/**
Searches the contacts database to find any contact items with an exact match on the address supplied.
@param aCommAddr A descriptor containing the address to be found in the database.
@param aAddrType The type of addresses that is being sought.
@return An array of contact IDs which match the supplied address.
*/
CContactIdArray* CPplCommAddrTable::MatchNonPhoneAddrL(const TDesC& aCommAddr, TCommAddrType aAddrType)
{
// build statement
RSqlStatement stmnt;
CleanupClosePushL(stmnt);
stmnt.PrepareL(iDatabase, iMatchSelectStmnt->SqlStringL() );
const TInt KValueParamIndex(KFirstParam); // first parameter in query...
const TInt KTypeParamIndex(KValueParamIndex + 1); // ...and the second.
User::LeaveIfError(stmnt.BindText(KValueParamIndex, aCommAddr) );
User::LeaveIfError(stmnt.BindInt(KTypeParamIndex, aAddrType) );
// fetch the list of any matching contact ids
CContactIdArray* idArray = CContactIdArray::NewLC();
TInt err(KErrNone);
const TInt KContactIdIdx(iMatchSelectStmnt->ParameterIndex(KCommAddrContactId() ) );
while ((err = stmnt.Next() ) == KSqlAtRow)
{
idArray->AddL(stmnt.ColumnInt(KContactIdIdx) );
}
// leave if we didn't complete going through the results properly
if(err != KSqlAtEnd)
{
User::Leave(err);
}
CleanupStack::Pop(idArray);
CleanupStack::PopAndDestroy(&stmnt);
return idArray;
}
/**
* Method to read the IsEnabled flag from plugin Id table
* @param aPluginID The ID of the plugin
* @param aFlag [out] The flag that indicates the plugin id is enables or disabled
*/
void CSmfCredMgrDbUser::readFlagInPluginIdTable(const TDesC& aPluginID,
TInt& aFlag)
{
TInt err(KErrNone);
RSqlStatement sqlReadStatement;
TInt paramIndex(KErrNone);
err = sqlReadStatement.Prepare(iDataBase, KSmfDbReadFlagInPluginTable);
__ASSERT_DEBUG( (err >= KErrNone), User::Invariant());
paramIndex = sqlReadStatement.ParameterIndex(_L(":iID"));
err = sqlReadStatement.BindText(paramIndex, aPluginID);
__ASSERT_DEBUG( (err >= KErrNone), User::Invariant());
while ((err = sqlReadStatement.Next()) == KSqlAtRow)
{
//sometimes sqlStmt.Next returns KSqlAtRow even if no row is present
if (!sqlReadStatement.IsNull(0))
{
aFlag = sqlReadStatement.ColumnInt(0);
}
}
sqlReadStatement.Close();
}
/**
* Method to fetch Authentication app ID from RegTokenValidityTable
* giving the reg token
* @param aRegToken The Registration token of the authentication app
* @param aAuthAppId [out] The ID of the Authentication app
*/
void CSmfCredMgrDbUser::readAuthAppIdInRegTokenTable(const TDesC& aRegToken,
TDes& aAuthAppId)
{
TInt err(KErrNone);
RSqlStatement sqlReadStatement;
TInt paramIndex(KErrNone);
TInt64 duration;
TBuf<KMaxBufSize> tokenBuf(aRegToken);
err = sqlReadStatement.Prepare(iDataBase,
KSmfDbReadAuthAppIdInRegTokenTable);
__ASSERT_DEBUG( (err >= KErrNone), User::Invariant());
paramIndex = sqlReadStatement.ParameterIndex(_L(":iID"));
err = sqlReadStatement.BindText(paramIndex, tokenBuf);
__ASSERT_DEBUG( (err >= KErrNone), User::Invariant());
while ((err = sqlReadStatement.Next()) == KSqlAtRow)
{
//sometimes sqlStmt.Next returns KSqlAtRow even if no row is present
if (!sqlReadStatement.IsNull(0))
{
duration = sqlReadStatement.ColumnInt(1);
if (duration) //to be checked with epoch date-time
{
sqlReadStatement.ColumnText(0, aAuthAppId);
}
}
else
{
__ASSERT_DEBUG( 0, User::Invariant());
}
}
sqlReadStatement.Close();
}
/**
GetListForItemL has a dual nature. If aIsGroup is ETrue, a list of contact items belonging to
specified group is returned. Otherwise a list of group ids to which contact id belongs is returned.
@param aItemId contact item id
@param aIsGroup ETrue if the method will fill a group.
*/
CContactIdArray* CPplGroupsTable::GetListForItemL(TContactItemId aItemId, TBool aIsGroup)
{
/*
// Check if group membership information was not requested or if the item
// is not derived from CContactItemPlusGroup.
if (!(aType == KUidContactGroup || aType == KUidContactCard ||
aType == KUidContactOwnCard || aType == KUidContactICCEntry) )
{
return NULL;
}
*/
// build the RSqlStatement
RSqlStatement stmnt;
CleanupClosePushL(stmnt);
TInt idIndex;
// build the CCntSqlStatement statement
const TInt KWhereParamIndex(KFirstIndex); // only one parameter in the query
if (aIsGroup)
{
// group -> select members
stmnt.PrepareL(iDatabase, iSelectMembersStmnt->SqlStringL() );
User::LeaveIfError(stmnt.BindInt(KWhereParamIndex, aItemId ) );
idIndex = stmnt.ColumnIndex(KGroupContactGroupMemberId() );
}
else
{
// member -> select groups
stmnt.PrepareL(iDatabase, iSelectGroupsStmnt->SqlStringL() );
User::LeaveIfError(stmnt.BindInt(KWhereParamIndex, aItemId ) );
idIndex = stmnt.ColumnIndex(KGroupContactGroupId() );
}
User::LeaveIfError(idIndex);
// fetch the list of any matching ids
CContactIdArray* items = CContactIdArray::NewLC();
TInt err(KErrNone);
while ((err = stmnt.Next() ) == KSqlAtRow)
{
items->AddL(stmnt.ColumnInt(idIndex) );
}
// leave if we didn't complete going through the results properly
if(err != KSqlAtEnd)
{
User::Leave(err);
}
CleanupStack::Pop(items);
CleanupStack::PopAndDestroy(&stmnt);
return items;
}
// -----------------------------------------------------------------------------
// CUpnpSecurityDbConnection::GetAllIpAddressesL
// Get all ips.
