/* -*- Mode: C++; tab-width: 4; indent-tabs-mode: nil; c-basic-offset: 4 -*- */ /* * This file is part of the LibreOffice project. * * This Source Code Form is subject to the terms of the Mozilla Public * License, v. 2.0. If a copy of the MPL was not distributed with this * file, You can obtain one at http://mozilla.org/MPL/2.0/. * * This file incorporates work covered by the following license notice: * * Licensed to the Apache Software Foundation (ASF) under one or more * contributor license agreements. See the NOTICE file distributed * with this work for additional information regarding copyright * ownership. The ASF licenses this file to you 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 . */ #include #include #include #include #include #include #include #include #include #include using namespace connectivity::odbc; using namespace com::sun::star::uno; using namespace com::sun::star::sdbc; using namespace com::sun::star::util; namespace { size_t sqlTypeLen ( SQLSMALLINT _nType ) { switch (_nType) { case SQL_C_SSHORT: case SQL_C_SHORT: return sizeof(SQLSMALLINT); case SQL_C_USHORT: return sizeof(SQLUSMALLINT); case SQL_C_SLONG: case SQL_C_LONG: return sizeof(SQLINTEGER); case SQL_C_ULONG: return sizeof(SQLUINTEGER); case SQL_C_FLOAT: return sizeof(SQLREAL); case SQL_C_DOUBLE: static_assert(sizeof(SQLDOUBLE) == sizeof(SQLFLOAT), "SQLDOUBLE/SQLFLOAT confusion"); return sizeof(SQLDOUBLE); case SQL_C_BIT: return sizeof(SQLCHAR); case SQL_C_STINYINT: case SQL_C_TINYINT: return sizeof(SQLSCHAR); case SQL_C_UTINYINT: return sizeof(SQLCHAR); case SQL_C_SBIGINT: return sizeof(SQLBIGINT); case SQL_C_UBIGINT: return sizeof(SQLUBIGINT); /* UnixODBC gives this the same value as SQL_C_UBIGINT case SQL_C_BOOKMARK: return sizeof(BOOKMARK); */ case SQL_C_TYPE_DATE: case SQL_C_DATE: return sizeof(SQL_DATE_STRUCT); case SQL_C_TYPE_TIME: case SQL_C_TIME: return sizeof(SQL_TIME_STRUCT); case SQL_C_TYPE_TIMESTAMP: case SQL_C_TIMESTAMP: return sizeof(SQL_TIMESTAMP_STRUCT); case SQL_C_NUMERIC: return sizeof(SQL_NUMERIC_STRUCT); case SQL_C_GUID: return sizeof(SQLGUID); case SQL_C_INTERVAL_YEAR: case SQL_C_INTERVAL_MONTH: case SQL_C_INTERVAL_DAY: case SQL_C_INTERVAL_HOUR: case SQL_C_INTERVAL_MINUTE: case SQL_C_INTERVAL_SECOND: case SQL_C_INTERVAL_YEAR_TO_MONTH: case SQL_C_INTERVAL_DAY_TO_HOUR: case SQL_C_INTERVAL_DAY_TO_MINUTE: case SQL_C_INTERVAL_DAY_TO_SECOND: case SQL_C_INTERVAL_HOUR_TO_MINUTE: case SQL_C_INTERVAL_HOUR_TO_SECOND: case SQL_C_INTERVAL_MINUTE_TO_SECOND: return sizeof(SQL_INTERVAL_STRUCT); // ** Variable-sized datatypes -> cannot predict length case SQL_C_CHAR: case SQL_C_WCHAR: case SQL_C_BINARY: // UnixODBC gives this the same value as SQL_C_BINARY //case SQL_C_VARBOOKMARK: // Unknown datatype -> cannot predict length default: return static_cast(-1); } } void appendSQLWCHARs(OUStringBuffer & s, SQLWCHAR const * d, sal_Int32 n) { static_assert( sizeof (SQLWCHAR) == sizeof (sal_Unicode) || sizeof (SQLWCHAR) == 4, "bad SQLWCHAR"); if (sizeof (SQLWCHAR) == sizeof (sal_Unicode)) { s.append(reinterpret_cast(d), n); } else { for (sal_Int32 i = 0; i != n; ++i) { s.appendUtf32(d[i]); } } } } void OTools::getValue( OConnection const * _pConnection, SQLHANDLE _aStatementHandle, sal_Int32 columnIndex, SQLSMALLINT _nType, bool &_bWasNull, const