } // parse Year differently to support negative value. protected int parseIntYear(String buffer, int end) { int radix = 10; int result = 0; boolean negative = false; int i = 0; int limit; int multmin; int digit = 0; if (buffer.charAt(0) == '-') { negative = true; limit = Integer.MIN_VALUE; i++; } else { limit = -Integer.MAX_VALUE; } multmin = limit / radix; while (i < end) { digit = getDigit(buffer.charAt(i++)); if (digit < 0) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } if (result < multmin) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } result *= radix; if (result < limit + digit) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } result -= digit; } if (negative) { if (i > 1) { return result; } else { throw new NumberFormatException("'" + buffer + "' has wrong format"); } } return -result; } /** * If timezone present - normalize dateTime [E Adding durations to * dateTimes] * * @param date CCYY-MM-DDThh:mm:ss+03 */ protected void normalize(DateTimeData date) { // REVISIT: we have common code in addDuration() for durations // should consider reorganizing it. // //add minutes (from time zone) int negate = -1; if (DEBUG) { System.out.println("==>date.minute" + date.minute); System.out.println("==>date.timezoneMin" + date.timezoneMin); } int temp = date.minute + negate * date.timezoneMin; int carry = fQuotient(temp, 60); date.minute = mod(temp, 60, carry); if (DEBUG) { System.out.println("==>carry: " + carry); } //add hours temp = date.hour + negate * date.timezoneHr + carry; carry = fQuotient(temp, 24); date.hour = mod(temp, 24, carry); if (DEBUG) { System.out.println("==>date.hour" + date.hour); System.out.println("==>carry: " + carry); } date.day = date.day + carry; while (true) { temp = maxDayInMonthFor(date.year, date.month); if (date.day < 1) { date.day = date.day + maxDayInMonthFor(date.year, date.month - 1); carry = -1; } else if (date.day > temp) { date.day = date.day - temp; carry = 1; } else { break; } temp = date.month + carry; date.month = modulo(temp, 1, 13); date.year = date.year + fQuotient(temp, 1, 13); if (date.year == 0 && !Constants.SCHEMA_1_1_SUPPORT) { date.year = (date.timezoneHr < 0 || date.timezoneMin < 0) ? 1 : -1; } } date.utc = 'Z'; } /** * @param date */ protected void saveUnnormalized(DateTimeData date) { date.unNormYear = date.year; date.unNormMonth = date.month; date.unNormDay = date.day; date.unNormHour = date.hour; date.unNormMinute = date.minute; date.unNormSecond = date.second; } /** * Resets object representation of date/time * * @param data date/time object */ protected void resetDateObj(DateTimeData data) { data.year = 0; data.month = 0; data.day = 0; data.hour = 0; data.minute = 0; data.second = 0; data.utc = 0; data.timezoneHr = 0; data.timezoneMin = 0; } /** * Given {year,month} computes maximum number of days for given month * * @param year * @param month * @return integer containg the number of days in a given month */ protected int maxDayInMonthFor(int year, int month) { //validate days if (month == 4 || month == 6 || month == 9 || month == 11) { return 30; } else if (month == 2) { if (isLeapYear(year)) { return 29; } else { return 28; } } else { return 31; } } private boolean isLeapYear(int year) { //REVISIT: should we take care about Julian calendar? return ((year % 4 == 0) && ((year % 100 != 0) || (year % 400 == 0))); } // // help function described in W3C PR Schema [E Adding durations to dateTimes] // protected int mod(int a, int b, int quotient) { //modulo(a, b) = a - fQuotient(a,b)*b return (a - quotient * b); } // // help function described in W3C PR Schema [E Adding durations to dateTimes] // protected int fQuotient(int a, int b) { //fQuotient(a, b) = the greatest integer less than or equal to a/b return (int) Math.floor((float) a / b); } // // help function described in W3C PR Schema [E Adding durations to dateTimes] // protected int modulo(int temp, int low, int high) { //modulo(a - low, high - low) + low int a = temp - low; int b = high - low; return (mod(a, b, fQuotient(a, b)) + low); } // // help function described in W3C PR Schema [E Adding durations to dateTimes] // protected int fQuotient(int temp, int low, int high) { //fQuotient(a - low, high - low) return fQuotient(temp - low, high - low); } protected String dateToString(DateTimeData date) { StringBuffer message = new StringBuffer(25); append(message, date.year, 4); message.append('-'); append(message, date.month, 2); message.append('-'); append(message, date.day, 2); message.append('T'); append(message, date.hour, 