void SystemSettings::allocationTest() {
auto module = InviwoApplication::getPtr()->getModuleByType<InviwoCore>();
if (!module) return;
auto sysInfo = getTypeFromVector<SystemCapabilities>(module->getCapabilities());
if (sysInfo) {
IntProperty* useRAMPercent =
dynamic_cast<IntProperty*>(getPropertyByIdentifier("useRAMPercent"));
glm::u64 memBytesAlloc = sysInfo->getAvailableMemory(); // In Bytes
LogInfo("Maximum Available Memory is " << formatBytesToString(memBytesAlloc));
memBytesAlloc /= 100; // 1% of total available memory
memBytesAlloc *= useRAMPercent->get(); //?% of total available memory
try {
allocTest_ = new glm::u32[static_cast<glm::u32>(memBytesAlloc / 4)];
LogInfo("Allocated " << formatBytesToString(memBytesAlloc) << ", which is "
<< useRAMPercent->get() << "% of available memory");
delete allocTest_;
} catch (std::bad_alloc&) {
LogError("Failed allocation of " << formatBytesToString(memBytesAlloc) << ", which is "
<< useRAMPercent->get() << "% of available memory");
}
}
}
void TestGetAvailableMemory() {
GameProperties testGame;
testGame = createGame();
testGame->totalMemory = 10;
sput_fail_unless(getAvailableMemory(testGame) == 10,"Getting Memory");
free(testGame);
}
void MainWindow::displayMemoryStatus()
{
QMessageBox msgBox;
msgBox.setText("Διαθέσιμη μνήμη : " + QString::number(round(getAvailableMemory())) + " Megabyte\n" +
"Μνήμη σε χρήση : " + QString::number(round(getUsedMemory())) + " Megabyte \n" +
"Μέγιστη μνήμη : " + QString::number(memoryForMaryServer) + " Megabyte");
msgBox.setIcon( QMessageBox::Information );
msgBox.exec();
}
void sh_memusg(char* params){
int bytes = getBytesAllocated();
int avail = getAvailableMemory();
ttprint("Allocated ");
ttprintInt(bytes);
ttprint(" of ");
ttprintInt(avail);
ttprintln(" bytes");
}
void TestAddMemory() {
GameProperties testGame;
testGame = createGame();
addMemory(100);
sput_fail_unless(getAvailableMemory() == 100,"Adding MEmory");
sput_fail_unless(addMemory(-100) == 0,"Adding Negative Memory");
free(testGame);
}
void CreateGameTest() {
GameProperties testGame;
testGame = getGame(NULL);
sput_fail_unless(getAvailableMemory() == 1000,"Initializing Memory");
//sput_fail_unless(getWave(testGame) == 3,"Initializing WaveNo");
sput_fail_unless(getTotalWaveNo() == 3,"Total Wave Number set to 3 from level file");
sput_fail_unless(getHealth(testGame) == 100,"Initializing Health");
}
void TestUseMemory() {
GameProperties testGame;
testGame = createGame();
testGame->totalMemory = 100;
useMemory(testGame,50);
sput_fail_unless(getAvailableMemory() == 50,"Subtracting Memory");
sput_fail_unless(useMemory(testGame,100) == 0,"Subtracting too much Memory");
free(testGame);
}
void CreateGameTest() {
GameProperties testGame;
testGame = createGame();
sput_fail_if((createGame()) == NULL,"Creating Game");
sput_fail_unless(getAvailableMemory(testGame) == 0,"Initializing Memory");
sput_fail_unless(getWave(testGame) == 0,"Initializing WaveNo");
sput_fail_unless(getHealth(testGame) == 0,"Initializing Health");
free(testGame);
}
void testCheckMem() {
GameProperties testGame;
testGame = getGame(NULL);
setMemory(0);
addMemory(10);
sput_fail_unless(checkMem(10,testGame) == 1,"boundary Testing enough memory");
useMemory(testGame,10);
sput_fail_unless(checkMem(50,testGame) == 0,"Testing not enough memory");
addMemory(100);
sput_fail_unless(checkMem(100,testGame) == 1,"Testing enough memory");
setMemory(0);
test_KillAnEnemy();
sput_fail_unless(getAvailableMemory() > 0, "Valid: More memory available after killing an enemy");
freeAllEnemies();
}
void MainWindow::startMaryServer()
{
double availableMemory;
memoryForMaryServer = 0;
maryServerProcess.close();
availableMemory = getAvailableMemory();
