Convert Kernelhwsrv package from SFL to EPL
kernel\eka\compsupp is subject to the ARM EABI LICENSE
userlibandfileserver\fatfilenameconversionplugins\unicodeTables is subject to the Unicode license
kernel\eka\kernel\zlib is subject to the zlib license
// Copyright (c) 2008-2009 Nokia Corporation and/or its subsidiary(-ies).
// All rights reserved.
// This component and the accompanying materials are made available
// under the terms of the License "Eclipse Public License v1.0"
// which accompanies this distribution, and is available
// at the URL "http://www.eclipse.org/legal/epl-v10.html".
//
// Initial Contributors:
// Nokia Corporation - initial contribution.
//
// Contributors:
//
// Description:
//
#include <e32test.h>
#include <e32des8.h>
#include <hal.h>
LOCAL_D RTest test(_L("T_CP54936.exe"));
_LIT(KName,"CP54936");
const TUid KPluginUid={0x1028703b};
void TestOut(const TDesC16 &des)
{
for (TInt i=0; i<des.Length(); i++)
test.Printf(_L("%04X "), des[i]);
}
void TestOut(const TDesC8 &des)
{
for (TInt i=0; i<des.Length(); i++)
test.Printf(_L("%02X "), des[i]);
}
// Used for supressing warning in OOM tests
#define __UNUSED_VAR(var) var = var
/**
@SYMTestCaseID SYSLIB-FATCHARSETCONV-CT-1778
@SYMTestCaseDesc Tests API behaviours of UnicodeConv class
@SYMTestPriority High
@SYMTestActions Tests for conversions from/to Unicode, using a function pointer
@SYMTestExpectedResults Test must not fail
*/
void Test()
{
test.Next(_L(" @SYMTestCaseID:SYSLIB-FATCHARSETCONV-CT-1778 "));
RLibrary lib;
const TUidType serverUid(KNullUid,KNullUid,KPluginUid);
// load the dll
TInt returnValue = lib.Load(KName,serverUid);
test(returnValue==0);
// get a pointer to the specified ordinal function and call it
TLibraryFunction function1 = lib.Lookup(1);
TLibraryFunction function2 = lib.Lookup(2);
TLibraryFunction function3 = lib.Lookup(3);
//cast the function pointer f to a function of type void with two arguments
typedef void (*TConvertFromUnicodeL)(TDes8&, const TDesC16&);
TConvertFromUnicodeL aConvertFromUnicodeL = reinterpret_cast <TConvertFromUnicodeL> (function1);
typedef void (*TConvertToUnicodeL)(TDes16&, const TDesC8&);
TConvertToUnicodeL aConvertToUnicodeL = reinterpret_cast <TConvertToUnicodeL> (function2);
typedef TBool (*TIsLegalShortNameCharacter)(TUint);
TIsLegalShortNameCharacter aIsLegalShortNameCharacter = reinterpret_cast <TIsLegalShortNameCharacter> (function3);
// from Test Analysis:
// p1: 0x40 -> 0x40
// p2: 0x24 -> 0x24
// p3: 0x706C -> 0xECE1
// p4: 0x4E96 -> 0x8181
// p5: 0x20AC -> 0xA2E3
// p6: 0x3622 -> 0x8230A730, 0x060C -> 0x81318132
// p7: 0x201AD (0xD840 0xDDAD) -> 0x9532AD35
// p10-p15: N/A
// p20-p22: N/A
// p30: 0x32FF -> 0x8139D633
// p31: 0x10500 (0xD801 0xDD00) -> 0x90318330
// 0xFFFF -> 0x8431A439
_LIT16(Uni_1, "\x0040\xD840\x0024\x060C\x706C\x4E96\x20AC\x3622\xD840\xDDAD\x32FF\xD801\xDD00\xDC00\xFFFF");
_LIT8(CP54936_1, "\x40\x5F\x24\x81\x31\x81\x32\xEC\xE1\x81\x81\xA2\xE3\x82\x30\xA7\x30\x95\x32\xAD\x35\x81\x39\xD6\x33\x90\x31\x83\x30\x5F\x84\x31\xA4\x39");
TBuf8<200> foreign1;
TBuf16<200> unicode2;
const TDesC16& unicode1(Uni_1);
test.Printf(_L("source: ")); TestOut(unicode1); test.Printf(_L("\n"));
test.Printf(_L("expect: ")); TestOut(CP54936_1); test.Printf(_L("\n"));
