Enhance the base/rom extension to generate the symbol file of the rom built.
The symbol file is placed in epoc32/rom/<baseport_name>, along with the rom log and final oby file.
// Copyright (c) 2006-2009 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:
// e32test\debug\t_cache.cpp
// Overview:
// Performs cache checking in order to ensure it is running correctly.
// Runs automatically or as manual test. (Type "t_cache help" for details.)
// API Information:
// class Cache
// class L2Cache
// Details:
// -Test1 - Displays cache properties.
// -Test2 - Gets thresholds.
// -Test3 - Sets thresholds.
// -Test4 - Compares different memory mappings of data.
// -Test5 - Compares different memory mappings of code.
// -Test6 - Tests Write Back mode.
// -Test7 - Tests cache maintenance functions
// It can also perform more specified tests if run manually:
// - t_cache info Test1 only
// - t_cache data <size_hex> Runs data chunk test (Test 4) with specified chunk size. For example,
// "t_cache data 10000" will run data chunk test against 64KB chunk.
// - t_cache code <size_hex> Runs code chunk test (Test 5) for specified chink size. For example,
// "t_cache code 10000" will run code chunk test against 64KB chunk.
// - t_cache data+<size_hex> Runs data chunk test for specified set of chunk sizes. For example,
// "t_cache data+1000" will perform data chunk test for sizes 4K, 8K,... up to 512K.
// - t_cache code+<size_hex> Runs code chunk test for specified set of sizes. For example,
// "t_cache code+1000" will perform code chunk test for sizes 4K, 8K,... up to 512K.
// - t_cache threshold Diplays thresholds for all caches on the platform.
// - t_cache threshold T P C H Sets new values for cache thresholds:
// - "T" specifies the type of cache to whose threshould are to be chenged:
// 1 for Instruction (or Unified) Cache.
// 2 for Data Cache (for ARMv7 and later, this is Point-of-Coherency threshold.
// 4 for XScale AltData Cache.
// 8 for Point-of-Unification Data Cache Threshold for ARMv7 and later platforms.
// 10 for L2 (L210 or XScale L2 cache)
// - "P" "C" & "H" are hex values for purge, clean & flush thresholds.
// For example: "t_cache 1 10000 10000 10000" sets 64KB for all thresholds in Instruction Cache.
// - t_cache usecase Runs particular use case tests.
// - t_cache help Displays the list of manual commands.
// Platforms/Drives/Compatibility:
// Hardware - ARM only (Manual). Not supported on emulator.
// Assumptions/Requirement/Pre-requisites:
// Failures and causes:
// Base Port information:
// d_cache.mmp to be built from the baseport.
//
//
#include <e32test.h>
#include "d_cache.h"
//------------globals---------------------
LOCAL_D RTest test(_L("T_CACHE"));
_LIT(KPrintCacheInfos,"info");
_LIT(KTestData,"data");
_LIT(KTestCode,"code");
_LIT(KHelp,"help");
_LIT(KThreshold,"threshold");
_LIT(KIncremental,"+");
_LIT(KUseCase,"usecase");
RCacheTestDevice Device;
RCacheTestDevice::TCacheInfo CacheInfo;
TBuf<KCacheDescSize> TempBuff;
const TInt KDefaultDataSize = 0x20000;
const TInt KDefaultCodeSize = 0x804; //2K+4. Should be <= TestCodeFuncSize(). Otherwise, code test won't run against rom image.
const TInt KMaxChunkSize = 0x80000; //512KB Incremental tests limit
const TInt KWriteBackTestSizeSize = 0x4000; // Shouldn't go over cache thresholds (where purge becomes flush).
extern void DataSegmetTestFunct(void* aBase, TInt aSize);
/** Loads & opens LDD.*/
void StartDriver()
{
TInt r = User::LoadLogicalDevice(KCacheTestDriverName);
test( r==KErrNone || r==KErrAlreadyExists);
if((r = Device.Open())!=KErrNone)
{
User::FreeLogicalDevice(KCacheTestDriverName);
test.Printf(_L("Could not open LDD"));
test(0);
}
}
/** Closes and unloads LDD.*/
void StopDriver()
{
Device.Close();
User::FreeLogicalDevice(KCacheTestDriverName);
}
/** Get cache info from device driver. This will update CacheInfo global variable.*/
void GetCacheInfo()
{
TInt r = Device.GetCacheInfo(CacheInfo);
test(r==KErrNone);
}
//---------------------------------------------
//! @SYMTestCaseID MMU-T_CACHE-01
//! @SYMTestType ST
//! @SYMPREQ PREQ305
//! @SYMREQ REQ5795
//! @SYMTestCaseDesc Displays cache properties.