css::uno::Reference< css::uno::XInterface >& _xInterface, void* _pValue, SQLLEN _nSize) { const size_t properSize = sqlTypeLen(_nType); if ( properSize == static_cast(-1) ) SAL_WARN( "connectivity.drivers", "connectivity::odbc::OTools::getValue: unknown SQL type - cannot check buffer size"); else { OSL_ENSURE(static_cast(_nSize) == properSize, "connectivity::odbc::OTools::getValue got wrongly sized memory region to write result to"); if ( o3tl::make_unsigned(_nSize) > properSize ) { SAL_WARN( "connectivity.drivers", "memory region is too big - trying to fudge it"); memset(_pValue, 0, _nSize); #ifdef OSL_BIGENDIAN // This is skewed in favour of integer types _pValue = static_cast(_pValue) + _nSize - properSize; #endif } } OSL_ENSURE(o3tl::make_unsigned(_nSize) >= properSize, "memory region is too small"); SQLLEN pcbValue = SQL_NULL_DATA; OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetData)))(_aStatementHandle, static_cast(columnIndex), _nType, _pValue, _nSize, &pcbValue), _aStatementHandle,SQL_HANDLE_STMT,_xInterface,false); _bWasNull = pcbValue == SQL_NULL_DATA; } void OTools::bindValue( OConnection const * _pConnection, SQLHANDLE _aStatementHandle, sal_Int32 columnIndex, SQLSMALLINT _nType, SQLSMALLINT _nMaxLen, const void* _pValue, void* _pData, SQLLEN * const pLen, const css::uno::Reference< css::uno::XInterface >& _xInterface, rtl_TextEncoding _nTextEncoding, bool _bUseOldTimeDate) { SQLRETURN nRetcode; SQLSMALLINT fSqlType; SQLSMALLINT fCType; OTools::getBindTypes( false, _bUseOldTimeDate, _nType, fCType, fSqlType); if (columnIndex != 0 && !_pValue) { *pLen = SQL_NULL_DATA; nRetcode = (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::BindCol)))(_aStatementHandle, static_cast(columnIndex), fCType, _pData, _nMaxLen, pLen ); } else { try { switch (_nType) { case SQL_CHAR: case SQL_VARCHAR: { OString aString(OUStringToOString(*static_cast(_pValue),_nTextEncoding)); *pLen = SQL_NTS; *static_cast(_pData) = aString; // Pointer on Char* _pData = const_cast(aString.getStr()); } break; case SQL_BIGINT: *static_cast(_pData) = *static_cast(_pValue); *pLen = sizeof(sal_Int64); break; case SQL_DECIMAL: case SQL_NUMERIC: { OString aString = OString::number(*static_cast(_pValue)); *pLen = static_cast(aString.getLength()); *static_cast(_pData) = aString; // Pointer on Char* _pData = const_cast(static_cast(_pData)->getStr()); } break; case SQL_BIT: case SQL_TINYINT: *static_cast(_pData) = *static_cast(_pValue); *pLen = sizeof(sal_Int8); break; case SQL_SMALLINT: *static_cast(_pData) = *static_cast(_pValue); *pLen = sizeof(sal_Int16); break; case SQL_INTEGER: *static_cast(_pData) = *static_cast(_pValue); *pLen = sizeof(sal_Int32); break; case SQL_FLOAT: *static_cast(_pData) = *static_cast(_pValue); *pLen = sizeof(float); break; case SQL_REAL: case SQL_DOUBLE: *static_cast(_pData) = *static_cast(_pValue); *pLen = sizeof(double); break; case SQL_BINARY: case SQL_VARBINARY: { _pData = const_cast(static_cast *>(_pValue)->getConstArray()); *pLen = static_cast *>(_pValue)->getLength(); } break; case SQL_LONGVARBINARY: { /* see https://msdn.microsoft.com/en-us/library/ms716238%28v=vs.85%29.aspx * for an explanation of that apparently weird cast */ _pData = reinterpret_cast(static_cast(columnIndex)); sal_Int32 nLen = static_cast *>(_pValue)->getLength(); *pLen = static_cast(SQL_LEN_DATA_AT_EXEC(nLen)); } break; case SQL_LONGVARCHAR: { /* see https://msdn.microsoft.com/en-us/library/ms716238%28v=vs.85%29.aspx * for an explanation of that apparently weird cast */ _pData = reinterpret_cast(static_cast(columnIndex)); sal_Int32 nLen = static_cast(_pValue)->getLength(); *pLen = static_cast(SQL_LEN_DATA_AT_EXEC(nLen)); } break; case SQL_DATE: *pLen = sizeof(DATE_STRUCT); *static_cast(_pData) = *static_cast(_pValue); break; case SQL_TIME: *pLen = sizeof(TIME_STRUCT); *static_cast(_pData) = *static_cast(_pValue); break; case SQL_TIMESTAMP: *pLen = sizeof(TIMESTAMP_STRUCT); *static_cast(_pData) = *static_cast(_pValue); break; } } catch ( ... ) { } nRetcode = (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::BindCol)))(_aStatementHandle, static_cast(columnIndex), fCType, _pData, _nMaxLen, pLen ); } OTools::ThrowException(_pConnection,nRetcode,_aStatementHandle,SQL_HANDLE_STMT,_xInterface); } void OTools::ThrowException(const OConnection* _pConnection, const SQLRETURN _rRetCode, const SQLHANDLE _pContext, const SQLSMALLINT _nHandleType, const Reference< XInterface >& _xInterface, const bool _bNoFound) { switch(_rRetCode) { case SQL_NEED_DATA: case SQL_STILL_EXECUTING: case SQL_SUCCESS: case SQL_SUCCESS_WITH_INFO: return; case SQL_NO_DATA_FOUND: if(_bNoFound) return; // no need to throw an exception break; case SQL_ERROR: break; case SQL_INVALID_HANDLE: SAL_WARN( "connectivity.drivers", "SdbODBC3_SetStatus: SQL_INVALID_HANDLE"); throw SQLException(); } // Additional Information on the latest ODBC-functioncall available // SQLError provides this Information. SDB_ODBC_CHAR szSqlState[5]; SQLINTEGER pfNativeError; SDB_ODBC_CHAR szErrorMessage[SQL_MAX_MESSAGE_LENGTH]; szErrorMessage[0] = '\0'; SQLSMALLINT pcbErrorMsg = 0; // Information for latest operation: // when hstmt != SQL_NULL_HSTMT is (Used from SetStatus in SdbCursor, SdbTable, ...), // then the status of the latest statements will be fetched, without the Status of the last // statements of this connection [what in this case will probably be the same, but the Reference // Manual isn't totally clear in this...]. // corresponding for hdbc. SQLRETURN n = (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetDiagRec)))(_nHandleType,_pContext,1, szSqlState, &pfNativeError, szErrorMessage,sizeof szErrorMessage - 1,&pcbErrorMsg); OSL_ENSURE(n != SQL_INVALID_HANDLE,"SdbODBC3_SetStatus: SQLError returned SQL_INVALID_HANDLE"); OSL_ENSURE(n == SQL_SUCCESS || n == SQL_SUCCESS_WITH_INFO || n == SQL_NO_DATA_FOUND || n == SQL_ERROR,"SdbODBC3_SetStatus: SQLError failed"); rtl_TextEncoding _nTextEncoding = osl_getThreadTextEncoding(); // For the Return Code of SQLError see ODBC 2.0 Programmer's Reference Page 287ff throw SQLException( OUString(reinterpret_cast(szErrorMessage), pcbErrorMsg, _nTextEncoding), _xInterface, OUString(reinterpret_cast(szSqlState), 5, _nTextEncoding), pfNativeError, Any() ); } Sequence OTools::getBytesValue(const OConnection* _pConnection, const SQLHANDLE _aStatementHandle, const sal_Int32 columnIndex, const SQLSMALLINT _fSqlType, bool &_bWasNull, const Reference< XInterface >& _xInterface) { sal_Int8 aCharArray[2048]; // First try to fetch the data with the little Buffer: const SQLLEN nMaxLen = sizeof aCharArray; SQLLEN pcbValue = SQL_NO_TOTAL; Sequence aData; OSL_ENSURE( _fSqlType != SQL_CHAR && _fSqlType != SQL_VARCHAR && _fSqlType != SQL_LONGVARCHAR && _fSqlType != SQL_WCHAR && _fSqlType != SQL_WVARCHAR && _fSqlType != SQL_WLONGVARCHAR, "connectivity::odbc::OTools::getBytesValue called with character _fSqlType"); while (pcbValue == SQL_NO_TOTAL || pcbValue > nMaxLen) { OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetData)))( _aStatementHandle, static_cast(columnIndex), _fSqlType, static_cast(aCharArray), nMaxLen, &pcbValue), _aStatementHandle,SQL_HANDLE_STMT,_xInterface); _bWasNull = pcbValue == SQL_NULL_DATA; if(_bWasNull) return Sequence(); SQLLEN nReadBytes; // After the SQLGetData that wrote out to aCharArray the last byte of the data, // pcbValue will not be SQL_NO_TOTAL -> we have a reliable count if ( (pcbValue == SQL_NO_TOTAL) || (pcbValue >= nMaxLen) ) { // we filled the buffer nReadBytes = nMaxLen; } else { nReadBytes = pcbValue; } const sal_Int32 nLen = aData.getLength(); aData.realloc(nLen + nReadBytes); memcpy(aData.getArray() + nLen, aCharArray, nReadBytes); } return aData; } OUString OTools::getStringValue(OConnection const * _pConnection, SQLHANDLE _aStatementHandle, sal_Int32 columnIndex, SQLSMALLINT _fSqlType, bool &_bWasNull, const Reference< XInterface >& _xInterface, const rtl_TextEncoding _nTextEncoding) { OUStringBuffer aData; switch(_fSqlType) { case SQL_WVARCHAR: case SQL_WCHAR: case SQL_WLONGVARCHAR: { SQLWCHAR waCharArray[2048]; static_assert(sizeof(waCharArray) % sizeof(SQLWCHAR) == 0, "must fit in evenly"); static_assert(sizeof(SQLWCHAR) == 2 || sizeof(SQLWCHAR) == 4, "must be 2 or 4"); // Size == number of bytes, Len == number of UTF-16 or UCS4 code units const SQLLEN nMaxSize = sizeof(waCharArray); const SQLLEN nMaxLen = sizeof(waCharArray) / sizeof(SQLWCHAR); static_assert(nMaxLen * sizeof(SQLWCHAR) == nMaxSize, "sizes must match"); // read the unicode data SQLLEN pcbValue = SQL_NO_TOTAL; while ((pcbValue == SQL_NO_TOTAL ) || (pcbValue >= nMaxSize) ) { OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetData)))( _aStatementHandle, static_cast(columnIndex), SQL_C_WCHAR, &waCharArray, SQLLEN(nMaxLen)*sizeof(sal_Unicode), &pcbValue), _aStatementHandle,SQL_HANDLE_STMT,_xInterface); _bWasNull = pcbValue == SQL_NULL_DATA; if(_bWasNull) return OUString(); SQLLEN nReadChars; OSL_ENSURE( (pcbValue < 0) || (pcbValue % 2 == 0), "ODBC: SQLGetData of SQL_C_WCHAR returned odd number of bytes"); if ( (pcbValue == SQL_NO_TOTAL) || (pcbValue >= nMaxSize) ) { // we filled the buffer; remove the terminating null character nReadChars = nMaxLen-1; if ( waCharArray[nReadChars] != 0) { SAL_WARN( "connectivity.drivers", "Buggy ODBC driver? Did not null-terminate (variable length) data!"); ++nReadChars; } } else { nReadChars = pcbValue/sizeof(SQLWCHAR); } appendSQLWCHARs(aData, waCharArray, nReadChars); } break; } default: { char aCharArray[2048]; // read the unicode data const SQLLEN nMaxLen = sizeof(aCharArray); SQLLEN pcbValue = SQL_NO_TOTAL; while ((pcbValue == SQL_NO_TOTAL ) || (pcbValue >= nMaxLen) ) { OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetData)))( _aStatementHandle, static_cast(columnIndex), SQL_C_CHAR, &aCharArray, nMaxLen, &pcbValue), _aStatementHandle,SQL_HANDLE_STMT,_xInterface); _bWasNull = pcbValue == SQL_NULL_DATA; if(_bWasNull) return