//TRAPD(err, (*aConvertFromUnicodeL)(foreign1, unicode1));
(*aConvertFromUnicodeL)(foreign1, unicode1); //testing conversion from Unicode
test.Printf(_L("result: ")); TestOut(foreign1); test.Printf(_L("\n"));
TInt error = foreign1.Compare(CP54936_1);
test(error==0);
foreign1.Zero();
// from Test Analysis:
// p1: 0x40
// p2: 0x24
// p3: 0x706C <- 0xECE1
// p4: 0x4E96 <- 0x8181
// p5: 0x20AC <- 0xA2E3
// p6: 0x3622 <- 0x8230A730, 0x060C <- 0x81318132
// p7: 0x201AD (0xD840 0xDDAD) <- 0x9532AD35
// p10: //0x0E -> 0xFFFD
// p11: //0xA0 -> 0xFFFD
// p12: 0xA1A0 -> 0xE525
// p13: 0xA07F -> 0xFFFD
// p14: 0x95328230 -> 0x1FFFA (0xD83F 0xDFFA) //0xFFFD
// p15: 0x8130813A -> 0xFFFD
// p20-p22: N/A
// p30-p31: N/A
_LIT16(Uni_2, "\x0040\x0024\x706C\x4E96\x20AC\x3622\x060C\xD840\xDDAD\xE525\xFFFD\xD83F\xDFFA\xFFFD");
_LIT8(CP54936_2, "\x40\x24\xEC\xE1\x81\x81\xA2\xE3\x82\x30\xA7\x30\x81\x31\x81\x32\x95\x32\xAD\x35\xA1\xA0\xA0\x7F\x95\x32\x82\x30\x81\x30\x81\x3A");
const TDesC8& foreign2(CP54936_2);
test.Printf(_L("source: ")); TestOut(foreign2); test.Printf(_L("\n"));
test.Printf(_L("expect: ")); TestOut(Uni_2); test.Printf(_L("\n"));
//TRAP(err, (*aConvertToUnicodeL)(unicode2,foreign2));
(*aConvertToUnicodeL)(unicode2,foreign2);//); //testing conversion to Unicode
test.Printf(_L("result: ")); TestOut(unicode2); test.Printf(_L("\n"));
error = unicode2.Compare(Uni_2);
test(error==0);
unicode2.Zero();
//testing for legal short name character
TInt result = (*aIsLegalShortNameCharacter)(0x005F); //testing for existent character
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x003F); //testing for illegal character
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x2999);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x4E02); //testing for a double byte character
test(result==1);
lib.Close();
}
/**
@SYMTestCaseID SYSLIB-FATCHARSETCONV-CT-1847-0001
@SYMTestCaseDesc Tests API behaviours of UnicodeConv class as part of INC090073
@SYMTestPriority High
@SYMTestActions Tests for correct character conversion on certain chinese characters for CP936
@SYMTestExpectedResults Test must not fail
*/
void TestINC090073()
{
test.Next(_L(" @SYMTestCaseID:SYSLIB-FATCHARSETCONV-CT-1847-0001 "));
_LIT16(unicode, "\x7CCD\x74EF\x8026\x8F8F\x94F3\x7633\x6DFC\x9785\x7F81\x7A37\x61A9\x80B1\x86A3\x89E5\x80F2\x9B48\x9E47\x6C19\x7B71\x946B\x6B46\x6615");
_LIT8(CP932Code, "\xF4\xD9\xEA\xB1\xF1\xEE\xEA\xA3\xEF\xA5\xF1\xAC\xED\xB5\xF7\xB1\xEE\xBF\xF0\xA2\xED\xAC\xEB\xC5\xF2\xBC\xF6\xA1\xEB\xDC\xF7\xCC\xF0\xC2\xEB\xAF\xF3\xE3\xF6\xCE\xEC\xA7\xEA\xBF");
RLibrary lib;
const TUidType serverUid(KNullUid,KNullUid,KPluginUid);
// load the dll
TInt returnValue = lib.Load(KName,serverUid);
test(returnValue==0);
// get a pointer to the specified ordinal function and call it
TLibraryFunction function1 = lib.Lookup(1);
//cast the function pointer f to a function of type void with two arguments
typedef void (*TConvertFromUnicodeL)(TDes8&, const TDesC16&);
TConvertFromUnicodeL aConvertFromUnicodeL = reinterpret_cast <TConvertFromUnicodeL> (function1);
TBuf8<50> foreign1;
foreign1.Zero();
const TDesC16& unicode1(unicode);
TRAPD(err,(*aConvertFromUnicodeL)(foreign1, unicode1)); //testing conversion from Unicode