//! @SYMTestExpectedResults KErrNone
//! @SYMTestPriority Low
//! @SYMTestStatus Implemented
//---------------------------------------------
void Test1()
{
TInt i;
test.Printf(_L("General Info:\n"));
TPtr ptr = CacheInfo.iDesc.Expand();
test.Printf(ptr);
test.Printf(_L("CacheCount:%d, MaxCacheSize:%xH, MemoryRemapping:%d, OuterCache:%d\n"),CacheInfo.iCacheCount, CacheInfo.iMaxCacheSize, CacheInfo.iMemoryRemapping, CacheInfo.iOuterCache);
test.Printf(_L("DMAMemoryAlignement:%d\n"),CacheInfo.iDmaBufferAlignment);
test.Printf(_L("Per Level Info:\n"));
test.Printf(_L("Level\tData\tInstr\tSize(b)\tLine(b)\tWays\tSets\tDescription\n"));
for (i = 0; i<CacheInfo.iCacheCount; i++)
{
TempBuff.SetLength(0);
RCacheTestDevice::TCacheSingle& cs = CacheInfo.iCache[i];
TempBuff.Format(_L("%d\t%d\t%d\t%xH\t%xH\t%xH\t%xH\t"), cs.iLevel, cs.iData, cs.iCode, cs.iSize, cs.iLineSize, cs.iWays, cs.iSets);
ptr = cs.iDesc.Expand();
TempBuff.Append(ptr);
TempBuff.Append(_L("\n"));
test.Printf(TempBuff);
}
}
//---------------------------------------------
//! @SYMTestCaseID MMU-T_CACHE-02
//! @SYMTestType ST
//! @SYMPREQ PREQ1068
//! @SYMREQ REQ5909
//! @SYMTestCaseDesc Gets thresholds.
//! @SYMTestActions Fetches Cache Thresholds from the driver.
//! @SYMTestExpectedResults KErrNone
//! @SYMTestPriority High
//! @SYMTestStatus Implemented
//---------------------------------------------
void Test2()
{
RCacheTestDevice::TThresholdInfo info;
test.Printf(_L("Cache: Purge Clear Flush\n"));
info.iCacheType=1;
if (KErrNone == Device.GetThreshold(info))
test.Printf(_L("Instr:%6x %6x %6x\n"),info.iPurge,info.iClean,info.iFlush);
info.iCacheType=2;
if (KErrNone == Device.GetThreshold(info))
test.Printf(_L("Data: %6x %6x %6x\n"),info.iPurge,info.iClean,info.iFlush);
info.iCacheType=4;
if (KErrNone == Device.GetThreshold(info))
test.Printf(_L("AltD: %6x %6x %6x\n"),info.iPurge,info.iClean,info.iFlush);
info.iCacheType=8;
if (KErrNone == Device.GetThreshold(info))
test.Printf(_L("D_IMB:%6x %6x %6x\n"),info.iPurge,info.iClean,info.iFlush);
info.iCacheType=16;
if (KErrNone == Device.GetThreshold(info))
test.Printf(_L("L2: %6x %6x %6x\n"),info.iPurge,info.iClean,info.iFlush);
}
//---------------------------------------------
//! @SYMTestCaseID MMU-T_CACHE-03
//! @SYMTestType ST
//! @SYMPREQ PREQ1068
//! @SYMREQ REQ5909
//! @SYMTestCaseDesc Sets thresholds.
//! @SYMTestActions Sets new values forr Cache Thresholds. Then, sets back the old values.
//! @SYMTestExpectedResults KErrNone
//! @SYMTestPriority High
//! @SYMTestStatus Implemented
//---------------------------------------------
void Test3()
{
TInt i, tested=0;
RCacheTestDevice::TThresholdInfo info[5]; //for 5 types og cache
TInt returned[5];
//Get the old values
for (i=0;i<5;i++)
{
info[i].iCacheType= 1<<i;
returned[i] = Device.GetThreshold(info[i]);
}
//Double them all
for (i=0;i<5;i++)
{
if (returned[i] != KErrNone) continue; //not a valid cache type for running platform
tested++;
info[i].iPurge <<=1;
info[i].iClean <<=1;
info[i].iFlush <<=1;
test(KErrNone==Device.SetThreshold(info[i]));
}
//Put back the old values
for (i=0;i<5;i++)
{
if (returned[i] != KErrNone) continue; //not a valid cache type for running platform
info[i].iPurge >>=1;
info[i].iClean >>=1;
info[i].iFlush >>=1;
test(KErrNone==Device.SetThreshold(info[i]));
}
test.Printf(_L(" ... %d caches present & tested\n"), tested);
}
void DoTest4(RCacheTestDevice::TCacheAttr aCacheAttr, RCacheTestDevice::TChunkTest& aDC, TInt& aTime1, TInt& aTime2)
{
aDC.iCacheAttr = aCacheAttr;
aDC.iShared = EFalse;
test(KErrNone==Device.TestDataChunk(aDC));
aTime1 = aDC.iTime;
aDC.iShared = ETrue;
test(KErrNone==Device.TestDataChunk(aDC));
aTime2 = aDC.iTime;
}
//---------------------------------------------
//! @SYMTestCaseID MMU-T_CACHE-04
//! @SYMTestType ST
//! @SYMPREQ PREQ305
//! @SYMREQ REQ5795
//! @SYMTestCaseDesc Compares different memory mappings of data.