2); message.append(':'); append(message, date.minute, 2); message.append(':'); append(message, date.second); append(message, (char) date.utc, 0); return message.toString(); } protected final void append(StringBuffer message, int value, int nch) { if (value == Integer.MIN_VALUE) { message.append(value); return; } if (value < 0) { message.append('-'); value = -value; } if (nch == 4) { if (value < 10) { message.append("000"); } else if (value < 100) { message.append("00"); } else if (value < 1000) { message.append('0'); } message.append(value); } else if (nch == 2) { if (value < 10) { message.append('0'); } message.append(value); } else { if (value != 0) { message.append((char) value); } } } protected final void append(StringBuffer message, double value) { if (value < 0) { message.append('-'); value = -value; } if (value < 10) { message.append('0'); } append2(message, value); } protected final void append2(StringBuffer message, double value) { final int intValue = (int) value; if (value == intValue) { message.append(intValue); } else { append3(message, value); } } private void append3(StringBuffer message, double value) { String d = String.valueOf(value); int eIndex = d.indexOf('E'); if (eIndex == -1) { message.append(d); return; } int exp; if (value < 1) { // Need to convert from scientific notation of the form // n.nnn...E-N (N >= 4) to a normal decimal value. try { exp = parseInt(d, eIndex + 2, d.length()); } // This should never happen. // It's only possible if String.valueOf(double) is broken. catch (Exception e) { message.append(d); return; } message.append("0."); for (int i = 1; i < exp; ++i) { message.append('0'); } // Remove trailing zeros. int end = eIndex - 1; while (end > 0) { char c = d.charAt(end); if (c != '0') { break; } --end; } // Now append the digits to the end. Skip over the decimal point. for (int i = 0; i <= end; ++i) { char c = d.charAt(i); if (c != '.') { message.append(c); } } } else { // Need to convert from scientific notation of the form // n.nnn...EN (N >= 7) to a normal decimal value. try { exp = parseInt(d, eIndex + 1, d.length()); } // This should never happen. // It's only possible if String.valueOf(double) is broken. catch (Exception e) { message.append(d); return; } final int integerEnd = exp + 2; for (int i = 0; i < eIndex; ++i) { char c = d.charAt(i); if (c != '.') { if (i == integerEnd) { message.append('.'); } message.append(c); } } // Append trailing zeroes if necessary. for (int i = integerEnd - eIndex; i > 0; --i) { message.append('0'); } } } protected double parseSecond(String buffer, int start, int end) throws NumberFormatException { int dot = -1; for (int i = start; i < end; i++) { char ch = buffer.charAt(i); if (ch == '.') { dot = i; } else if (ch > '9' || ch < '0') { throw new NumberFormatException("'" + buffer + "' has wrong format"); } } if (dot == -1) { if (start + 2 != end) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } } else if (start + 2 != dot || dot + 1 == end) { throw new NumberFormatException("'" + buffer + "' has wrong format"); } return Double.parseDouble(buffer.substring(start, end)); } // //Private help functions // private void cloneDate(DateTimeData finalValue, DateTimeData tempDate) { tempDate.year = finalValue.year; tempDate.month = finalValue.month; tempDate.day = finalValue.day; tempDate.hour = finalValue.hour; tempDate.minute = finalValue.minute; tempDate.second = finalValue.second; tempDate.utc = finalValue.utc; tempDate.timezoneHr = finalValue.timezoneHr; tempDate.timezoneMin = finalValue.timezoneMin; } /** * Represents date time data */ static final class DateTimeData implements XSDateTime { int year, month, day, hour, minute, utc; double second; int timezoneHr, timezoneMin; private String originalValue; boolean normalized = true; int unNormYear; int unNormMonth; int unNormDay; int unNormHour; int unNormMinute; double unNormSecond; // used for comparisons - to decide the 'interesting' portions of // a date/time based data type. int position; // a pointer to the type that was used go generate this data // note that this is not the actual simple type, but one of the // statically created XXXDV objects, so this won't cause any GC problem. final AbstractDateTimeDV type; private volatile String canonical; public DateTimeData(String originalValue, AbstractDateTimeDV type) { this.originalValue = originalValue; this.type = type; } public DateTimeData(int year, int month, int day, int hour, int minute, double second, int utc, String originalValue, boolean normalized, AbstractDateTimeDV type) { this.year = year; this.month = month; this.day = day; this.hour = hour; this.minute = minute; this.second = second; this.utc = utc; this.type = type; this.originalValue = originalValue; } @Override public boolean equals(Object obj) { if (!