//%2005//////////////////////////////////////////////////////////////////////// // // Copyright (c) 2000, 2001, 2002 BMC Software; Hewlett-Packard Development // Company, L.P.; IBM Corp.; The Open Group; Tivoli Systems. // Copyright (c) 2003 BMC Software; Hewlett-Packard Development Company, L.P.; // IBM Corp.; EMC Corporation, The Open Group. // Copyright (c) 2004 BMC Software; Hewlett-Packard Development Company, L.P.; // IBM Corp.; EMC Corporation; VERITAS Software Corporation; The Open Group. // Copyright (c) 2005 Hewlett-Packard Development Company, L.P.; IBM Corp.; // EMC Corporation; VERITAS Software Corporation; The Open Group. // // Permission is hereby granted, free of charge, to any person obtaining a copy // of this software and associated documentation files (the "Software"), to // deal in the Software without restriction, including without limitation the // rights to use, copy, modify, merge, publish, distribute, sublicense, and/or // sell copies of the Software, and to permit persons to whom the Software is // furnished to do so, subject to the following conditions: // // THE ABOVE COPYRIGHT NOTICE AND THIS PERMISSION NOTICE SHALL BE INCLUDED IN // ALL COPIES OR SUBSTANTIAL PORTIONS OF THE SOFTWARE. THE SOFTWARE IS PROVIDED // "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT // LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR // PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT // HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN // ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION // WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. // //============================================================================== // // Authors: David Rosckes (rosckes@us.ibm.com) // Bert Rivero (hurivero@us.ibm.com) // Chuck Carmack (carmack@us.ibm.com) // Brian Lucier (lucier@us.ibm.com) // // Modified By: // David Dillard, VERITAS Software Corp. // (david.dillard@veritas.com) // //%///////////////////////////////////////////////////////////////////////////// #include // Query includes #include // Pegasus Common includes #include // standard includes #include // symbol defines #define PEGASUS_SINT64_MIN (PEGASUS_SINT64_LITERAL(0x8000000000000000)) #define PEGASUS_UINT64_MAX PEGASUS_UINT64_LITERAL(0xFFFFFFFFFFFFFFFF) // required for the windows compile #ifndef _MSC_VER #define _MSC_VER 0 #endif PEGASUS_NAMESPACE_BEGIN inline Uint8 _CQLUtilities_hexCharToNumeric(Char16 c) { Uint8 n; if (isdigit(c)) n = (c - '0'); else if (isupper(c)) n = (c - 'A' + 10); else // if (islower(c)) n = (c - 'a' + 10); return n; } Uint64 CQLUtilities::stringToUint64(const String &stringNum) { PEG_METHOD_ENTER(TRC_CQL,"CQLUtilities::stringToUint64()"); Uint64 x = 0; const Char16* p = stringNum.getChar16Data(); const Char16* pStart = p; if (String::equal(stringNum, String::EMPTY)) { MessageLoaderParms mload(String("CQL.CQLUtilities.EMPTY_STRING"), String("Error converting string to $0. String cannot be $1."), String("Uint64"), String("empty")); throw CQLRuntimeException(mload); } if (!p) { MessageLoaderParms mload(String("CQL.CQLUtilities.EMPTY_STRING"), String("Error converting string to $0. String cannot be $1."), String("Uint64"), String("NULL")); throw CQLRuntimeException(mload); } // If the string is a real number, use stringToReal, then convert to a Uint64 if (isReal(stringNum)) { // Note: the cast will rip off any non-whole number precision. CQL spec // is silent on whether to round up, round down, throw an error, or allow // the platform to round as it sees fit. We chose the latter for now. return (Uint64) stringToReal64(stringNum); } // There cannot be a negative '-' sign if (*p == '-') { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_NEG"), String("Error converting string to $0. String '$1' cannot begin with '-'."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } if (*p == '+') p++; // skip over the positive sign if (!isdigit(*p)) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_NUM_FORMAT"), String("Error converting string to $0. String '$1' is badly formed."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } // if hexidecimal if ( (*p == '0') && ((p[1] == 'x') || (p[1] == 'X')) ) { // Convert a hexadecimal string // Skip over the "0x" p+=2; // At least one hexadecimal digit is required if (!