//if there is enough memory available we allocate it to mary server
//otherwise we choose the default allocation
if (availableMemory > MAX_MEMORY_FOR_MARY)
//try to allocate 2Gb for mary server
startMaryServerProcess(MAX_MEMORY_FOR_MARY);
//if process has not started try with 1gb
if (maryServerProcess.pid() == 0)
{
if (availableMemory > NORMAL_MEMORY_FOR_MARY)
//try to allocate 1Gb for mary server
startMaryServerProcess(NORMAL_MEMORY_FOR_MARY);
}
if (maryServerProcess.pid() == 0)
//try to allocate 500mb for mary server
startMaryServerProcess(MIN_MEMORY_FOR_MARY);
//Not necessary anymore
//Openmary.py now waits enough to connect with server
//startNVDA();
//finally if process fails to start we display information
if (maryServerProcess.pid() == 0)
{
memoryForMaryServer = 0;
QMessageBox msgBox;
msgBox.setText( QObject::tr("Emily cannot start.") );
msgBox.setIcon( QMessageBox::Critical );
msgBox.exec();
}
}
void menuStatisticsDebug(uint8_t event)
{
TITLE(STR_MENUDEBUG);
switch(event)
{
case EVT_KEY_LONG(KEY_ENTER):
g_eeGeneral.mAhUsed = 0;
g_eeGeneral.globalTimer = 0;
eeDirty(EE_GENERAL);
sessionTimer = 0;
killEvents(event);
AUDIO_KEYPAD_UP();
break;
case EVT_KEY_FIRST(KEY_ENTER):
#if defined(LUA)
maxLuaInterval = 0;
maxLuaDuration = 0;
#endif
maxMixerDuration = 0;
AUDIO_KEYPAD_UP();
break;
#if defined(DEBUG_TRACE_BUFFER)
case EVT_KEY_FIRST(KEY_UP):
pushMenu(menuTraceBuffer);
return;
#endif
case EVT_KEY_FIRST(KEY_DOWN):
chainMenu(menuStatisticsView);
break;
case EVT_KEY_FIRST(KEY_EXIT):
chainMenu(menuMainView);
break;
}
lcd_putsLeft(MENU_DEBUG_Y_FREE_RAM, "Free Mem");
lcd_outdezAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_FREE_RAM, getAvailableMemory(), LEFT);
lcd_puts(lcdLastPos, MENU_DEBUG_Y_FREE_RAM, "b");
#if defined(LUA)
lcd_putsLeft(MENU_DEBUG_Y_LUA, "Lua scripts");
lcd_putsAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_LUA+1, "[Duration]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_LUA, 10*maxLuaDuration, LEFT);
lcd_putsAtt(lcdLastPos+2, MENU_DEBUG_Y_LUA+1, "[Interval]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_LUA, 10*maxLuaInterval, LEFT);
#endif
lcd_putsLeft(MENU_DEBUG_Y_MIXMAX, STR_TMIXMAXMS);
lcd_outdezAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_MIXMAX, DURATION_MS_PREC2(maxMixerDuration), PREC2|LEFT);
lcd_puts(lcdLastPos, MENU_DEBUG_Y_MIXMAX, "ms");
lcd_putsLeft(MENU_DEBUG_Y_RTOS, STR_FREESTACKMINB);
lcd_putsAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_RTOS+1, "[M]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(0), UNSIGN|LEFT);
lcd_putsAtt(lcdLastPos+2, MENU_DEBUG_Y_RTOS+1, "[X]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(1), UNSIGN|LEFT);
lcd_putsAtt(lcdLastPos+2, MENU_DEBUG_Y_RTOS+1, "[A]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(2), UNSIGN|LEFT);
lcd_putsAtt(lcdLastPos+2, MENU_DEBUG_Y_RTOS+1, "[I]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(255), UNSIGN|LEFT);
lcd_puts(3*FW, 7*FH+1, STR_MENUTORESET);
lcd_status_line();
}
int checkMem(int needed, GameProperties Game) {
if(needed > getAvailableMemory(Game)) {
return 0;
}
return 1;
}
int getTotalMemory() {
return(getAvailableMemory(getGame(NULL)));
}
void menuStatisticsDebug(uint8_t event)
{
TITLE(STR_MENUDEBUG);
switch(event)
{
#if defined(CPUARM)
case EVT_KEY_LONG(KEY_ENTER):
g_eeGeneral.mAhUsed = 0;
g_eeGeneral.globalTimer = 0;
eeDirty(EE_GENERAL);
#if defined(PCBSKY9X)
Current_used = 0;
#endif
sessionTimer = 0;
killEvents(event);
AUDIO_KEYPAD_UP();
break;
#endif
case EVT_KEY_FIRST(KEY_ENTER):
#if !defined(CPUARM)
g_tmr1Latency_min = 0xff;
g_tmr1Latency_max = 0;
#endif
#if defined(LUA)
maxLuaInterval = 0;
maxLuaDuration = 0;
#endif
maxMixerDuration = 0;
AUDIO_KEYPAD_UP();
break;