// -----------------------------------------------------------------------------
//
void CUpnpSecurityDbConnection::GetAllIpAddressesL(
RArray<TInetAddr>& aAddressArray )
{
TInt err;
RSqlStatement statement;
User::LeaveIfError( statement.Prepare( iDatabase,
KUpnpSecSqlSelectAllIpAddresses ) );
CleanupClosePushL( statement );
TInt columnIndex = statement.ColumnIndex( KUpnpSecSqlIp );
while ( (err = statement.Next()) == KSqlAtRow )
{
TUint32 data = statement.ColumnInt( columnIndex );
aAddressArray.AppendL( TInetAddr( data, 0 ) );
}
if ( err != KSqlAtEnd )
{
User::LeaveIfError( err );
}
CleanupStack::PopAndDestroy( &statement );
}
/**
* Method to fetch the list of plugin ids associated with Authentication App id,
* it is called internally by fetchPluginList().
* @param aAuthAppId ID of the Authentication app
* @param aArray [out] The array to be updated with plugin ids
*/
void CSmfCredMgrDbUser::readPluginIdL(const TDesC& aAuthAppId, RPointerArray<
HBufC>& aArray)
{
TInt err(KErrNone);
RSqlStatement sqlReadStatement;
TInt paramIndex(KErrNone);
TInt flag;
err = sqlReadStatement.Prepare(iDataBase, KSmfDbReadPluginID);
__ASSERT_DEBUG( (err >= KErrNone), User::Invariant());
paramIndex = sqlReadStatement.ParameterIndex(_L(":iID"));
err = sqlReadStatement.BindText(paramIndex, aAuthAppId);
__ASSERT_DEBUG( (err >= KErrNone), User::Invariant());
while ((err = sqlReadStatement.Next()) == KSqlAtRow)
{
//sometimes sqlStmt.Next returns KSqlAtRow even if no row is present
if (!sqlReadStatement.IsNull(0))
{
flag = sqlReadStatement.ColumnInt(1);
if (flag > 0)
{
TBuf<KMaxBufSize> pluginbuf;
HBufC* buf = HBufC::NewL(KMaxBufSize);
sqlReadStatement.ColumnText(0, pluginbuf);
buf->Des().Copy(pluginbuf);
aArray.Append(buf);
}
}
else
{
__ASSERT_DEBUG( 0, User::Invariant());
}
}
sqlReadStatement.Close();
}
/**
@SYMTestCaseID SYSLIB-SQL-CT-1613
@SYMTestCaseDesc Multiple connections to the same database from different threads.
Each thread inserts set of record to the same table. Verify that all expected records
and their column values meet the expectations.
@SYMTestPriority High
@SYMTestActions Testing SQL engine behaviour when having mutiple connections to the same database
from different threads.
@SYMTestExpectedResults Test must not fail
@SYMREQ REQ5792
REQ5793
*/
void TestMultiConnDiffThread()
{
//Create a test database
RDebug::Print(_L("+++:MainThread: Create test database\r\n"));
RSqlDatabase db;
TInt err = db.Create(KTestDbName1);
TEST2(err, KErrNone);
//Create a test table
RDebug::Print(_L("+++:MainThread: Create a table in the test database\r\n"));
_LIT8(KCreateSql, "CREATE TABLE A(Id INTEGER PRIMARY KEY)");
err = db.Exec(KCreateSql);
TEST(err >= 0);
const TInt KThreadCnt = 4;
const TInt KRange = 100;
const TInt KIsolationLevelCnt = 2;
TPtrC KIsolationLevelName[KIsolationLevelCnt] = {_L("Read Uncommitted"), _L("Serializable")};
const RSqlDatabase::TIsolationLevel KIsolationLevels[KIsolationLevelCnt] = {
RSqlDatabase::EReadUncommitted, RSqlDatabase::ESerializable};
const TInt KTransTypeCnt = 2;
//Do the tests:
// - doing each per thread database operation in a single transaction;
// - doing all per thread database operations in a single transaction;
for(TInt transType=0;transType<KTransTypeCnt;++transType)
{
//For both supported isolation levels: read uncommitted and serializable
for(TInt isolLevel=0;isolLevel<KIsolationLevelCnt;++isolLevel)
{
TInt low = 1;
TInt high = KRange;
RDebug::Print(_L("+++:MainThread: Test: thread count %d, records %d, trans type %d, isolation level: %S\r\n"),
KThreadCnt, KRange, transType, &KIsolationLevelName[isolLevel]);
RThread thread[KThreadCnt];
TRequestStatus status[KThreadCnt];
TThreadData data[KThreadCnt];
//Create the test threads and run them. Each thread establishes a connection with the test database
//and attempts to write set of records in the test table.
TInt j;
for(j=0;j<KThreadCnt;++j,low=high+1,high+=KRange)
{
data[j].iTransType = transType;
data[j].iIsolationLevel = KIsolationLevels[isolLevel];
data[j].iLowRecNo = low;
data[j].iHighRecNo = high;
_LIT(KThreadName,"Thr-");
TBuf<32> threadName(KThreadName);
threadName.AppendNum((TInt64)j + 1);
TEST2(thread[j].Create(threadName, &ThreadFunc, 0x2000, 0x1000, 0x10000, (void*)&data[j], EOwnerThread), KErrNone);
thread[j].Logon(status[j]);
TEST2(status[j].Int(), KRequestPending);
thread[j].Resume();
}
User::After(2000000);
//Wait until threads finish the database operations and close them.
for(j=0;j<KThreadCnt;++j)
{
User::WaitForRequest(status[j]);
TEST(thread[j].ExitType() != EExitPanic);
thread[j].Close();
}
//Check that all records which are esupposed to be in the database, are there.
RDebug::Print(_L("+++:MainThread: Check that all records have been written\r\n"));
_LIT8(KSelectSql1, "SELECT COUNT(*) FROM A;");
RSqlStatement stmt;
err = stmt.Prepare(db, KSelectSql1);
TEST2(err, KErrNone);
err = stmt.Next();
TEST2(err, KSqlAtRow);
TInt cnt = stmt.ColumnInt(0);
TEST2(cnt, KThreadCnt * KRange);
stmt.Close();
//Check that all records have expected column values.