//! @SYMTestActions Runs the same performance test against data in the chunks with different cache attributes.
//! Also, runs the same test against data from user & kernel heaps.
//! @SYMTestExpectedResults KErrNone
//! @SYMTestPriority Low
//! @SYMTestStatus Implemented
//---------------------------------------------
void Test4(TInt aSize)
{
RCacheTestDevice::TChunkTest dC;
dC.iSize = aSize;
dC.iUseCase = 0; //not used
dC.iLoops = 0; //not used
TInt timeNS=0, timeS=0;
test.Printf(_L(" Time\n"));
test.Printf(_L("Mem_Type ActualMapAttr NotShared Shared\n"));
test.Printf(_L("----------------------------------------------\n"));
DoTest4(RCacheTestDevice::E_FullyBlocking, dC, timeNS, timeS);
test.Printf(_L("FullyBlocking %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_Buffered_NC, dC, timeNS, timeS);
test.Printf(_L("Buffered_NC %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_Buffered_C, dC, timeNS, timeS);
test.Printf(_L("Buffered_C %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InnerWT, dC, timeNS, timeS);
test.Printf(_L("InnerWT %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InnerWBRA, dC, timeNS, timeS);
test.Printf(_L("InnerWBRA %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InnerWB, dC, timeNS, timeS);
test.Printf(_L("InnerWB %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
if(CacheInfo.iOuterCache)
{
DoTest4(RCacheTestDevice::E_OuterWT, dC, timeNS, timeS);
test.Printf(_L("OuterWT %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_OuterWBRA, dC, timeNS, timeS);
test.Printf(_L("OuterWBRA %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_OuterWB, dC, timeNS, timeS);
test.Printf(_L("OuterWB %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InOutWT, dC, timeNS, timeS);
test.Printf(_L("InOutWT %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InOutWBRA, dC, timeNS, timeS);
test.Printf(_L("InOutWBRA %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InOutWB, dC, timeNS, timeS);
test.Printf(_L("InOutWB %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
}
DoTest4(RCacheTestDevice::E_StronglyOrder, dC, timeNS, timeS);
test.Printf(_L("StronglyOrder %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_Device, dC, timeNS, timeS);
test.Printf(_L("Device %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_Normal_Uncached, dC, timeNS, timeS);
test.Printf(_L("Normal_Uncached %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_Normal_Cached, dC, timeNS, timeS);
test.Printf(_L("Normal_Cached %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_KernelInternal4, dC, timeNS, timeS);
test.Printf(_L("KernelInternal4 %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_PlatformSpecific5, dC, timeNS, timeS);
test.Printf(_L("PlatSpecific5 %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_PlatformSpecific6, dC, timeNS, timeS);
test.Printf(_L("PlatSpecific6 %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_PlatformSpecific7, dC, timeNS, timeS);
test.Printf(_L("PlatSpecific7 %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
if(CacheInfo.iMemoryRemapping)
{
DoTest4(RCacheTestDevice::E_InnerWT_Remapped, dC, timeNS, timeS);
test.Printf(_L("InnerWT_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InnerWBRA_Remapped, dC, timeNS, timeS);
test.Printf(_L("InnerWBRA_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InnerWB_Remapped, dC, timeNS, timeS);
test.Printf(_L("InnerWB_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
if(CacheInfo.iOuterCache)
{
DoTest4(RCacheTestDevice::E_OuterWT_Remapped, dC, timeNS, timeS);
test.Printf(_L("OuterWT_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_OuterWBRA_Remapped, dC, timeNS, timeS);
test.Printf(_L("OuterWBRA_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_OuterWB_Remapped, dC, timeNS, timeS);
test.Printf(_L("OuterWB_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InOutWT_Remapped, dC, timeNS, timeS);
test.Printf(_L("InOutWT_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InOutWBRA_Remapped, dC, timeNS, timeS);
test.Printf(_L("InOutWBRA_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest4(RCacheTestDevice::E_InOutWB_Remapped, dC, timeNS, timeS);
test.Printf(_L("InOutWB_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
}
}
//Run against kernel heap - allow the test to fail due to OOM
dC.iCacheAttr = RCacheTestDevice::E_Default;
TInt r = Device.TestDataChunk(dC);
if (r==KErrNone) test.Printf(_L("Kernel Heap ---------\t%7d\t-------\n"), dC.iTime);
else if (r==KErrNoMemory) test.Printf(_L("Kernel Heap Cannot allocate memory\n"));
else test(0);//fail
//Run against user heap - allow the test to fail due to OOM
void* buffer = User::Alloc(dC.iSize);
if (buffer == NULL)
{
test.Printf(_L("User Heap Cannot allocate memory\n"));
return;
}
TInt time = User::NTickCount();
DataSegmetTestFunct(buffer , dC.iSize);
time = User::NTickCount() - time;