test(err==0);
TInt error = foreign1.Compare(CP932Code);
test(error==0);
foreign1.Zero();
lib.Close();
}
void OOMTest()
{
test.Next(_L("OOM testing"));
TInt err, tryCount = 0;
do
{
__UHEAP_MARK;
// find out the number of open handles
TInt startProcessHandleCount;
TInt startThreadHandleCount;
RThread().HandleCount(startProcessHandleCount, startThreadHandleCount);
// Setting Heap failure for OOM test
__UHEAP_SETFAIL(RHeap::EDeterministic, ++tryCount);
TRAP(err,Test());
__UHEAP_SETFAIL(RHeap::ENone, 0);
// check that no handles have leaked
TInt endProcessHandleCount;
TInt endThreadHandleCount;
RThread().HandleCount(endProcessHandleCount, endThreadHandleCount);
test(startProcessHandleCount == endProcessHandleCount);
test(startThreadHandleCount == endThreadHandleCount);
__UHEAP_MARKEND;
}while (err == KErrNoMemory);
test(err == KErrNone);
test.Printf(_L("- server succeeded at heap failure rate of %i\n"), tryCount);
}
const TInt MaxCount = 10000; // iteration number for performance tests
// cp54936 should be faster than cp936
_LIT(KName936,"CP936");
const TUid KPluginUid936={0x10206A91};
void PerformanceTest1()
{
test.Next(_L("Performance test 1 (comparing with cp936)"));
RLibrary lib936;
RLibrary lib54936;
const TUidType serverUid936(KNullUid,KNullUid,KPluginUid936);
const TUidType serverUid54936(KNullUid,KNullUid,KPluginUid);
// load the dll
TInt returnValue = lib936.Load(KName936,serverUid936);
test(returnValue==0);
TInt returnValue2 = lib54936.Load(KName,serverUid54936);
test(returnValue2==0);
// get a pointer to the specified ordinal function and call it
TLibraryFunction function9361 = lib936.Lookup(1);
TLibraryFunction function9362 = lib936.Lookup(2);
TLibraryFunction function9363 = lib936.Lookup(3);
TLibraryFunction function549361 = lib54936.Lookup(1);
TLibraryFunction function549362 = lib54936.Lookup(2);
TLibraryFunction function549363 = lib54936.Lookup(3);
//cast the function pointer f to a function of type void with two arguments
typedef void (*TConvertFromUnicodeL)(TDes8&, const TDesC16&);
TConvertFromUnicodeL aConvertFromUnicode936L = reinterpret_cast <TConvertFromUnicodeL> (function9361);
TConvertFromUnicodeL aConvertFromUnicode54936L = reinterpret_cast <TConvertFromUnicodeL> (function549361);
typedef void (*TConvertToUnicodeL)(TDes16&, const TDesC8&);
TConvertToUnicodeL aConvertToUnicode936L = reinterpret_cast <TConvertToUnicodeL> (function9362);
TConvertToUnicodeL aConvertToUnicode54936L = reinterpret_cast <TConvertToUnicodeL> (function549362);
// timer
TInt count;
TChar res2;
TBuf<256> msg;
TInt fastTimerFreq;
HAL::Get(HALData::EFastCounterFrequency, fastTimerFreq);
TReal ticksPerMicroSec = 1.0E-6 * fastTimerFreq;
TUint prevTime;
TUint timeDiff;
TReal64 fsSessionMicroSecs;
_LIT16(Uni_1, "\x0053\x0059\x004D\x3125\x3122\x9673\xFA29");
_LIT8(CP54936_1, "\x53\x59\x4D\xA8\xE5\xA8\xE2\xEA\x90\xFE\x4F");
TBuf8<20> foreign1;
TBuf16<20> unicode2;
const TDesC16& unicode1(Uni_1);
TInt error;
//////////////////////////////////////////////////////////////////////////////
//////////////////////////////////////////////////////////////////////////////
// 1, unicode -> 936
// test result: 1448 ms for 100000 iterations
test.Printf(_L("unicode --> 936:\n"));