RDebug::Print(_L("+++:MainThread: Check that all records have expected column values\r\n"));
_LIT8(KSelectSql2, "SELECT * FROM A;");
err = stmt.Prepare(db, KSelectSql2);
TEST2(err, KErrNone);
for(TInt k=0;k<(KThreadCnt*KRange);++k)
{
err = stmt.Next();
TEST2(err, KSqlAtRow);
TInt val = stmt.ColumnInt(0);
TEST(val > 0 && val <= (KThreadCnt * KRange));
}
stmt.Close();
//Prepare for the next test run - delete all records.
RDebug::Print(_L("+++:MainThread: Delete all records\r\n"));
_LIT8(KDeleteSql, "DELETE FROM A");
err = db.Exec(KDeleteSql);
TEST(err >= 0);
}//end of "for(TInt isolLevel=0;isolLevel<KIsolationLevelCnt;++isolLevel)"
}//end of "for(TInt transType=0;transType<KTransTypeCnt;++transType)"
db.Close();
RDebug::Print(_L("+++:MainThread: Delete the test database\r\n"));
(void)RSqlDatabase::Delete(KTestDbName1);
}
/**
@SYMTestCaseID SYSLIB-SQL-CT-1612
@SYMTestCaseDesc Two connections to the same database in the same thread. Create a test database
and insert some records from both connections. Verify that all records were inserted
successfully.
@SYMTestPriority High
@SYMTestActions Testing SQL engine behaviour when having mutiple connections to the same database
in the same thread.
@SYMTestExpectedResults Test must not fail
@SYMREQ REQ5792
REQ5793
*/
void TestMultiConnSameThread()
{
//Connection 1
RSqlDatabase db1;
TInt err = db1.Create(KTestDbName1);
TEST2(err, KErrNone);
//Create test database
RDebug::Print(_L("###Create test database\r\n"));
_LIT8(KCreateSql, "CREATE TABLE A(Id INTEGER PRIMARY KEY AUTOINCREMENT, Data INTEGER)");
err = db1.Exec(KCreateSql);
TEST(err >= 0);
//Connection 2
RSqlDatabase db2;
err = db2.Open(KTestDbName1);
TEST2(err, KErrNone);
//Insert some records using both connections
RDebug::Print(_L("###Insert some records\r\n"));
const TInt KRecNum = 100;
_LIT8(KInsertSql, "INSERT INTO A(Data) VALUES(");
for(TInt i=0;i<KRecNum;++i)
{
TBuf8<100> sql(KInsertSql);
sql.AppendNum((TInt64)i + 1);
sql.Append(_L(");"));
err = (i%2) ? db1.Exec(sql) : db2.Exec(sql);
if(err < 0)
{
TPtrC msg = (i%2) ? db1.LastErrorMessage() : db2.LastErrorMessage();
RDebug::Print(_L("##Db Error msg: \"%S\"\n\r"), &msg);
}
TEST2(err, 1);
}
//Check the database content
RDebug::Print(_L("###Check the database content\r\n"));
_LIT8(KSelectSql, "SELECT * FROM A");
RSqlStatement stmt;
err = stmt.Prepare(db1, KSelectSql);
TEST2(err, KErrNone);
for(TInt j=0;j<KRecNum;++j)
{
err = stmt.Next();
TEST2(err, KSqlAtRow);
TEST(stmt.AtRow());
TInt id = stmt.ColumnInt(0);
TInt data = stmt.ColumnInt(1);
TEST(id == data);
}
stmt.Close();
//Cleanup
db2.Close();
db1.Close();
RDebug::Print(_L("###Delete the test database\r\n"));
(void)RSqlDatabase::Delete(KTestDbName1);
}
/**
@SYMTestCaseID SYSLIB-SQL-CT-1646
@SYMTestCaseDesc Testing database operations on a secure database.
The test application's capabilities allow read/write access to the test secure database.
Verify that any other kind of a database operation will fail with KErrPermissionDenied error.
@SYMTestPriority High
@SYMTestActions Testing database operations on a secure database.
@SYMTestExpectedResults Test must not fail
@SYMREQ REQ5792
REQ5793
*/
void ReadWriteDatabaseTest()
{
RSqlDatabase db;
TInt err = TheDb.Open(KTestDbName);
TEST2(err, KErrNone);
//Attempt to modify the database schema
err = TheDb.Exec(_L("CREATE TABLE C(FFF TEXT)"));
TEST2(err, KErrPermissionDenied);
err = TheDb.Exec(_L("CREATE TEMP TABLE TBL1(COL1 INTEGER, COL2 INTEGER)"));
TEST(err >= 0);
err = TheDb.Exec(_L("CREATE TEMP TRIGGER del1 AFTER DELETE ON TBL1 BEGIN DELETE FROM A; END;"));
TEST(err >= 0);
err = TheDb.Exec(_L("DROP TRIGGER del1"));
TEST(err >= 0);
err = TheDb.Exec(_L("CREATE TEMP VIEW V1 AS SELECT * FROM TBL1"));
TEST(err >= 0);
err = TheDb.Exec(_L("DROP VIEW V1"));
TEST(err >= 0);
err = TheDb.Exec(_L("CREATE INDEX I1 ON TBL1(COL2)"));
TEST(err >= 0);
err = TheDb.Exec(_L("DROP INDEX I1"));
TEST(err >= 0);
err = TheDb.Exec(_L("DROP TABLE TBL1"));
TEST(err >= 0);
err = TheDb.Exec(_L("ANALYZE A"));
TEST2(err, KErrPermissionDenied);
err = TheDb.Exec(_L("CREATE VIEW V2 AS SELECT * FROM A"));
TEST2(err, KErrPermissionDenied);
//Attempt to update the user data (but it includes a READ operation)
err = TheDb.Exec(_L("UPDATE A SET F1 = 11 WHERE F1 = 1"));
TEST(err >= 0);
//Attempt to update the user data (unconditional UPDATE, no READ operations)
err = TheDb.Exec(_L("UPDATE A SET F1 = 11"));
TEST(err >= 0);
//Attempt to delete the user data (but it includes a READ operation)
err = TheDb.Exec(_L("DELETE FROM B WHERE F2 = 2"));
TEST(err >= 0);
//Attempt to delete the user data (unconditional DELETE, no READ operations)
err = TheDb.Exec(_L("DELETE FROM A"));
TEST(err >= 0);
//Restore the deleted table A
err = TheDb.Exec(_L("INSERT INTO A(F1,B1) VALUES(1,x'41414141414141414141');INSERT INTO A(F1,B1) VALUES(2,x'42424242424242424242');INSERT INTO A(F1,B1) VALUES(3,x'43434343434343434343');INSERT INTO A(F1,B1) VALUES(4,x'44444444444444444444');"));
TEST(err >= 0);