OUString(); SQLLEN nReadChars; if ( (pcbValue == SQL_NO_TOTAL) || (pcbValue >= nMaxLen) ) { // we filled the buffer; remove the terminating null character nReadChars = nMaxLen-1; if ( aCharArray[nReadChars] != 0) { SAL_WARN( "connectivity.drivers", "Buggy ODBC driver? Did not null-terminate (variable length) data!"); ++nReadChars; } } else { nReadChars = pcbValue; } aData.append(OUString(aCharArray, nReadChars, _nTextEncoding)); } break; } } return aData.makeStringAndClear(); } void OTools::GetInfo(OConnection const * _pConnection, SQLHANDLE _aConnectionHandle, SQLUSMALLINT _nInfo, OUString &_rValue, const Reference< XInterface >& _xInterface, rtl_TextEncoding _nTextEncoding) { char aValue[512]; SQLSMALLINT nValueLen=0; OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetInfo)))(_aConnectionHandle,_nInfo,aValue,(sizeof aValue)-1,&nValueLen), _aConnectionHandle,SQL_HANDLE_DBC,_xInterface); _rValue = OUString(aValue,nValueLen,_nTextEncoding); } void OTools::GetInfo(OConnection const * _pConnection, SQLHANDLE _aConnectionHandle, SQLUSMALLINT _nInfo, sal_Int32 &_rValue, const Reference< XInterface >& _xInterface) { SQLSMALLINT nValueLen; _rValue = 0; // in case the driver uses only 16 of the 32 bits (as it does, for example, for SQL_CATALOG_LOCATION) OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetInfo)))(_aConnectionHandle,_nInfo,&_rValue,sizeof _rValue,&nValueLen), _aConnectionHandle,SQL_HANDLE_DBC,_xInterface); } void OTools::GetInfo(OConnection const * _pConnection, SQLHANDLE _aConnectionHandle, SQLUSMALLINT _nInfo, SQLUINTEGER &_rValue, const Reference< XInterface >& _xInterface) { SQLSMALLINT nValueLen; _rValue = 0; // in case the driver uses only 16 of the 32 bits (as it does, for example, for SQL_CATALOG_LOCATION) OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetInfo)))(_aConnectionHandle,_nInfo,&_rValue,sizeof _rValue,&nValueLen), _aConnectionHandle,SQL_HANDLE_DBC,_xInterface); } void OTools::GetInfo(OConnection const * _pConnection, SQLHANDLE _aConnectionHandle, SQLUSMALLINT _nInfo, SQLUSMALLINT &_rValue, const Reference< XInterface >& _xInterface) { SQLSMALLINT nValueLen; _rValue = 0; // in case the driver uses only 16 of the 32 bits (as it does, for example, for SQL_CATALOG_LOCATION) OTools::ThrowException(_pConnection, (*reinterpret_cast(_pConnection->getOdbcFunction(ODBC3SQLFunctionId::GetInfo)))(_aConnectionHandle,_nInfo,&_rValue,sizeof _rValue,&nValueLen), _aConnectionHandle,SQL_HANDLE_DBC,_xInterface); } sal_Int32 OTools::MapOdbcType2Jdbc(SQLSMALLINT _nType) { sal_Int32 nValue = DataType::VARCHAR; switch(_nType) { case SQL_BIT: nValue = DataType::BIT; break; case SQL_TINYINT: nValue = DataType::TINYINT; break; case SQL_SMALLINT: nValue = DataType::SMALLINT; break; case SQL_INTEGER: nValue = DataType::INTEGER; break; case SQL_BIGINT: nValue = DataType::BIGINT; break; case SQL_FLOAT: nValue = DataType::FLOAT; break; case SQL_REAL: nValue = DataType::REAL; break; case SQL_DOUBLE: nValue = DataType::DOUBLE; break; case SQL_NUMERIC: nValue = DataType::NUMERIC; break; case SQL_DECIMAL: nValue = DataType::DECIMAL; break; case SQL_WCHAR: case SQL_CHAR: nValue = DataType::CHAR; break; case SQL_WVARCHAR: case SQL_VARCHAR: nValue = DataType::VARCHAR; break; case SQL_WLONGVARCHAR: case SQL_LONGVARCHAR: nValue = DataType::LONGVARCHAR; break; case SQL_TYPE_DATE: case SQL_DATE: nValue = DataType::DATE; break; case SQL_TYPE_TIME: case SQL_TIME: nValue = DataType::TIME; break; case SQL_TYPE_TIMESTAMP: case SQL_TIMESTAMP: nValue = DataType::TIMESTAMP; break; case SQL_BINARY: nValue = DataType::BINARY; break; case SQL_VARBINARY: case SQL_GUID: nValue = DataType::VARBINARY; break; case SQL_LONGVARBINARY: nValue = DataType::LONGVARBINARY; break; default: OSL_FAIL("Invalid type"); } return nValue; } // jdbcTypeToOdbc // Convert the JDBC SQL type to the correct ODBC type SQLSMALLINT OTools::jdbcTypeToOdbc(sal_Int32 jdbcType) { // For the most part, JDBC types match ODBC types. We'll // just convert the ones that we know are different sal_Int32 odbcType = jdbcType; switch (jdbcType) { case DataType::DATE: odbcType = SQL_DATE; break; case DataType::TIME: odbcType = SQL_TIME; break; case DataType::TIMESTAMP: odbcType = SQL_TIMESTAMP; break; // ODBC doesn't have any notion of CLOB or BLOB case DataType::CLOB: odbcType = SQL_LONGVARCHAR; break; case DataType::BLOB: odbcType = SQL_LONGVARBINARY; break; } return odbcType; } void OTools::getBindTypes(bool _bUseWChar, bool _bUseOldTimeDate, SQLSMALLINT _nOdbcType, SQLSMALLINT& fCType, SQLSMALLINT& fSqlType ) { switch(_nOdbcType) { case SQL_CHAR: if(_bUseWChar) { fCType = SQL_C_WCHAR; fSqlType = SQL_WCHAR; } else { fCType = SQL_C_CHAR; fSqlType = SQL_CHAR; } break; case SQL_VARCHAR: if(_bUseWChar) { fCType = SQL_C_WCHAR; fSqlType = SQL_WVARCHAR; } else { fCType = SQL_C_CHAR; fSqlType = SQL_VARCHAR; } break; case SQL_LONGVARCHAR: if(_bUseWChar) { fCType = SQL_C_WCHAR; fSqlType = SQL_WLONGVARCHAR; } else { fCType = SQL_C_CHAR; fSqlType = SQL_LONGVARCHAR; } break; case SQL_DECIMAL: fCType = _bUseWChar ? SQL_C_WCHAR : SQL_C_CHAR; fSqlType = SQL_DECIMAL; break; case SQL_NUMERIC: fCType = _bUseWChar ? SQL_C_WCHAR : SQL_C_CHAR; fSqlType = SQL_NUMERIC; break; case SQL_BIT: fCType = SQL_C_TINYINT; fSqlType = SQL_INTEGER; break; case SQL_TINYINT: fCType = SQL_C_TINYINT; fSqlType = SQL_TINYINT; break; case SQL_SMALLINT: fCType = SQL_C_SHORT; fSqlType = SQL_SMALLINT; break; case SQL_INTEGER: fCType = SQL_C_LONG; fSqlType = SQL_INTEGER; break; case SQL_BIGINT: fCType = SQL_C_SBIGINT; fSqlType = SQL_BIGINT; break; case SQL_FLOAT: fCType = SQL_C_FLOAT; fSqlType = SQL_FLOAT; break; case SQL_REAL: fCType = SQL_C_DOUBLE; fSqlType = SQL_REAL; break; case SQL_DOUBLE: fCType = SQL_C_DOUBLE; fSqlType = SQL_DOUBLE; break; case SQL_BINARY: fCType = SQL_C_BINARY; fSqlType = SQL_BINARY; break; case SQL_VARBINARY: fCType = SQL_C_BINARY; fSqlType = SQL_VARBINARY; break; case SQL_LONGVARBINARY: fCType = SQL_C_BINARY; fSqlType = SQL_LONGVARBINARY; break; case SQL_DATE: if(_bUseOldTimeDate) { fCType = SQL_C_DATE; fSqlType = SQL_DATE; } else { fCType = SQL_C_TYPE_DATE; fSqlType = SQL_TYPE_DATE; } break; case SQL_TIME: if(_bUseOldTimeDate) { fCType = SQL_C_TIME; fSqlType = SQL_TIME; } else { fCType = SQL_C_TYPE_TIME; fSqlType = SQL_TYPE_TIME; } break; case SQL_TIMESTAMP: if(_bUseOldTimeDate) { fCType = SQL_C_TIMESTAMP; fSqlType = SQL_TIMESTAMP; } else { fCType = SQL_C_TYPE_TIMESTAMP; fSqlType = SQL_TYPE_TIMESTAMP; } break; default: fCType = SQL_C_BINARY; fSqlType = SQL_LONGVARBINARY; break; } } /* vim:set shiftwidth=4 softtabstop=4 expandtab: */