test.Printf(_L(" source: ")); TestOut(unicode1); test.Printf(_L("\n"));
test.Printf(_L(" expect: ")); TestOut(CP54936_1); test.Printf(_L("\n"));
prevTime = User::FastCounter();
for (count=0; count<MaxCount; count++)
{
foreign1.Zero();
(*aConvertFromUnicode936L)(foreign1, unicode1);
}
timeDiff = User::FastCounter() - prevTime;
fsSessionMicroSecs = timeDiff / (ticksPerMicroSec);
msg.Format(_L(" %10.2lf us, "), fsSessionMicroSecs);
test.Printf(_L(" result: ")); TestOut(foreign1); test.Printf(_L("\n"));
test.Printf(msg);
error = foreign1.Compare(CP54936_1);
test(error==0);
foreign1.Zero();
test.Printf(_L("\n"));
// 2, unicode -> 54936
// test result: 44 ms for 100000 iterations
test.Printf(_L("unicode --> 54936:\n"));
test.Printf(_L(" source: ")); TestOut(unicode1); test.Printf(_L("\n"));
test.Printf(_L(" expect: ")); TestOut(CP54936_1); test.Printf(_L("\n"));
prevTime = User::FastCounter();
for (count=0; count<MaxCount; count++)
{
foreign1.Zero();
(*aConvertFromUnicode54936L)(foreign1, unicode1);
}
timeDiff = User::FastCounter() - prevTime;
fsSessionMicroSecs = timeDiff / (ticksPerMicroSec);
msg.Format(_L(" %10.2lf us, "), fsSessionMicroSecs);
test.Printf(_L(" result: ")); TestOut(foreign1); test.Printf(_L("\n"));
test.Printf(msg);
error = foreign1.Compare(CP54936_1);
test(error==0);
foreign1.Zero();
test.Printf(_L("\n"));
//////////////////////////////////////////////////////////////////////////////
//////////////////////////////////////////////////////////////////////////////
_LIT16(Uni_2, "\x0032\xFFFD\x7FB1\x0032\xFFFD\x7FB1\x7FB1");
_LIT8(CP54936_2, "\x32\xC1\x7F\xC1\x7E\x32\xC1\x7F\xC1\x7E\xC1\x7E");
const TDesC8& foreign2(CP54936_2);
// 3, 936 -> unicode
// test result: 89 ms for 100000 iterations
test.Printf(_L("936 ---> unicode:\n"));
test.Printf(_L(" source: ")); TestOut(foreign2); test.Printf(_L("\n"));
test.Printf(_L(" expect: ")); TestOut(Uni_2); test.Printf(_L("\n"));
prevTime = User::FastCounter();
for (count=0; count<MaxCount; count++)
{
unicode2.Zero();
(*aConvertToUnicode936L)(unicode2,foreign2);
}
timeDiff = User::FastCounter() - prevTime;
fsSessionMicroSecs = timeDiff / (ticksPerMicroSec);
msg.Format(_L(" %10.2lf us, "), fsSessionMicroSecs);
test.Printf(_L(" result: ")); TestOut(unicode2); test.Printf(_L("\n"));
test.Printf(msg);
error = unicode2.Compare(Uni_2);
test(error==0);
unicode2.Zero();
test.Printf(_L("\n"));
// 4, 54936 -> unicode
// test result: 36 ms for 100000 iterations
test.Printf(_L("54936 ---> unicode:\n"));
test.Printf(_L(" source: ")); TestOut(foreign2); test.Printf(_L("\n"));
test.Printf(_L(" expect: ")); TestOut(Uni_2); test.Printf(_L("\n"));
prevTime = User::FastCounter();
for (count=0; count<MaxCount; count++)
{
unicode2.Zero();
(*aConvertToUnicode54936L)(unicode2,foreign2);
}
timeDiff = User::FastCounter() - prevTime;
fsSessionMicroSecs = timeDiff / (ticksPerMicroSec);
msg.Format(_L(" %10.2lf us, "), fsSessionMicroSecs);
test.Printf(_L(" result: ")); TestOut(unicode2); test.Printf(_L("\n"));
test.Printf(msg);
error = unicode2.Compare(Uni_2);
test(error==0);
unicode2.Zero();
test.Printf(_L("\n"));
lib936.Close();
lib54936.Close();
// test.Printf(_L("Press any key...\n"));
// test.Getch();
}
// performance when converting mixed data.