//Restore the deleted record in table B
err = TheDb.Exec(_L("INSERT INTO B(F2, F3, B2) VALUES(2, 'ABC', x'45454545454545454545');"));
TEST2(err, 1);
//Attempt to insert new user data
err = TheDb.Exec(_L("INSERT INTO B(F2, F3, B2) VALUES(6, 'GHI', x'47474747474747474747');"));
TEST2(err, 1);
//Attempt to read the user data
RSqlStatement stmt;
err = stmt.Prepare(TheDb, _L("SELECT A.F1 FROM B,A WHERE A.F1 = B.F2"));
TEST2(err, KErrNone);
//ColumnCount() has no capabilities assigned
TInt colCnt = stmt.ColumnCount();
TEST2(colCnt, 1);
//DeclaredColumnType() has no capabilities assigned
TSqlColumnType colType;
err = stmt.DeclaredColumnType(0, colType);
TEST2(err, KErrNone);
TEST2(colType, ESqlInt);
err = stmt.Next();
TEST2(err, KSqlAtRow);
RDebug::Print(_L("Value=%d\r\n"), stmt.ColumnInt(0));
err = stmt.Next();
TEST2(err, KSqlAtRow);
RDebug::Print(_L("Value=%d\r\n"), stmt.ColumnInt(0));
stmt.Close();
//Attempt to read the system data
err = stmt.Prepare(TheDb, _L("SELECT * FROM SQLITE_MASTER"));
TEST2(err, KErrNone);
err = stmt.Next();
TEST2(err, KSqlAtRow);
TPtrC p;
err = stmt.ColumnText(0, p);
TEST2(err, KErrNone);
RDebug::Print(_L("Value=%S\r\n"), &p);
stmt.Close();
NonSecureDbTest();
TheDb.Close();
}
/**
Returns an array of contact item IDs for all the contact items which may contain
the specified telephone number in a telephone, fax or SMS type field.
This is improved version of MatchPhoneNumberL method.
The number is compared starting from the right side of the number and
the method returns an array of candidate matches.
Punctuation (e.g. spaces) and other alphabetic characters are ignored
when comparing. Leading zeros are removed. Digits are compared up to
the lenght of shorter number.
@param aNumber Phone number string.
@return Array of contact IDs which are candidate matches.
*/
CContactIdArray* CPplCommAddrTable::BestMatchingPhoneNumberL(const TDesC& aNumber)
{
const TInt KUpperMaxLength = KMaxPhoneMatchLength - KLowerSevenDigits;
CContactIdArray* phoneMatchArray = CContactIdArray::NewLC();
TMatch phoneDigits = CreatePaddedPhoneDigitsL(aNumber, KLowerSevenDigits, KUpperMaxLength);
if (phoneDigits.iNumLowerDigits + phoneDigits.iNumUpperDigits > 0)
{
// build statement
RSqlStatement stmnt;
CleanupClosePushL(stmnt);
stmnt.PrepareL(iDatabase, iMatchSelectStmnt->SqlStringL());
const TInt KValueParamIndex(KFirstParam); // first parameter in query...
const TInt KTypeParamIndex(KValueParamIndex + 1); // ...and the second.
User::LeaveIfError(stmnt.BindInt(KValueParamIndex,
phoneDigits.iLowerSevenDigits));
User::LeaveIfError(stmnt.BindInt(KTypeParamIndex, EPhoneNumber));
// fetch the list of any matching contact ids
TInt err(KErrNone);
const TInt KContactIdIdx(iMatchSelectStmnt->ParameterIndex( KCommAddrContactId()));
const TInt KExtraValueIdx(iMatchSelectStmnt->ParameterIndex(KCommAddrExtraValue()));
while ((err = stmnt.Next()) == KSqlAtRow)
{
// Check the upper digits...
TInt32 number = phoneDigits.iUpperDigits;
TPtrC extValString = stmnt.ColumnTextL(KExtraValueIdx);
TInt32 storedUpperDigits;
User::LeaveIfError(TLex(extValString).Val(storedUpperDigits));
TInt32 stored = storedUpperDigits;
TBool nonZeroInStoredFound = EFalse;
TBool nonZeroInNumberFound = EFalse;
while ((number != 0) && (stored != 0))
{
nonZeroInNumberFound |= (number % 10 != 0);
nonZeroInStoredFound |= (stored % 10 != 0);
if (nonZeroInStoredFound && nonZeroInNumberFound)
{
break;
}
number /= 10;
stored /= 10;
}
if ( (phoneDigits.iUpperDigits == 0) || (storedUpperDigits == 0) ||
(number == stored) )
{
phoneMatchArray->AddL(stmnt.ColumnInt(KContactIdIdx));
}
}
// leave if we didn't complete going through the results properly
if (err != KSqlAtEnd)
{
User::Leave(err);
}
CleanupStack::PopAndDestroy(&stmnt);
}
CleanupStack::Pop(phoneMatchArray);
return phoneMatchArray;
}
/**
Returns an array of contact item IDs for all the contact items which may contain
the specified telephone number in a telephone, fax or SMS type field.
The comparison method used is not exact. The number is compared starting from
the right side of the number and the method returns an array of candidate
matches. Punctuation (e.g. spaces) and other alphabetic characters are ignored
when comparing.
Additionally, if the Contacts Model Phone Parser (CNTPHONE.DLL) is available,
then any DTMF digits are also excluded from the comparision.
Note that due to the way numbers are stored in the database, it is recommended
that at least 7 match digits are specified even when matching a number
containing fewer digits. Failure to follow this guideline may (depending on the
database contents) mean that the function will not return the expected Contact
IDs.
@param aNumber Phone number string.
@param aMatchLengthFromRight Number of digits from the right of the phone number
to use. Up to 15 digits can be specified, and it is recommended that at least 7
match digits are specified.
@param aDatabase The database.
@return Array of contact IDs which are candidate matches.