User::Free(buffer);
test.Printf(_L("User Heap ---------\t%7d\t-------\n"), time);
}
void DoTest5(RCacheTestDevice::TCacheAttr aCacheAttr, RCacheTestDevice::TChunkTest& aDC, TInt& aTime1, TInt& aTime2)
{
aDC.iCacheAttr = aCacheAttr;
aDC.iShared = EFalse;
test(KErrNone==Device.TestCodeChunk(aDC));
aTime1 = aDC.iTime;
aDC.iShared = ETrue;
test(KErrNone==Device.TestCodeChunk(aDC));
aTime2 = aDC.iTime;
}
//---------------------------------------------
//! @SYMTestCaseID MMU-T_CACHE-05
//! @SYMTestType ST
//! @SYMPREQ PREQ305
//! @SYMREQ REQ5795
//! @SYMTestCaseDesc Compares different memory mappings of code.
//! @SYMTestActions Runs the same performance test against code in chunks with different cache attributes.
//! Also, runs the same test against code from rom..
//! @SYMTestExpectedResults KErrNone
//! @SYMTestPriority Low
//! @SYMTestStatus Implemented
//---------------------------------------------
void Test5(TInt aSize)
{
RCacheTestDevice::TChunkTest dC;
dC.iSize = aSize;
dC.iUseCase = 0; //not used
dC.iLoops = 0; //not used
TInt timeNS=0, timeS=0;
test.Printf(_L(" Time\n"));
test.Printf(_L("Mem_Type AttemptedMapAttr NotShared Shared\n"));
test.Printf(_L("----------------------------------------------\n"));
DoTest5(RCacheTestDevice::E_FullyBlocking, dC, timeNS, timeS);
test.Printf(_L("FullyBlocking %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_Buffered_NC, dC, timeNS, timeS);
test.Printf(_L("Buffered_NC %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_Buffered_C, dC, timeNS, timeS);
test.Printf(_L("Buffered_C %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InnerWT, dC, timeNS, timeS);
test.Printf(_L("InnerWT %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InnerWBRA, dC, timeNS, timeS);
test.Printf(_L("InnerWBRA %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InnerWB, dC, timeNS, timeS);
test.Printf(_L("InnerWB %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
if(CacheInfo.iOuterCache)
{
DoTest5(RCacheTestDevice::E_OuterWT, dC, timeNS, timeS);
test.Printf(_L("OuterWT %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_OuterWBRA, dC, timeNS, timeS);
test.Printf(_L("OuterWBRA %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_OuterWB, dC, timeNS, timeS);
test.Printf(_L("OuterWB %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InOutWT, dC, timeNS, timeS);
test.Printf(_L("InOutWT %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InOutWBRA, dC, timeNS, timeS);
test.Printf(_L("InOutWBRA %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InOutWB, dC, timeNS, timeS);
test.Printf(_L("InOutWB %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
}
DoTest5(RCacheTestDevice::E_StronglyOrder, dC, timeNS, timeS);
test.Printf(_L("StronglyOrder %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_Device, dC, timeNS, timeS);
test.Printf(_L("Device %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_Normal_Uncached, dC, timeNS, timeS);
test.Printf(_L("Normal_Uncached %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_Normal_Cached, dC, timeNS, timeS);
test.Printf(_L("Normal_Cached %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
if(CacheInfo.iMemoryRemapping)
{
DoTest5(RCacheTestDevice::E_InnerWT_Remapped, dC, timeNS, timeS);
test.Printf(_L("InnerWT_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InnerWBRA_Remapped, dC, timeNS, timeS);
test.Printf(_L("InnerWBRA_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InnerWB_Remapped, dC, timeNS, timeS);
test.Printf(_L("InnerWB_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
if(CacheInfo.iOuterCache)
{
DoTest5(RCacheTestDevice::E_OuterWT_Remapped, dC, timeNS, timeS);
test.Printf(_L("OuterWT_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_OuterWBRA_Remapped, dC, timeNS, timeS);
test.Printf(_L("OuterWBRA_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_OuterWB_Remapped, dC, timeNS, timeS);
test.Printf(_L("OuterWB_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InOutWT_Remapped, dC, timeNS, timeS);
test.Printf(_L("InOutWT_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InOutWBRA_Remapped, dC, timeNS, timeS);
test.Printf(_L("InOutWBRA_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
DoTest5(RCacheTestDevice::E_InOutWB_Remapped, dC, timeNS, timeS);
test.Printf(_L("InOutWB_Remap %08xH\t%7d\t%7d\n"),dC.iActualMapAttr, timeNS, timeS);
}
}
//Run against kernel heap - allow the test to fail due to OOM
dC.iCacheAttr = RCacheTestDevice::E_Default;
TInt r = Device.TestCodeChunk(dC);
if (r==KErrNone) test.Printf(_L("Run from rom ---------\t%7d\t-------\n"), dC.iTime);
else if (r==KErrNoMemory) test.Printf(_L("Run from rom Cannot allocate memory\n"));
else test(0);//fail
}
//---------------------------------------------
//! @SYMTestCaseID MMU-T_CACHE-06
//! @SYMTestType ST
//! @SYMPREQ PREQ305
//! @SYMREQ REQ5795
//! @SYMTestCaseDesc Tests Write Back mode.