// just for reference.
// ideally, the test result should be similar to that in PerformanceTest1()
void PerformanceTest2()
{
test.Next(_L("Performance test 2 (reference)"));
RLibrary lib54936;
const TUidType serverUid54936(KNullUid,KNullUid,KPluginUid);
// load the dll
TInt returnValue2 = lib54936.Load(KName,serverUid54936);
test(returnValue2==0);
// get a pointer to the specified ordinal function and call it
TLibraryFunction function549361 = lib54936.Lookup(1);
TLibraryFunction function549362 = lib54936.Lookup(2);
TLibraryFunction function549363 = lib54936.Lookup(3);
//cast the function pointer f to a function of type void with two arguments
typedef void (*TConvertFromUnicodeL)(TDes8&, const TDesC16&);
TConvertFromUnicodeL aConvertFromUnicode54936L = reinterpret_cast <TConvertFromUnicodeL> (function549361);
typedef void (*TConvertToUnicodeL)(TDes16&, const TDesC8&);
TConvertToUnicodeL aConvertToUnicode54936L = reinterpret_cast <TConvertToUnicodeL> (function549362);
// timer
TInt count;
TBuf<256> msg;
TInt fastTimerFreq;
HAL::Get(HALData::EFastCounterFrequency, fastTimerFreq);
TReal ticksPerMicroSec = 1.0E-6 * fastTimerFreq;
TUint prevTime;
TUint timeDiff;
TReal64 fsSessionMicroSecs;
//////////////////////////////////////////////////////////////////////////////
//////////////////////////////////////////////////////////////////////////////
_LIT16(Uni_1, "\x0053\x0059\x004D\x3125\x3122\x9673\xFA29\x060C\xD840\xDC00");
_LIT8(CP54936_1, "\x53\x59\x4D\xA8\xE5\xA8\xE2\xEA\x90\xFE\x4F\x81\x31\x81\x32\x95\x32\x82\x36");
TBuf8<200> foreign1;
TBuf16<200> unicode2;
const TDesC16& unicode1(Uni_1);
TInt error;
// 2, unicode -> 54936
// test result: 130 ms for 100000 iterations (44 ms if one huge table for BMP characters)
test.Printf(_L("unicode --> 54936:\n"));
test.Printf(_L(" source: ")); TestOut(unicode1); test.Printf(_L("\n"));
test.Printf(_L(" expect: ")); TestOut(CP54936_1); test.Printf(_L("\n"));
prevTime = User::FastCounter();
for (count=0; count<MaxCount; count++)
{
foreign1.Zero();
(*aConvertFromUnicode54936L)(foreign1, unicode1);
}
timeDiff = User::FastCounter() - prevTime;
fsSessionMicroSecs = timeDiff / (ticksPerMicroSec);
msg.Format(_L(" %10.2lf us, "), fsSessionMicroSecs);
test.Printf(_L(" result: ")); TestOut(foreign1); test.Printf(_L("\n"));
test.Printf(msg);
error = foreign1.Compare(CP54936_1);
test(error==0);
foreign1.Zero();
test.Printf(_L("\n"));
//////////////////////////////////////////////////////////////////////////////
//////////////////////////////////////////////////////////////////////////////
_LIT16(Uni_2, "\x0032\x20AC\xFFFD\x7FB1\x47BB\xD840\xDC00");
_LIT8(CP54936_2, "\x32\xA2\xE3\xC1\x7F\xC1\x7E\x82\x33\xED\x33\x95\x32\x82\x36");
const TDesC8& foreign2(CP54936_2);
// 4, 54936 -> unicode
// test result: 36 ms for 100000 iterations
test.Printf(_L("54936 ---> unicode:\n"));
test.Printf(_L(" source: ")); TestOut(foreign2); test.Printf(_L("\n"));
test.Printf(_L(" expect: ")); TestOut(Uni_2); test.Printf(_L("\n"));
prevTime = User::FastCounter();
for (count=0; count<MaxCount; count++)
{
unicode2.Zero();