*/
CContactIdArray* CPplCommAddrTable::MatchPhoneNumberL(const TDesC& aNumber, const TInt aMatchLengthFromRight)
{
CContactIdArray* phoneMatchArray = CContactIdArray::NewLC();
TInt numLowerDigits = aMatchLengthFromRight;
TInt numUpperDigits = 0;
if(numLowerDigits > KLowerSevenDigits)
{
// New style matching.
numLowerDigits = KLowerSevenDigits;
numUpperDigits = aMatchLengthFromRight - KLowerSevenDigits;
}
TMatch phoneDigits = CreatePaddedPhoneDigitsL(aNumber, numLowerDigits, numUpperDigits);
if (phoneDigits.iNumLowerDigits + phoneDigits.iNumUpperDigits > 0)
{
// build statement
RSqlStatement stmnt;
CleanupClosePushL(stmnt);
stmnt.PrepareL(iDatabase, iMatchSelectStmnt->SqlStringL() );
const TInt KValueParamIndex(KFirstParam); // first parameter in query...
const TInt KTypeParamIndex(KValueParamIndex + 1); // ...and the second.
User::LeaveIfError(stmnt.BindInt(KValueParamIndex, phoneDigits.iLowerSevenDigits ));
User::LeaveIfError(stmnt.BindInt(KTypeParamIndex, EPhoneNumber ));
// fetch the list of any matching contact ids
TInt err(KErrNone);
const TInt KContactIdIdx(iMatchSelectStmnt->ParameterIndex(KCommAddrContactId() ) );
const TInt KExtraValueIdx(iMatchSelectStmnt->ParameterIndex(KCommAddrExtraValue() ) );
while ((err = stmnt.Next() ) == KSqlAtRow)
{
if (aMatchLengthFromRight <= KLowerSevenDigits)
{
// Matching 7 or less digits...we've already matched.
phoneMatchArray->AddL(stmnt.ColumnInt(KContactIdIdx) );
}
else
{
// Check the upper digits...
TInt32 storedUpperDigits(0);
TPtrC extValString = stmnt.ColumnTextL(KExtraValueIdx);
User::LeaveIfError(TLex(extValString).Val(storedUpperDigits) );
const TInt KDigitsToRemove = KMaxPhoneMatchLength - KLowerSevenDigits - phoneDigits.iNumUpperDigits;
for(TInt i = 0; i < KDigitsToRemove; ++i)
{
// repeatedly divide by 10 to lop off the appropriate number of digits from the right
storedUpperDigits /= 10;
}
storedUpperDigits = TMatch::PadOutPhoneMatchNumber(storedUpperDigits, KDigitsToRemove);
if (phoneDigits.iUpperDigits == storedUpperDigits)
{
phoneMatchArray->AddL(stmnt.ColumnInt(KContactIdIdx) );
}
}
}
// leave if we didn't complete going through the results properly
if(err != KSqlAtEnd)
{
User::Leave(err);
}
CleanupStack::PopAndDestroy(&stmnt);
}
CleanupStack::Pop(phoneMatchArray);
return phoneMatchArray;
}
/**
Reads the contact item from the database using the given contact item ID.
@param aItemId The Id number of the contact to be read.
@param aView Specifies the fields to be read.
@param aInfoToRead not used
@param aSessionId The ID of the session that issued the request. This is used
to prevent Phonebook Synchroniser deadlock.
@param aIccOpenCheck Specifies if validation with the Phonebook Synchroniser is
needed for this contact.
@leave KErrArgument if the itemID can't be set within select statement
@leave KErrNotFound if a contact item with aItemId does not exist within contact database
@leave KSqlErrBusy the database file is locked; thrown if RSqlStatement::Next()
returns this error
@leave KErrNoMemory an out of memory condition has occurred - the statement
will be reset;thrown if RSqlStatement::Next() returns this error
@leave KSqlErrGeneral a run-time error has occured - this function must not
be called again;thrown if RSqlStatement::Next() returns this error
@leave KSqlErrMisuse this function has been called after a previous call
returned KSqlAtEnd or KSqlErrGeneral.thrown if RSqlStatement::Next()
returns this error
@leave KSqlErrStmtExpired the SQL statement has expired (if new functions or
collating sequences have been registered or if an
authorizer function has been added or changed);
thrown if RSqlStatement::Next() returns this error
@return CContactItem created from reading the database tables.
*/
CContactItem* CPplContactItemManager::ReadLC(TContactItemId aItemId, const CContactItemViewDef& aView, TInt aInfoToRead, TUint aSessionId, TBool aIccOpenCheck) const
{
CContactTemplate* sysTemplate = NULL;
if (aItemId != KGoldenTemplateId)
{
sysTemplate = const_cast<CContactTemplate*>(&iContactProperties.SystemTemplateL());
}
RSqlStatement selectStmt;
CleanupClosePushL(selectStmt);
User::LeaveIfError(selectStmt.Prepare(iDatabase, iSelectStatement->SqlStringL()));
TInt err = selectStmt.BindInt(KFirstParam, aItemId);
if(err != KErrNone)
{
User::Leave(KErrArgument);
}
CContactItem* item = NULL;
TUid type(KNullUid);
if((err = selectStmt.Next()) == KSqlAtRow)
{
TInt contactId = selectStmt.ColumnInt(iSelectStatement->ParameterIndex(KContactId));
TInt templateId = selectStmt.ColumnInt(iSelectStatement->ParameterIndex(KContactTemplateId));
TInt typeFlags = selectStmt.ColumnInt(iSelectStatement->ParameterIndex(KContactTypeFlags));
type = TCntPersistenceUtility::TypeFlagsToContactTypeUid(typeFlags);
item = CContactItem::NewLC(type);
item->SetId(contactId);
TPtrC guid = selectStmt.ColumnTextL(iSelectStatement->ParameterIndex(KContactGuidString));
item->SetUidStringL(guid);
TInt attr = (typeFlags & EContactAttributes_Mask) >> EContactAttributes_Shift;
item->SetAttributes(attr);
item->SetTemplateRefId(templateId);
item->SetLastModified(TTime(selectStmt.ColumnInt64(iSelectStatement->ParameterIndex(KContactLastModified))));
item->SetCreationDate(TTime(selectStmt.ColumnInt64(iSelectStatement->ParameterIndex(KContactCreationDate))));
item->SetAccessCount(selectStmt.ColumnInt(iSelectStatement->ParameterIndex(KContactAccessCount)));
RArray<TPtrC> fastAccessFields;
CleanupClosePushL(fastAccessFields);
fastAccessFields.AppendL(selectStmt.ColumnTextL(iSelectStatement->ParameterIndex(KContactFirstName)));
fastAccessFields.AppendL(selectStmt.ColumnTextL(iSelectStatement->ParameterIndex(KContactLastName)));
fastAccessFields.AppendL(selectStmt.ColumnTextL(iSelectStatement->ParameterIndex(KContactCompanyName)));
fastAccessFields.AppendL(selectStmt.ColumnTextL(iSelectStatement->ParameterIndex(KContactFirstNamePrn)));
fastAccessFields.AppendL(selectStmt.ColumnTextL(iSelectStatement->ParameterIndex(KContactLastNamePrn)));
fastAccessFields.AppendL(selectStmt.ColumnTextL(iSelectStatement->ParameterIndex(KContactCompanyNamePrn)));
//set first name, last name, company name, first name pronunciation, last name pronunciation, company name pronunciation
for (TInt fieldNum = item->CardFields().Count() - 1; fieldNum>=0; --fieldNum)
{
CContactItemField& textField = (item->CardFields())[fieldNum];
const TInt nameFieldIndex = NameFieldIndex(textField);
// Check if field is first name, last name, company name,
// first name pronunciation, last name pronunciation, company name pronunciation.