//! @SYMTestActions The driver allocates write back chunk, write data into it and invalidate (aka purge)
// the chunk from the cache. Then, it counts the number of bytes of the chunk that
// reached the physical memory.
//! @SYMTestExpectedResults KErrNone
//! @SYMTestPriority Low
//! @SYMTestStatus Implemented
//---------------------------------------------
void Test6()
{
test.Printf(_L("Test4: Testing WriteBack cache mode...\n"));
RCacheTestDevice::TChunkTest dC;
test.Printf(_L("Cache\tMemType\tChecking\tSize\tBytesInRAM\tVerdict\n"));
test.Printf(_L("-----\t-------\t--------\t----\t----------\t-------\n"));
//
dC.iSize = KWriteBackTestSizeSize;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_InnerWBRA_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_InnerWBRA;
test(Device.TestWriteBackReadAllocate(dC)==KErrNone);
if (dC.iSize<KWriteBackTestSizeSize)test.Printf(_L("Inner\tWBRA\tReadAlloc\t%xH\t%xH\tOK\n"), KWriteBackTestSizeSize, dC.iSize);
else test.Printf(_L("Inner\tWBRA\tReadAlloc\t%xH\t%xH\tWarning: Didn't pass\n"), KWriteBackTestSizeSize, dC.iSize);
//
dC.iSize = KWriteBackTestSizeSize;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_InnerWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_InnerWB;
test(Device.TestWriteBackReadAllocate(dC)==KErrNone);
if (dC.iSize<KWriteBackTestSizeSize)test.Printf(_L("Inner\tWBWA\tReadAlloc\t%xH\t%xH\tOK\n"), KWriteBackTestSizeSize, dC.iSize);
else test.Printf(_L("Inner\tWBWA\tReadAlloc\t%xH\t%xH\tWarning: Didn't pass\n"), KWriteBackTestSizeSize, dC.iSize);
//
dC.iSize = KWriteBackTestSizeSize;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_InnerWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_InnerWB;
test(Device.TestWriteBackWriteAllocate(dC)==KErrNone);
if (dC.iSize<KWriteBackTestSizeSize)test.Printf(_L("Inner\tWBWA\tWriteAlloc\t%xH\t%xH\tOK\n"), KWriteBackTestSizeSize, dC.iSize);
else test.Printf(_L("Inner\tWBWA\tWriteAlloc\t%xH\t%xH\tWarning: Didn't pass\n"), KWriteBackTestSizeSize, dC.iSize);
if(!CacheInfo.iOuterCache) return;
dC.iSize = KWriteBackTestSizeSize;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_OuterWBRA_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_OuterWBRA;
test(Device.TestWriteBackReadAllocate(dC)==KErrNone);
if (dC.iSize<KWriteBackTestSizeSize)test.Printf(_L("Outer\tWBRA\tReadAlloc\t%xH\t%xH\tOK\n"), KWriteBackTestSizeSize, dC.iSize);
else test.Printf(_L("Outer\tWBRA\tReadAlloc\t%xH\t%xH\tWarning: Didn't pass\n"), KWriteBackTestSizeSize, dC.iSize);
//
dC.iSize = KWriteBackTestSizeSize;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_OuterWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_OuterWB;
test(Device.TestWriteBackReadAllocate(dC)==KErrNone);
if (dC.iSize<KWriteBackTestSizeSize)test.Printf(_L("Outer\tWBWA\tReadAlloc\t%xH\t%xH\tOK\n"), KWriteBackTestSizeSize, dC.iSize);
else test.Printf(_L("Outer\tWBWA\tReadAlloc\t%xH\t%xH\tWarning: Didn't pass\n"), KWriteBackTestSizeSize, dC.iSize);
//
dC.iSize = KWriteBackTestSizeSize;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_OuterWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_OuterWB;
test(Device.TestWriteBackWriteAllocate(dC)==KErrNone);
if (dC.iSize<KWriteBackTestSizeSize)test.Printf(_L("Outer\tWBWA\tWriteAlloc\t%xH\t%xH\tOK\n"), KWriteBackTestSizeSize, dC.iSize);
else test.Printf(_L("Outer\tWBWA\tWriteAlloc\t%xH\t%xH\tWarning: Didn't pass\n"), KWriteBackTestSizeSize, dC.iSize);
}
//---------------------------------------------
//! @SYMTestCaseID MMU-T_CACHE-07
//! @SYMTestType UT
//! @SYMPREQ PREQ305
//! @SYMREQ REQ5795
//! @SYMTestCaseDesc Tests Cache Maintanence Functions.