*p) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_HEX_FORMAT"), String("Error converting string to $0. String '$1' needs a hexadecimal digit character following '0x'"), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } // Add on each digit, checking for overflow errors while (isxdigit(*p)) { // Make sure we won't overflow when we multiply by 16 if (x > PEGASUS_UINT64_MAX/16) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } x = x << 4; // We can't overflow when we add the next digit Uint64 newDigit = Uint64(_CQLUtilities_hexCharToNumeric(*p++)); if (PEGASUS_UINT64_MAX - x < newDigit) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } x = x + newDigit; } // If we found a non-hexadecimal digit, report an error if (*p) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_HEX_CHAR"), String("Error converting string to $0. Character '$1' in string '$2' is not a hexidecimal digit."), String("Uint64"), String(p, 1), stringNum); throw CQLRuntimeException(mload); } // return value from the hex string PEG_METHOD_EXIT(); return x; } // end if hexidecimal // if binary Uint32 endString = stringNum.size() - 1; if ( (pStart[endString] == 'b') || (pStart[endString] == 'B') ) { // Add on each digit, checking for overflow errors while ((*p == '0') || (*p == '1')) { // Make sure we won't overflow when we multiply by 2 if (x > PEGASUS_UINT64_MAX/2) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } x = x << 1; // We can't overflow when we add the next digit Uint64 newDigit = 0; if (*p++ == '1') newDigit = 1; if (PEGASUS_UINT64_MAX - x < newDigit) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } x = x + newDigit; } // If we found a non-binary digit before the terminating 'b', then report an error if (*p && (p-pStart < (Sint32)endString || (*p != 'b' && *p != 'B'))) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_BIN_CHAR"), String("Error converting string to $0. Character '$1' in string '$2' is not a binary digit."), String("Uint64"), String(p, 1), stringNum); throw CQLRuntimeException(mload); } // return value from the binary string PEG_METHOD_EXIT(); return x; } // end if binary // Expect a positive decimal digit: // Add on each digit, checking for overflow errors while (isdigit(*p)) { // Make sure we won't overflow when we multiply by 10 if (x > PEGASUS_UINT64_MAX/10) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } x = 10 * x; // Make sure we won't overflow when we add the next digit Uint64 newDigit = (*p++ - '0'); if (PEGASUS_UINT64_MAX - x < newDigit) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } x = x + newDigit; } // If we found a non-decimal digit, report an error if (*p) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_DECIMAL_CHAR"), String("Error converting string to $0. Character '$1' in string '$2' is not a decimal digit."), String("Uint64"), String(p, 1), stringNum); throw CQLRuntimeException(mload); } // return the value for the decimal string PEG_METHOD_EXIT(); return x; } Sint64 CQLUtilities::stringToSint64(const String &stringNum) { PEG_METHOD_ENTER(TRC_CQL,"CQLUtilities::stringToSint64()"); Sint64 x = 0; Boolean invert = false; const Char16* p = stringNum.getChar16Data(); const Char16* pStart = p; if (String::equal(stringNum, String::EMPTY)) { MessageLoaderParms mload(String("CQL.CQLUtilities.EMPTY_STRING"), String("Error converting string to $0. String cannot be $1."), String("Sint64"), String("empty")); throw CQLRuntimeException(mload); } if (!p) { MessageLoaderParms mload(String("CQL.CQLUtilities.EMPTY_STRING"), String("Error converting string to $0. String cannot be $1."), String("Sint64"), String("NULL")); throw CQLRuntimeException(mload); } // If the string is a real number, use stringToReal, then convert to a Sint64 if (isReal(stringNum)) { // Note: the cast will rip off any non-whole number precision. CQL spec // is silent on whether to round up, round down, throw an error, or allow // the platform to round as it sees fit. We chose the latter for now. return (Sint64) stringToReal64(stringNum); } // skip over the sign if there is one if (*p == '-') { invert = true; p++; } if (*p == '+') p++; if (!isdigit(*p)) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_NUM_FORMAT"), String("Error converting string to $0. String '$1' is badly formed."), String("Uint64"), stringNum); throw CQLRuntimeException(mload); } // ******************** // Build the Sint64 as a negative number, regardless of the // eventual sign (negative numbers can be bigger than positive ones) // ******************** // if hexidecimal if ( (*p == '0') && ((p[1] == 'x') || (p[1] == 'X')) ) { // Convert a hexadecimal string // Skip over the "0x" p+=2; // At least one hexidecimal digit is required if (!