if (nameFieldIndex != KErrNotFound)
{
HBufC* text = HBufC::NewLC(fastAccessFields[nameFieldIndex].Size());
text->Des() = fastAccessFields[nameFieldIndex];
textField.TextStorage()->SetText(text);
CleanupStack::PopAndDestroy(text);
}
}
CleanupStack::PopAndDestroy(&fastAccessFields);
}
void CPredictiveSearchSynchronizer::CreatePredSearchTablesL(TBool aAllTables)
{
PRINT1(_L("CPredictiveSearchSynchronizer::CreatePredSearchTablesL all=%d"), aAllTables);
if (aAllTables)
{
i12keyTable.CreateTableL();
iSettingsTable.CreateTableL();
iSettingsTable.StoreCurrentLanguageL();
}
iQwertyTable.CreateTableL();
_LIT(KSelectAllContactsFormat, "SELECT %S,%S,%S FROM %S;");
TInt bufSize = KSelectAllContactsFormat().Length() +
KContactId().Length() +
KContactFirstName().Length() +
KContactLastName().Length() +
KSqlContactTableName().Length();
HBufC* sqlStatement = HBufC::NewLC(bufSize);
sqlStatement->Des().AppendFormat(KSelectAllContactsFormat,
&KContactId,
&KContactFirstName,
&KContactLastName,
&KSqlContactTableName);
RSqlStatement stmnt;
CleanupClosePushL(stmnt);
PRINT1(_L("CreatePredSearchTablesL prepare SQL statement:%S"), sqlStatement);
stmnt.PrepareL(iDatabase, *sqlStatement);
const TInt KContactIdIndex = 0;
const TInt KFirstNameIndex = 1;
const TInt KLastNameIndex = 2;
TInt err(KErrNone);
while ((err = stmnt.Next()) == KSqlAtRow)
{
PRINT(_L("CreatePredSearchTablesL create CContactItem"));
TInt id = KUidContactCardValue;
TUid uid;
uid.iUid = id;
CContactItem* contact = CContactItem::NewLC(uid);
contact->SetId(stmnt.ColumnInt(KContactIdIndex));
// If first name exists, write it to contact item
TPtrC firstName;
if (stmnt.ColumnText(KFirstNameIndex, firstName) == KErrNone)
{
CContactItemField* field =
CContactItemField::NewLC(KStorageTypeText, KUidContactFieldGivenName);
CContactTextField* textfield = field->TextStorage();
textfield->SetTextL(firstName);
contact->AddFieldL(*field); // Takes ownership
CleanupStack::Pop(field);
}
TPtrC lastName;
if (stmnt.ColumnText(KLastNameIndex, lastName) == KErrNone)
{
CContactItemField* field =
CContactItemField::NewLC(KStorageTypeText, KUidContactFieldFamilyName);
CContactTextField* textfield = field->TextStorage();
textfield->SetTextL(lastName);
contact->AddFieldL(*field); // Takes ownership
CleanupStack::Pop(field);
}
PRINT(_L("CreatePredSearchTablesL create entry to tables"));
if (aAllTables)
{
i12keyTable.CreateInDbL(*contact);
}
if (ReadMailAddressesL(*contact))
{
iQwertyTable.CreateInDbL(*contact);
}
CleanupStack::PopAndDestroy(contact);
}
// Leave if we didn't complete going through the results properly
if (err != KSqlAtEnd)
{
PRINT1(_L("CreatePredSearchTablesL SQL err=%d"), err);
User::Leave(err);
}
CleanupStack::PopAndDestroy(&stmnt);
CleanupStack::PopAndDestroy(sqlStatement);
PRINT(_L("CPredictiveSearchSynchronizer::CreatePredSearchTablesL ends"));
}
/**
Persist the items belonging to curent group into group table
@param aGroup referece to a contact group
*/
void CPplGroupsTable::WriteGroupMembersL(const CContactItem& aGroup)
{
if (aGroup.Type() != KUidContactGroup)
{
return;
}
const TContactItemId KGroupId(aGroup.Id() );
// make sure we clear out any previous, out-of-date data
TBool lowDiskErr(EFalse);
DeleteItemL(KGroupId, lowDiskErr);
if (lowDiskErr)
{
User::Leave(KErrDiskFull);
}
// build the RSqlStatement
RSqlStatement stmnt;
CleanupClosePushL(stmnt);
stmnt.PrepareL(iDatabase, iInsertStmnt->SqlStringL() );
const TInt KGroupIdIndex(KFirstIndex); // first parameter in query...