//! @SYMTestActions Does not do any sort of functional test. Just makes sure nothing panics.
//! @SYMTestExpectedResults KErrNone
//! @SYMTestPriority High
//! @SYMTestStatus Implemented
//---------------------------------------------
void Test7()
{
test(KErrNone== Device.TestL2Maintenance());
}
// The main function of automatic test.
void AutoTestL()
{
test.Start(_L("Test1: Display cache attributes:"));
test.Printf(_L("Starting Driver...\n"));
StartDriver();
test.Printf(_L("Getting CacheInfo...\n"));
GetCacheInfo();
Test1();
test.Next(_L("Test2:Thresholds (hex)..."));
Test2();
test.Next(_L("Test3:Setting Cache Thresholds..."));
Test3();
test.Next(_L("Test4: Data chunk test..."));
test.Printf(_L("chunk size=%xH \n"),KDefaultDataSize);
Test4(KDefaultDataSize);
test.Next(_L("Test5: Code chunk test..."));
test.Printf(_L("chunk size=%xH \n"),KDefaultCodeSize);
Test5(KDefaultCodeSize);
test.Next(_L("Test6: Testing WriteBack cache mode..."));
Test6();
test.Next(_L("Test7: Testing L2 cache maintenance..."));
Test7();
StopDriver();
test.End();
}
//////////////////////Manual tests start here///////////////////////////////
// Gets the size of the chunk from the command line
TInt GetSizeFromCommandLine(TBuf<64>& command)
{
TUint arg;
TInt length = command.Length()-5;
if (length <=0)
return KErrArgument;
TPtrC ptr = command.Mid(5,length);
TLex lex(ptr);
lex.Val(arg, EHex);
return arg;
}
/** Invoked by "t_cache info"*/
void ManualCacheInfo()
{
test.Start(_L("Cache Info:"));
StartDriver();
GetCacheInfo();
Test1();
test.Printf(_L("Press any key...\n"));
test.Getch();
StopDriver();
test.End();
return;
}
/** Invoked by "t_cache code threshold [<C> <P> <C> <F>]"*/
TInt ManualThresholds(TBuf<64>& command)
{
TUint arg[4];
TInt argCurrent=0;
TInt argStart = 9; //jump over "threshold"
TInt argEnd;
TChar c;
test.Start(_L("Thresholds:"));
StartDriver();
GetCacheInfo();
// Decode input arguments from the command line
while (argCurrent<4)
{
find_arg_start:
if (argStart >= command.Length()) break;
c = command[argStart];
if (c.IsSpace())
{
argStart++;
goto find_arg_start;
}
argEnd = argStart+1;
find_arg_end:
if (argEnd >= command.Length()) goto get_arg;
c = command[argEnd];
if (c.IsSpace()) goto get_arg;
argEnd++;
goto find_arg_end;
get_arg:
TPtrC ptr = command.Mid(argStart,argEnd-argStart);
TLex lex(ptr);
lex.Val(arg[argCurrent++], EHex);
argStart=argEnd;
}
test.Printf(_L("%d argument(s) decoded\n"),argCurrent);
RCacheTestDevice::TThresholdInfo info;
//If te values are provided in the command line, set thresholds with the given paramaters.
if (argCurrent == 4)
{
test.Printf(_L("Setting thresholds: ...\n"));
test.Printf(_L("Cache Type:%xh P:%xh C:%xh F:%xh\n"),arg[0], arg[1], arg[2], arg[3]);
info.iCacheType=arg[0];
info.iPurge = arg[1];
info.iClean = arg[2];
info.iFlush = arg[3];
TInt r = Device.SetThreshold(info);
test.Printf(_L("... returned %d\n"),r);
}
//Read thresholds from Kernel.