*p) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_HEX_FORMAT"), String("Error converting string to $0. String '$1' needs a hexadecimal digit character following '0x'."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } // Add on each digit, checking for overflow errors while (isxdigit(*p)) { // Make sure we won't overflow when we multiply by 16 if (x < PEGASUS_SINT64_MIN/16) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = x << 4; // We can't overflow when we add the next digit Sint64 newDigit = Sint64(_CQLUtilities_hexCharToNumeric(*p++)); if (PEGASUS_SINT64_MIN - x > -newDigit) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = x - newDigit; } // If we found a non-hexidecimal digit, report an error if (*p) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_HEX_CHAR"), String("Error converting string to $0. Character '$1' in string '$2' is not a hexidecimal digit."), String("Sint64"), String(p, 1), stringNum); throw CQLRuntimeException(mload); } // Return the integer to positive, if necessary, checking for an // overflow error if (!invert) { if (x == PEGASUS_SINT64_MIN) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = -x; } // return value from the hex string PEG_METHOD_EXIT(); return x; } // end if hexidecimal // if binary Uint32 endString = stringNum.size() - 1; if ( (pStart[endString] == 'b') || (pStart[endString] == 'B') ) { // Add on each digit, checking for overflow errors while ((*p == '0') || (*p == '1')) { // Make sure we won't overflow when we multiply by 2 if (x < PEGASUS_SINT64_MIN/2) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = x << 1; // We can't overflow when we add the next digit Sint64 newDigit = 0; if (*p++ == '1') newDigit = 1; if (PEGASUS_SINT64_MIN - x > -newDigit) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = x - newDigit; } // If we found a non-binary digit before the terminating 'b', then report an error if (*p && (p-pStart < (Sint32)endString || (*p != 'b' && *p != 'B'))) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_BIN_CHAR"), String("Error converting string to $0. Character '$1' in string '$2' is not a binary digit."), String("Sint64"), String(p, 1), stringNum); throw CQLRuntimeException(mload); } // Return the integer to positive, if necessary, checking for an // overflow error if (!invert) { if (x == PEGASUS_SINT64_MIN) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = -x; } // return value from the binary string PEG_METHOD_EXIT(); return x; } // end if binary // Expect a positive decimal digit: // Add on each digit, checking for overflow errors while (isdigit(*p)) { // Make sure we won't overflow when we multiply by 10 if (x < PEGASUS_SINT64_MIN/10) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = 10 * x; // Make sure we won't overflow when we add the next digit Sint64 newDigit = (*p++ - '0'); if (PEGASUS_SINT64_MIN - x > -newDigit) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = x - newDigit; } // If we found a non-decimal digit, report an error if (*p) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_DECIMAL_CHAR"), String("Error converting string to $0. Character '$1' in string '$2' is not a decimal digit."), String("Sint64"), String(p, 1), stringNum); throw CQLRuntimeException(mload); } // Return the integer to positive, if necessary, checking for an // overflow error if (!invert) { if (x == PEGASUS_SINT64_MIN) { MessageLoaderParms mload(String("CQL.CQLUtilities.OVERFLOW"), String("Error converting string to $0. String '$1' caused an overflow."), String("Sint64"), stringNum); throw CQLRuntimeException(mload); } x = -x; } // return the value for the decimal string PEG_METHOD_EXIT(); return x; } Real64 CQLUtilities::stringToReal64(const String &stringNum) { PEG_METHOD_ENTER(TRC_CQL,"CQLUtilities::stringToReal64()"); Real64 x = 0; const Char16* p = stringNum.getChar16Data(); Boolean neg = false; const Char16* pStart = p; if (String::equal(stringNum, String::EMPTY)) { MessageLoaderParms mload(String("CQL.CQLUtilities.EMPTY_STRING"), String("Error converting string to $0. String cannot be $1."), String("Real64"), String("empty")); throw CQLRuntimeException(mload); } if (!p) { MessageLoaderParms mload(String("CQL.CQLUtilities.EMPTY_STRING"), String("Error converting string to $0. String cannot be $1."), String("Real64"), String("NULL")); throw CQLRuntimeException(mload); } // Skip optional sign: if (*p == '+') p++; if (*p == '-') { neg = true; p++; }; // Check if it it is a binary or hex integer Uint32 endString = stringNum.size() - 1; if ((*p == '0' && (p[1] == 'x' || p[1] == 'X')) || // hex OR pStart[endString] == 'b' || pStart[endString] == 'B') // binary { if (neg) x = stringToSint64(stringNum); else // Check if the complier is MSVC 6, which does not support the conversion operator from Uint64 to Real64 #if defined(PEGASUS_PLATFORM_WIN32_IX86_MSVC) && (_MSC_VER < 1300) { Uint64 num = stringToUint64(stringNum); Sint64 half = num / 2; x = half; x += half; if (num % 2) // if odd, then add the lost remainder x += 1; } #else x = stringToUint64(stringNum); #endif PEG_METHOD_EXIT(); return x; } // Skip optional first set of digits: while (isdigit(*p)) p++; // Test if optional dot is there if (*p++ == '.') { // One or more digits required: if (!isdigit(*p++)) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_CHAR_POST_DOT"), String("Error converting string to Real64. String '$0' must have a digit character following the decimal point."), stringNum); throw CQLRuntimeException(mload); } while (isdigit(*p)) p++; // If there is an exponent now: if (*p) { // Test exponent: if (*p != 'e' && *p != 'E') { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_REAL_CHAR"), String("Error converting string to $0. Character '$1' in string '$2` is invalid."), String("Real64"), String(p-1, 1), stringNum); throw CQLRuntimeException(mload); } p++; // Skip optional sign: if (*p == '+' || *p == '-') p++; // One or more digits required: if (!isdigit(*p++)) { MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_REAL_EXP"), String("Error converting string to Real64. String '$0' has an badly formed exponent. Character '$1' is invalid."), stringNum, String(p, 1)); throw CQLRuntimeException(mload); } while (isdigit(*p)) p++; } } // end-if optional decimal point if (*p && p - pStart <= (Sint32) stringNum.size()) { // printf("This is char # %d\n", p - pStart); MessageLoaderParms mload(String("CQL.CQLUtilities.INVALID_DECIMAL_CHAR"), String("Error converting string to $0. Character '$1' in string '$2' is not a decimal digit."), String("Real64"), String(p-1, 1), stringNum); throw CQLRuntimeException(mload); } // // Do the conversion // char* end; errno = 0; CString temp = stringNum.getCString(); x = strtod((const char *) temp, &end); if (*end || (errno == ERANGE)) { MessageLoaderParms mload(String("CQL.CQLUtilities.CONVERSION_REAL_ERROR"), String("String '$0' was unable to be converted to a Real64. It could be out of range."), stringNum); throw CQLRuntimeException(mload); } PEG_METHOD_EXIT(); // printf("String %s = %.16e\n", (const char *)stringNum.getCString(), x); return x; } String CQLUtilities::formatRealStringExponent(const String &realString) { String newString(realString); Uint32 expIndex = PEG_NOT_FOUND; Uint32 index = newString.size() - 1; expIndex = newString.find('E'); if (expIndex == PEG_NOT_FOUND) expIndex = newString.find('e'); if (expIndex == PEG_NOT_FOUND) return newString; // no exponent symbol, so just return // format the exponent index = expIndex + 1; // start index at next character if (newString[index] == '+') newString.remove(index, 1); // remove the '+' symbol if (newString[index] == '-') index++; // skip the '-' exponent sign while (newString[index] == '0' && index < newString.size()) { newString.remove(index, 1); } // If only an 'e' is left (only 0's behind it) then strip the 'e' if (index >= newString.size()) newString.remove(expIndex, 1); return newString; } Boolean CQLUtilities::isReal(const String &numString) { // If there is a decimal point, we consider it to be a real. if (numString.find('.') == PEG_NOT_FOUND) return false; return true; } PEGASUS_NAMESPACE_END