const TInt KMemberIdIndex(KGroupIdIndex + 1); // ...and the second parameter
// copy and sort the member id array so we can see if there are duplicates
const CContactIdArray* contactIdArray = static_cast<const CContactGroup&>(aGroup).ItemsContained(); //does not take the ownership
const TInt arrayCount = contactIdArray->Count();
CArrayFixFlat<TContactItemId>* sortedList = new(ELeave) CArrayFixFlat<TContactItemId>(KArrayGranularity);
CleanupStack::PushL(sortedList);
for(TInt loop = 0;loop < arrayCount; ++loop)
{
sortedList->AppendL((*contactIdArray)[loop]);
}
TKeyArrayFix key(0,ECmpTInt);
sortedList->Sort(key);
// insert the group-member relationships
const TInt KCountStmntParamIndex(KFirstIndex); // first and only parameter in query
const TInt listLen(sortedList->Count() );
TInt lastId(0);
for (TInt i = 0; i < listLen; ++i)
{
TInt itemId((*sortedList)[i]);
//check if a contact item with itemId id really exists in contact database
RSqlStatement countStmnt;
CleanupClosePushL(countStmnt);
countStmnt.PrepareL(iDatabase, iCountContactsStmnt->SqlStringL() );
User::LeaveIfError(countStmnt.BindInt(KCountStmntParamIndex, itemId) );
TInt count = 0;
TInt err = KErrNone;
if((err = countStmnt.Next() ) == KSqlAtRow)
{
count = countStmnt.ColumnInt(iCountContactsStmnt->ParameterIndex(KSqlCount) );
}
else
{
User::LeaveIfError(err);
}
if(count == 0)
{
User::Leave(KErrNotFound);
}
CleanupStack::PopAndDestroy(&countStmnt);
// only insert this if we haven't already seen it
if (itemId != lastId || i == 0)
{
User::LeaveIfError(stmnt.BindInt(KGroupIdIndex, KGroupId) );
User::LeaveIfError(stmnt.BindInt(KMemberIdIndex, itemId) );
User::LeaveIfError(stmnt.Exec() );
User::LeaveIfError(stmnt.Reset() );
}
lastId = itemId;
}
CleanupStack::PopAndDestroy(2, &stmnt); // and sortedList
}
/**
@SYMTestCaseID SYSLIB-SQL-CT-1614
@SYMTestCaseDesc Verifying that when having 2 database connections in different threads, both set
the isolation level to "Read Uncommitted", the reading thread can make "dirty read"
operations (can read the updated but not committed yet record values made by the
writing thread).
@SYMTestPriority High
@SYMTestActions Testing "Read Uncommitted" database isolation level.
@SYMTestExpectedResults Test must not fail
@SYMREQ REQ5792
REQ5793
*/
void TestIsolationLevel()
{
RDebug::Print(_L("+++:MainThread: Create critical sections\r\n"));
TEST2(UpdateThreadCrS.CreateLocal(), KErrNone);
UpdateThreadCrS.Wait();
TEST2(MainThreadCrS.CreateLocal(), KErrNone);
MainThreadCrS.Wait();
RDebug::Print(_L("+++:MainThread: Create test database\r\n"));
RSqlDatabase db;
TInt err = db.Create(KTestDbName1);
TEST2(err, KErrNone);
RDebug::Print(_L("+++:MainThread: Set the isolation level to \"Read uncommitted\"\r\n"));
err = db.SetIsolationLevel(RSqlDatabase::EReadUncommitted);
TEST2(err, KErrNone);
RDebug::Print(_L("+++:MainThread: Create a table in the test database\r\n"));
_LIT8(KCreateSql, "CREATE TABLE A(Id INTEGER)");
err = db.Exec(KCreateSql);
TEST(err >= 0);
RDebug::Print(_L("+++:MainThread: Insert one record in the table\r\n"));
_LIT8(KInsertSql, "INSERT INTO A(Id) VALUES(");
TBuf8<64> sql(KInsertSql);
sql.AppendNum((TInt64)KInitialValue);
sql.Append(_L(")"));
err = db.Exec(sql);
TEST2(err, 1);
RDebug::Print(_L("+++:MainThread: Create the \"update\" thread\r\n"));
_LIT(KThreadName, "UpdTh");
RThread thread;
TEST2(thread.Create(KThreadName, &UpdateThreadFunc, 0x2000, 0x1000, 0x10000, NULL, EOwnerThread), KErrNone);
TRequestStatus status;
thread.Logon(status);
TEST2(status.Int(), KRequestPending);
thread.Resume();
RDebug::Print(_L("+++:MainThread: Wait for record update completion...\r\n"));
MainThreadCrS.Wait();
RDebug::Print(_L("+++:MainThread: Read the record and check the data...\r\n"));
_LIT8(KSelectSql, "SELECT * FROM A");
RSqlStatement stmt;
err = stmt.Prepare(db, KSelectSql);
TEST2(err, KErrNone);
err = stmt.Next();
TEST2(err, KSqlAtRow);
TInt val = stmt.ColumnInt(0);
TEST(val == KUpdatedValue);
stmt.Close();
RDebug::Print(_L("+++:MainThread: Notify the update thread that it can rollback\r\n"));
UpdateThreadCrS.Signal();
RDebug::Print(_L("+++:MainThread: Wait for rollback completion...\r\n"));
MainThreadCrS.Wait();
RDebug::Print(_L("+++:MainThread: Read the record and check the data...\r\n"));
err = stmt.Prepare(db, KSelectSql);
TEST2(err, KErrNone);
err = stmt.Next();
TEST2(err, KSqlAtRow);
val = stmt.ColumnInt(0);
TEST2(val, KInitialValue);
stmt.Close();
User::WaitForRequest(status);
thread.Close();
db.Close();
RDebug::Print(_L("+++:MainThread: Delete the test database\r\n"));
(void)RSqlDatabase::Delete(KTestDbName1);
RDebug::Print(_L("+++:MainThread: Close critical sections\r\n"));
MainThreadCrS.Close();
UpdateThreadCrS.Close();
}
/**
Removes comm addresses from the 3 lists that are already in the database and have been updated.
It takes the 3 lists in as parameters and modifies them accordingly. It also populates the list
of comm address ids that are free to be recycled during updating.