(*aConvertToUnicode54936L)(unicode2,foreign2);
}
timeDiff = User::FastCounter() - prevTime;
fsSessionMicroSecs = timeDiff / (ticksPerMicroSec);
msg.Format(_L(" %10.2lf us, "), fsSessionMicroSecs);
test.Printf(_L(" result: ")); TestOut(unicode2); test.Printf(_L("\n"));
test.Printf(msg);
error = unicode2.Compare(Uni_2);
test(error==0);
unicode2.Zero();
test.Printf(_L("\n"));
lib54936.Close();
// test.Printf(_L("Press any key...\n"));
// test.Getch();
}
/**
@SYMTestCaseID TI18N-FATCHARCONV-CIT-4001
@SYMTestCaseDesc Check GB18030 support
@SYMTestPriority High
@SYMTestActions 1. Get one-byte Unicode codepoint
2. Convert to/from GB18030 to/from Unicode
3. Get two-byte Unicode codepoint
4. Convert to/from GB18030 to/from Unicode
5. Get four-byte Unicode codepoint
6. Convert to/from GB18030 to/from Unicode
@SYMTestExpectedResults No side effect
@SYMREQ REQ12067
*/
LOCAL_C void TestConversion( const TDesC16& aUnicode, const TDesC8& a54936, TBool aZero1=ETrue, TBool aZero2=ETrue )
{
test.Next(_L(" @SYMTestCaseID:SYSLIB-FATCHARSETCONV-CT-1778 "));
RLibrary lib;
const TUidType serverUid(KNullUid,KNullUid,KPluginUid);
// load the dll
TInt returnValue = lib.Load(KName,serverUid);
test(returnValue==0);
// get a pointer to the specified ordinal function and call it
TLibraryFunction function1 = lib.Lookup(1);
TLibraryFunction function2 = lib.Lookup(2);
TLibraryFunction function3 = lib.Lookup(3);
//cast the function pointer f to a function of type void with two arguments
typedef void (*TConvertFromUnicodeL)(TDes8&, const TDesC16&);
TConvertFromUnicodeL aConvertFromUnicodeL = reinterpret_cast <TConvertFromUnicodeL> (function1);
typedef void (*TConvertToUnicodeL)(TDes16&, const TDesC8&);
TConvertToUnicodeL aConvertToUnicodeL = reinterpret_cast <TConvertToUnicodeL> (function2);
// testing conversion from Unicode
TBuf8<200> generated54936;
test.Printf(_L("source: "));
TestOut(aUnicode);
test.Printf(_L("\n"));
test.Printf(_L("expect: "));
TestOut(a54936);
test.Printf(_L("\n"));
(*aConvertFromUnicodeL)(generated54936, aUnicode);
test.Printf(_L("result: "));
TestOut(generated54936);
test.Printf(_L("\n"));
TInt error = generated54936.Compare(a54936);
if ( aZero1 )
{
test(error==0);
}
else
{
test(error!=0);
}
// testing conversion to Unicode
TBuf16<200> generatedUnicode;
test.Printf(_L("source: "));
TestOut(a54936);
test.Printf(_L("\n"));
test.Printf(_L("expect: "));
TestOut(aUnicode);
test.Printf(_L("\n"));
(*aConvertToUnicodeL)(generatedUnicode,a54936);
test.Printf(_L("result: "));
TestOut(generatedUnicode);
test.Printf(_L("\n"));
error = generatedUnicode.Compare(aUnicode);
if ( aZero2 )
{
test(error==0);
}
else
{
test(error!=0);
}
lib.Close();
}
/**
@SYMTestCaseID TI18N-CHARCONV-CT-
@SYMTestCaseDesc Check GB18030 support
@SYMTestPriority High
@SYMTestActions 1. Get one-byte Unicode codepoint
2. Convert to/from GB18030 to/from Unicode
3. Get two-byte Unicode codepoint
4. Convert to/from GB18030 to/from Unicode
5. Get four-byte Unicode codepoint
6. Convert to/from GB18030 to/from Unicode
@SYMTestExpectedResults No side effect
@SYMREQ REQ12067
*/
LOCAL_C void TestGbConversion()