test.Printf(_L("Reading thresholds(hex)...\n"));
Test2();
test.Printf(_L("Press any key...\n"));
test.Getch();
StopDriver();
test.End();
return 0;
}
/** Invoked by "t_cache data <size>"*/
void ManualDataTest(TInt aSize)
{
StartDriver();
GetCacheInfo();
Test4(aSize);
test.Printf(_L("Press any key...\n"));
test.Getch();
StopDriver();
test.End();
}
/** Invoked by "t_cache code <size>"*/
void ManualCodeTest(TInt aSize)
{
StartDriver();
GetCacheInfo();
Test5(aSize);
test.Printf(_L("Press any key...\n"));
test.Getch();
StopDriver();
test.End();
}
void DoUseCase(TInt aUseCase, TInt aMaxSize, TInt aLoops )
{
RCacheTestDevice::TChunkTest dC(aUseCase, 0x1000, aLoops);
TInt time[5];
test.Printf(_L("size(H)\tloops\tNormal/NC\tNormal/WT\tFullyCached\n"));
test.Printf(_L("-------\t-----\t---------\t---------\t-----------\n"));
while (dC.iSize<=aMaxSize)
{
dC.iCacheAttr = RCacheTestDevice::E_Normal_Cached;
test(Device.TestUseCase(dC)==KErrNone);
time[2]=dC.iTime;
if(time[2] < 20)
{dC.iLoops *=2; continue;} //Time too short. Double the loops and try the same chunk size.
dC.iCacheAttr = RCacheTestDevice::E_Normal_Uncached;
test(Device.TestUseCase(dC)==KErrNone);
time[0]=dC.iTime;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_InOutWT_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_InOutWT;
test(Device.TestUseCase(dC)==KErrNone);
time[1]=dC.iTime;
test.Printf(_L("%6xH\t%5d\t%9d\t%9d\t%11d\n"),dC.iSize,dC.iLoops,time[0],time[1],time[2]);
if ((time[2] > 100) && (dC.iLoops >= 8))
dC.iLoops /=2; //Time too long. Half the loops.
dC.iSize+=0x1000; // Next chunk size.
}
}
/** Invoked by "t_cache usecase"*/
void ManualUseCase()
{
test.Start(_L("Use Case manual tests"));
StartDriver();
GetCacheInfo();
test.Printf(_L("\nUseCase: Read From Chunk\n"));
DoUseCase(0,Min(CacheInfo.iMaxCacheSize*4, 0x40000),32);
test.Printf(_L("\nUseCase: Read From Chunk & Read From Heap\n"));
DoUseCase(1,Min(CacheInfo.iMaxCacheSize*4, 0x40000),32);
test.Printf(_L("\nUseCase: Write To Chunk\n"));
DoUseCase(2,Min(CacheInfo.iMaxCacheSize*4, 0x40000),32);
test.Printf(_L("\nUseCase: Write To Chunk & Read From Heap\n"));
DoUseCase(3,Min(CacheInfo.iMaxCacheSize*4, 0x40000),32);
test.Printf(_L("Press any key...\n"));
test.Getch();
StopDriver();
test.End();
}
// Invoked by "t_cache data+<size_hex>"
void ManualDataTestIncremental(TInt aIncrement)
{
TInt time[4];
TInt r = KErrNone;
TInt size = aIncrement;
RCacheTestDevice::TChunkTest dC;
StartDriver();
GetCacheInfo();
test.Printf(_L("Chunk\t\tTime(KernelTicks):\n"));
test.Printf(_L("Size(KB)\tUnCached\tInner\tOuter\tIn&Out\n"));
while(size < KMaxChunkSize)
{
dC.iSize = size;
dC.iCacheAttr = RCacheTestDevice::E_Buffered_C;
r = Device.TestDataChunk(dC);
if (r!=KErrNone) break;
time[0] = dC.iTime;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_InnerWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_InnerWB;
r = Device.TestDataChunk(dC);
if (r!=KErrNone) break;
time[1] = dC.iTime;
if(CacheInfo.iOuterCache)
{
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_OuterWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_OuterWB;
r = Device.TestDataChunk(dC);
if (r!=KErrNone) break;
time[2] = dC.iTime;
dC.iCacheAttr = RCacheTestDevice::E_InOutWB;
r = Device.TestDataChunk(dC);
if (r!=KErrNone) break;
time[3] = dC.iTime;
}
else
{
time[2]= time[3]=0;
}
test.Printf(_L("%d\t%d\t%d\t%d\t%d\n"),size/0x400, time[0],time[1],time[2],time[3]);
size += aIncrement;
}
test.Printf(_L("The test exited with %d\n"), r);