*/
void CPplCommAddrTable::RemoveNonUpdatedAddrsL(RArray<TMatch>& aNewPhones, RArray<TPtrC>& aNewEmails, RArray<TPtrC>& aNewSips,
RArray<TInt>& aFreeCommAddrIds, const TInt aItemId,CPplCommAddrTable::TCommAddrExtraInfoType
aExtraInfoType )
{
// build the RSqlStatement
RSqlStatement stmnt;
CleanupClosePushL(stmnt);
stmnt.PrepareL(iDatabase, iWholeSelectStmnt->SqlStringL() );
const TInt KContactIdParamIndex(KFirstIndex); // first and only parameter in the query
User::LeaveIfError(stmnt.BindInt(KContactIdParamIndex, aItemId) ) ;
// fetch the results from the query and compare them with the new comm_addrs we have
TInt err(KErrNone);
while ((err = stmnt.Next() ) == KSqlAtRow)
{
const TInt KType(stmnt.ColumnInt(iWholeSelectStmnt->ParameterIndex(KCommAddrType() ) ) );
if (KType == EPhoneNumber)
{
TMatch phoneNumber;
TPtrC valString = stmnt.ColumnTextL(iWholeSelectStmnt->ParameterIndex(KCommAddrValue() ) );
TPtrC extValString = stmnt.ColumnTextL(iWholeSelectStmnt->ParameterIndex(KCommAddrExtraValue() ) );
TInt extTypeInfoString = stmnt.ColumnInt(iWholeSelectStmnt->ParameterIndex(KCommAddrExtraTypeInfo() ) );
User::LeaveIfError(TLex(valString).Val(phoneNumber.iLowerSevenDigits) );
User::LeaveIfError(TLex(extValString).Val(phoneNumber.iUpperDigits) );
TInt matchIndex(aNewPhones.Find(phoneNumber, TIdentityRelation<TMatch>(&TMatch::Equals) ) );
// remove any phone numbers from the new list if we already
// have them in the db and they haven't changed...
if (matchIndex != KErrNotFound && (extTypeInfoString == aExtraInfoType))
{
aNewPhones.Remove(matchIndex);
}
// ...and add any spare ids to the recycle list
else
{
aFreeCommAddrIds.AppendL(
stmnt.ColumnInt(iWholeSelectStmnt->ParameterIndex(KCommAddrId() ) ) );
}
}
else // is Email or SIP
{
TPtrC valString = stmnt.ColumnTextL(iWholeSelectStmnt->ParameterIndex(KCommAddrValue() ) );
TInt matchIndex(0);
// remove any email and sip addresses from the new list if
// we already have them in the db and they haven't changed...
if (KType == EEmailAddress)
{
matchIndex = aNewEmails.Find(valString);
if (matchIndex != KErrNotFound)
{
aNewEmails.Remove(matchIndex);
}
}
else // SIP
{
matchIndex = aNewSips.Find(valString);
if (matchIndex != KErrNotFound)
{
aNewSips.Remove(matchIndex);
}
}
// ...and add any spare ids to the recycle list
if (matchIndex == KErrNotFound)
{
aFreeCommAddrIds.AppendL(
stmnt.ColumnInt(iWholeSelectStmnt->ParameterIndex(KCommAddrId() ) ) );
}
}
}
// leave if we didn't complete going through the results properly
if(err != KSqlAtEnd)
{
User::Leave(err);
}
CleanupStack::PopAndDestroy(&stmnt);
}
void CMdSSqLiteConnection::ColumnsL( const RSqlStatement& aStatement, RRowData& aRow )
{
const TInt count( aRow.Size() );
for( TInt i=0; i < count; ++i )
{
// get data in column, check for type
const TSqlColumnType actual = aStatement.ColumnType( i );
if( actual == ESqlNull )
{
aRow.Column( i ).Set( (const HBufC16*)NULL );
continue;
}
const TColumnDataType coltype = aRow.Column( i ).Type();
switch ( coltype )
{
case EColumnBool:
{
TInt valInt = aStatement.ColumnInt( i );
const TBool valBool = valInt ? ETrue : EFalse;
aRow.Column( i ).Set( valBool );
break;
}
case EColumnInt32:
{
TInt32 valInt = aStatement.ColumnInt( i );
aRow.Column( i ).Set( valInt );
break;
}
case EColumnUint32:
{
TInt64 valInt64 = aStatement.ColumnInt64( i );
aRow.Column( i ).Set( (TUint32)valInt64 );
break;
}
case EColumnInt64:
{
TInt64 valInt64 = aStatement.ColumnInt64( i );
aRow.Column( i ).Set( valInt64 );
break;
}
case EColumnReal32:
{
TReal valReal = aStatement.ColumnReal( i );
aRow.Column( i ).Set( static_cast<TReal32>( valReal ) );
break;
}
case EColumnReal64:
{
TReal valReal = aStatement.ColumnReal( i );
aRow.Column( i ).Set( valReal );
break;
}
case EColumnTime:
{
TTime valTime = aStatement.ColumnInt64( i );
aRow.Column( i ).Set( valTime );
break;
}
case EColumnDes16:
{
switch ( actual )
{
case ESqlText:
{
TPtrC16 valTPtrC16 = aStatement.ColumnTextL( i );
HBufC16* valHBuf16 = HBufC16::NewL( valTPtrC16.Length() );
*valHBuf16 = valTPtrC16;
aRow.Column( i ).Set( valHBuf16 );
break;
}
case ESqlInt:
{
HBufC16* valHBuf16int32 = HBufC16::NewL( 30 );
TInt valInt = aStatement.ColumnInt( i );
valHBuf16int32->Des().Num( valInt );
aRow.Column( i ).Set( valHBuf16int32 );
break;
}
case ESqlInt64:
{
HBufC16* valHBuf16int64 = HBufC16::NewL( 30 );
TInt64 valInt64 = aStatement.ColumnInt64( i );
valHBuf16int64->Des().Num( valInt64 );
aRow.Column( i ).Set( valHBuf16int64 );
break;
}
case ESqlReal:
{
HBufC16* valHBuf16real64 = HBufC16::NewL( 40 );
TReal valReal = aStatement.ColumnReal( i );
TRealFormat realFormat;
realFormat.iType |= KAllowThreeDigitExp;
valHBuf16real64->Des().Num( valReal, realFormat );
aRow.Column( i ).Set( valHBuf16real64 );
break;
}
case ESqlNull:
{
aRow.Column( i ).Set( (HBufC16*)NULL );
break;
}
default:
{
#ifdef _DEBUG
User::Panic( _L( "MdSSCCo1" ), KErrCorrupt );
#endif
User::Leave( KErrCorrupt );
}
}
break;
}
case EColumnNotUsed:
// skip this round
break;
default:
#ifdef _DEBUG
User::Panic( _L( "MdSSCCo2" ), KErrCorrupt );
#endif
User::Leave( KErrCorrupt );
}
}
}