{
// Test() function covers GB 1,2,4 bytes
// one-byte
// border 0x80
_LIT16(Uni_0, "\x0000");
_LIT8(CP54936_0, "\x00");
TestConversion( Uni_0, CP54936_0 );
_LIT16(Uni_1, "\x0079");
_LIT8(CP54936_1, "\x79");
TestConversion( Uni_1, CP54936_1 );
_LIT16(Uni_2, "\x0080");
_LIT8(CP54936_2, "\x81\x30\x81\x30");
TestConversion( Uni_2, CP54936_2 );
_LIT16(Uni_3, "\x0081");
_LIT8(CP54936_3, "\x81\x30\x81\x31");
TestConversion( Uni_3, CP54936_3 );
_LIT16(Uni_4, "\x00fe");
_LIT8(CP54936_4, "\x81\x30\x8B\x36");
TestConversion( Uni_4, CP54936_4 );
_LIT16(Uni_5, "\x00ff");
_LIT8(CP54936_5, "\x81\x30\x8B\x37");
TestConversion( Uni_5, CP54936_5 );
// two-byte
_LIT16(Uni_6, "\x0100");
_LIT8(CP54936_6, "\x81\x30\x8B\x38");
TestConversion( Uni_6, CP54936_6 );
_LIT16(Uni_7, "\x0101");
_LIT8(CP54936_7, "\xA8\xA1");
TestConversion( Uni_7, CP54936_7 );
_LIT16(Uni_8, "\x0ffe");
_LIT8(CP54936_8, "\x81\x33\x83\x38");
TestConversion( Uni_8, CP54936_8 );
_LIT16(Uni_9, "\x0fff");
_LIT8(CP54936_9, "\x81\x33\x83\x39");
TestConversion( Uni_9, CP54936_9 );
_LIT16(Uni_10, "\x1000");
_LIT8(CP54936_10, "\x81\x33\x84\x30");
TestConversion( Uni_10, CP54936_10 );
_LIT16(Uni_11, "\x1001");
_LIT8(CP54936_11, "\x81\x33\x84\x31");
TestConversion( Uni_11, CP54936_11 );
_LIT16(Uni_12, "\xfffe");
_LIT8(CP54936_12, "\x84\x31\xA4\x38");
TestConversion( Uni_12, CP54936_12 );
_LIT16(Uni_13, "\xffff");
_LIT8(CP54936_13, "\x84\x31\xA4\x39");
TestConversion( Uni_13, CP54936_13 );
// four-byte
_LIT16(Uni_14, "\xd840\xdc00");
_LIT8(CP54936_14, "\x95\x32\x82\x36");
TestConversion( Uni_14, CP54936_14 );
_LIT16(Uni_15, "\xd840\xdc01");
_LIT8(CP54936_15, "\x95\x32\x82\x37");
TestConversion( Uni_15, CP54936_15 );
_LIT16(Uni_16, "\xD87F\xdffe");
_LIT8(CP54936_16, "\x9a\x34\x84\x30");
TestConversion( Uni_16, CP54936_16 );
_LIT16(Uni_17, "\xD87F\xdfff");
_LIT8(CP54936_17, "\x9a\x34\x84\x31");
TestConversion( Uni_17, CP54936_17 );
// 4-byte gb
_LIT16(Uni_18, "\xd840\xddad");
_LIT8(CP54936_18, "\x95\x32\xAD\x35");
TestConversion( Uni_18, CP54936_18 );
_LIT16(Uni_19, "\xd801\xdd00");
_LIT8(CP54936_19, "\x90\x31\x83\x30");
TestConversion( Uni_19, CP54936_19 );
}
/**
@SYMTestCaseID TI18N-CHARCONV-CT-
@SYMTestCaseDesc Test FAT short name legal character
@SYMTestPriority High
@SYMTestActions 1. Get one-byte Unicode codepoint
2. Check if it's legal short name character
3. Get two-byte Unicode codepoint
4. Check if it's legal short name character
5. Get four-byte Unicode codepoint
6. Check if it's legal short name character
@SYMTestExpectedResults No side effect
@SYMREQ REQ12067
*/
LOCAL_C void TestShortNameCharacter()
{
test.Next(_L(" @SYMTestCaseID:SYSLIB-FATCHARSETCONV-CT-1778 "));
RLibrary lib;
const TUidType serverUid(KNullUid,KNullUid,KPluginUid);
// load the dll
TInt returnValue = lib.Load(KName,serverUid);
test(returnValue==0);
// get a pointer to the specified ordinal function and call it
TLibraryFunction function1 = lib.Lookup(1);
TLibraryFunction function2 = lib.Lookup(2);
TLibraryFunction function3 = lib.Lookup(3);
typedef TBool (*TIsLegalShortNameCharacter)(TUint);