(obj instanceof DateTimeData)) { return false; } return type.compareDates(this, (DateTimeData) obj, true) == 0; } // If two DateTimeData are equals - then they should have the same // hashcode. This means we need to convert the date to UTC before // we return its hashcode. // The DateTimeData is unfortunately mutable - so we cannot // cache the result of the conversion... // @Override public int hashCode() { final DateTimeData tempDate = new DateTimeData(null, type); type.cloneDate(this, tempDate); type.normalize(tempDate); return type.dateToString(tempDate).hashCode(); } @Override public String toString() { if (canonical == null) { canonical = type.dateToString(this); } return canonical; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getYear() */ @Override public int getYears() { if (type instanceof DurationDV) { return 0; } return normalized ? year : unNormYear; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getMonth() */ @Override public int getMonths() { if (type instanceof DurationDV) { return year * 12 + month; } return normalized ? month : unNormMonth; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getDay() */ @Override public int getDays() { if (type instanceof DurationDV) { return 0; } return normalized ? day : unNormDay; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getHour() */ @Override public int getHours() { if (type instanceof DurationDV) { return 0; } return normalized ? hour : unNormHour; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getMinutes() */ @Override public int getMinutes() { if (type instanceof DurationDV) { return 0; } return normalized ? minute : unNormMinute; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getSeconds() */ @Override public double getSeconds() { if (type instanceof DurationDV) { return day * 24 * 60 * 60 + hour * 60 * 60 + minute * 60 + second; } return normalized ? second : unNormSecond; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#hasTimeZone() */ @Override public boolean hasTimeZone() { return utc != 0; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getTimeZoneHours() */ @Override public int getTimeZoneHours() { return timezoneHr; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getTimeZoneMinutes() */ @Override public int getTimeZoneMinutes() { return timezoneMin; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getLexicalValue() */ @Override public String getLexicalValue() { return originalValue; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#normalize() */ @Override public XSDateTime normalize() { if (!normalized) { DateTimeData dt = (DateTimeData) this.clone(); dt.normalized = true; return dt; } return this; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#isNormalized() */ @Override public boolean isNormalized() { return normalized; } @Override public Object clone() { DateTimeData dt = new DateTimeData(this.year, this.month, this.day, this.hour, this.minute, this.second, this.utc, this.originalValue, this.normalized, this.type); dt.canonical = this.canonical; dt.position = position; dt.timezoneHr = this.timezoneHr; dt.timezoneMin = this.timezoneMin; dt.unNormYear = this.unNormYear; dt.unNormMonth = this.unNormMonth; dt.unNormDay = this.unNormDay; dt.unNormHour = this.unNormHour; dt.unNormMinute = this.unNormMinute; dt.unNormSecond = this.unNormSecond; return dt; } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getXMLGregorianCalendar() */ @Override public XMLGregorianCalendar getXMLGregorianCalendar() { return type.getXMLGregorianCalendar(this); } /* (non-Javadoc) * @see org.apache.xerces.xs.datatypes.XSDateTime#getDuration() */ @Override public Duration getDuration() { return type.getDuration(this); } } protected XMLGregorianCalendar getXMLGregorianCalendar(DateTimeData data) { return null; } protected Duration getDuration(DateTimeData data) { return null; } protected final BigDecimal getFractionalSecondsAsBigDecimal(DateTimeData data) { final StringBuffer buf = new StringBuffer(); append3(buf, data.unNormSecond); String value = buf.toString(); final int index = value.indexOf('.'); if (index == -1) { return null; } value = value.substring(index); final BigDecimal _val = new BigDecimal(value); if (_val.compareTo(BigDecimal.valueOf(0)) == 0) { return null; } return _val; } }