test.Printf(_L("Press any key...\n"));
test.Getch();
StopDriver();
test.End();
}
// Invoked by "t_cache code+<size_hex>"
void ManualCodeTestIncremental(TInt aIncrement)
{
TInt time[4];
TInt r = KErrNone;
TInt size = aIncrement;
RCacheTestDevice::TChunkTest dC;
StartDriver();
GetCacheInfo();
test.Printf(_L("Chunk\t\tTime(KernelTicks):\n"));
test.Printf(_L("Size(KB)\tUnCached\tInner\tOuter\tIn&Out\n"));
while(size < KMaxChunkSize)
{
TempBuff.SetLength(0);
dC.iSize = size;
dC.iCacheAttr = RCacheTestDevice::E_Buffered_C;
r = Device.TestCodeChunk(dC);
if (r!=KErrNone) break;
time[0] = dC.iTime;
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_InnerWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_InnerWB;
r = Device.TestCodeChunk(dC);
if (r!=KErrNone) break;
time[1] = dC.iTime;
if(CacheInfo.iOuterCache)
{
if(CacheInfo.iMemoryRemapping) dC.iCacheAttr = RCacheTestDevice::E_OuterWB_Remapped;
else dC.iCacheAttr = RCacheTestDevice::E_OuterWB;
r = Device.TestCodeChunk(dC);
if (r!=KErrNone) break;
time[2] = dC.iTime;
//
dC.iCacheAttr = RCacheTestDevice::E_InOutWB;
r = Device.TestCodeChunk(dC);
if (r!=KErrNone) break;
time[3] = dC.iTime;
}
else
{
time[2]=time[3] = 0;
}
test.Printf(_L("%d\t%d\t%d\t%d\t%d\n"),size/0x400, time[0],time[1],time[2],time[3]);
size += aIncrement;
}
test.Printf(_L("The test exited with %d\n"), r);
test.Printf(_L("Press any key...\n"));
test.Getch();
StopDriver();
test.End();
}
TInt E32Main()
{
TBuf<64> c;
TInt size;
User::CommandLine(c);
if (c.FindF(KPrintCacheInfos) >= 0) {ManualCacheInfo(); return 0;}
if (c.FindF(KUseCase) >= 0) {ManualUseCase(); return 0;}
if (c.FindF(KThreshold) >= 0) {ManualThresholds(c); return 0;}
if (c.FindF(KTestData) >= 0)
{
test.Start(_L("Data Chunk"));
size = GetSizeFromCommandLine(c);
// Always round up the size to 1K boundary (because of DataSegmetTestFunct)
size +=0x3ff; size &=~0x3ff;
if (c.FindF(KIncremental) >= 0)
{
// Invoked by "t_cache data+<size>"
test.Printf(_L(" size + %xH\n"),size);
if (size<=0)
return KErrArgument;
ManualDataTestIncremental(size);
}
else
{
// Invoked by "t_cache data <size>"
test.Printf(_L("chunk size %xH\n"),size);
if (size<=0)
return KErrArgument;
ManualDataTest(size);
}
return 0;
}
if (c.FindF(KTestCode) >= 0)
{
test.Start(_L("Code Chunk"));
size = GetSizeFromCommandLine(c);
// Always round up the size to 1K boundary
size +=0x3ff; size &=~0x3ff;
if (c.FindF(KIncremental) >= 0)
{
// Invoked by "t_cache code+<size>"
test.Printf(_L(" size + %xH\n"),size);
if (size<=0)
return KErrArgument;
ManualCodeTestIncremental(size);
}
else
{
// Invoked by "t_cache code <size>"
test.Printf(_L("chunk size %xH\n"),size);
if (size<=0)
return KErrArgument;
ManualCodeTest(size);
}
return 0;
}
if (c.FindF(KHelp) >= 0)
{
// Invoked by "t_cache help"
test.Start(_L("t_cache usage:\n"));
test.Printf(_L("t_cache info\n"));
test.Printf(_L("t_cache data <size_hex>\n"));
test.Printf(_L("t_cache code <size_hex>\n"));
test.Printf(_L("t_cache data+<size_hex>\n"));
test.Printf(_L("t_cache code+<size_hex>\n"));
test.Printf(_L("t_cache usecase\n\n"));
test.Printf(_L("t_cache threshold [<cache> <purge> <clean> <flush>]\n\n"));
test.Printf(_L("... where <cache>= 1,2,4,8 or 10\n\n"));
test.Printf(_L("Press any key...\n"));
test.Getch();
test.End();
return 0;
}
// auto test starts here
CTrapCleanup* trap = CTrapCleanup::New();
if (!trap)
return KErrNoMemory;
test.Title();
__UHEAP_MARK;
TRAPD(r,AutoTestL());
__UHEAP_MARKEND;
delete trap;
return r;
}