TIsLegalShortNameCharacter aIsLegalShortNameCharacter = reinterpret_cast <TIsLegalShortNameCharacter> (function3);
// testing for legal short name character
// one-byte unicode
// 0x20 is space
TInt result = (*aIsLegalShortNameCharacter)(0x0019);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x0020);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x0021);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x005F);
test(result==1);
// 0x80 is ascii border
result = (*aIsLegalShortNameCharacter)(0x0079);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x0080);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x0081);
test(result==1);
// testing for illegal character
result = (*aIsLegalShortNameCharacter)(0x003F);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x22);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x2A);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x2B);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x2C);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x2F);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x3A);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x3B);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x3C);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x3D);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x3E);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x5B);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x5C);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x5D);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0x7C);
test(result==0);
// two-byte unicode
result = (*aIsLegalShortNameCharacter)(0x1000);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x1001);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x2999); //testing for non-existent character
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x4E02); //testing for a double byte character
test(result==1);
result = (*aIsLegalShortNameCharacter)(0xfffe);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0xffff);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0xd7ff);
test(result==1);
// surrogate part
result = (*aIsLegalShortNameCharacter)(0xd800);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0xdfff);
test(result==0);
result = (*aIsLegalShortNameCharacter)(0xe000);
test(result==1);
// four-byte unicode
result = (*aIsLegalShortNameCharacter)(0x10000);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x10001);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x10fffe);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x10ffff);
test(result==1);
result = (*aIsLegalShortNameCharacter)(0x110000);
test(result==0);
lib.Close();
}
LOCAL_C void DoE32MainL()
{
__UHEAP_MARK;
TestGbConversion();
TestShortNameCharacter();
Test();
TestINC090073();
OOMTest();
PerformanceTest1();
PerformanceTest2();
__UHEAP_MARKEND;
}
GLDEF_C TInt E32Main()
{
__UHEAP_MARK;
test.Title();
test.Start(_L("CP54936 test..."));
CTrapCleanup* trapCleanup=CTrapCleanup::New();
TRAPD(error, DoE32MainL());
test(error==KErrNone);
delete trapCleanup;
test.End();
test.Close();
__UHEAP_MARKEND;
return error;
}