case EVT_KEY_FIRST(KEY_DOWN):
chainMenu(menuStatisticsView);
return;
case EVT_KEY_FIRST(KEY_EXIT):
chainMenu(menuMainView);
return;
}
#if defined(PCBSKY9X)
if ((ResetReason&RSTC_SR_RSTTYP) == (2<<8)) {
lcd_puts(LCD_W-8*FW, 0*FH, "WATCHDOG");
}
else if (unexpectedShutdown) {
lcd_puts(LCD_W-13*FW, 0*FH, "UNEXP.SHTDOWN");
}
#endif
#if defined(PCBSKY9X) && !defined(REVA)
// current
lcd_putsLeft(MENU_DEBUG_Y_CURRENT, STR_CPU_CURRENT);
putsTelemetryValue(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_CURRENT, getCurrent(), UNIT_MILLIAMPS, LEFT);
uint32_t current_scale = 488 + g_eeGeneral.currentCalib;
lcd_putc(MENU_DEBUG_COL2_OFS, MENU_DEBUG_Y_CURRENT, '>');
putsTelemetryValue(MENU_DEBUG_COL2_OFS+FW+1, MENU_DEBUG_Y_CURRENT, Current_max*10*current_scale/8192, UNIT_RAW, LEFT);
// consumption
lcd_putsLeft(MENU_DEBUG_Y_MAH, STR_CPU_MAH);
putsTelemetryValue(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_MAH, g_eeGeneral.mAhUsed + Current_used*current_scale/8192/36, UNIT_MAH, LEFT|PREC1);
#endif
#if defined(PCBSKY9X)
lcd_putsLeft(MENU_DEBUG_Y_CPU_TEMP, STR_CPU_TEMP);
putsTelemetryValue(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_CPU_TEMP, getTemperature(), UNIT_TEMPERATURE, LEFT);
lcd_putc(MENU_DEBUG_COL2_OFS, MENU_DEBUG_Y_CPU_TEMP, '>');
putsTelemetryValue(MENU_DEBUG_COL2_OFS+FW+1, MENU_DEBUG_Y_CPU_TEMP, maxTemperature+g_eeGeneral.temperatureCalib, UNIT_TEMPERATURE, LEFT);
#endif
#if defined(COPROCESSOR)
lcd_putsLeft(MENU_DEBUG_Y_COPROC, STR_COPROC_TEMP);
if (Coproc_read==0) {
lcd_putsAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_COPROC, PSTR("Co Proc NACK"),INVERS);
}
else if (Coproc_read==0x81) {
lcd_putsAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_COPROC, PSTR("Inst.TinyApp"),INVERS);
}
else if (Coproc_read<3) {
lcd_putsAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_COPROC, PSTR("Upgr.TinyApp"),INVERS);
}
else {
putsTelemetryValue(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_COPROC, Coproc_temp, UNIT_TEMPERATURE, LEFT);
putsTelemetryValue(MENU_DEBUG_COL2_OFS, MENU_DEBUG_Y_COPROC, Coproc_maxtemp, UNIT_TEMPERATURE, LEFT);
}
#endif
#if defined(PCBTARANIS) && !defined(SIMU)
lcd_putsLeft(MENU_DEBUG_Y_FREE_RAM, "Free Mem");
lcd_outdezAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_FREE_RAM, getAvailableMemory(), LEFT);
lcd_puts(lcdLastPos, MENU_DEBUG_Y_FREE_RAM, "b");
#endif
#if defined(LUA)
lcd_putsLeft(MENU_DEBUG_Y_LUA, "Lua scripts");
lcd_putsAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_LUA+1, "[Duration]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_LUA, 10*maxLuaDuration, LEFT);
lcd_putsAtt(lcdLastPos+2, MENU_DEBUG_Y_LUA+1, "[Interval]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_LUA, 10*maxLuaInterval, LEFT);
#endif
#if defined(CPUARM)
lcd_putsLeft(MENU_DEBUG_Y_MIXMAX, STR_TMIXMAXMS);
lcd_outdezAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_MIXMAX, DURATION_MS_PREC2(maxMixerDuration), PREC2|LEFT);
lcd_puts(lcdLastPos, MENU_DEBUG_Y_MIXMAX, "ms");
#endif
#if 0
lcd_putsLeft(MENU_DEBUG_Y_STACK, STR_FREESTACKMINB);
lcd_outdezAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_STACK, stack_free(255), UNSIGN|LEFT);
lcd_puts(lcdLastPos, MENU_DEBUG_Y_STACK, "b");
#endif
#if defined(PCBTARANIS)
lcd_putsLeft(MENU_DEBUG_Y_RTOS, STR_FREESTACKMINB);
lcd_putsAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_RTOS+1, "[Main]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(0), UNSIGN|LEFT);
lcd_putsAtt(lcdLastPos+2, MENU_DEBUG_Y_RTOS+1, "[Mix]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(1), UNSIGN|LEFT);
lcd_putsAtt(lcdLastPos+2, MENU_DEBUG_Y_RTOS+1, "[Audio]", SMLSIZE);
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(2), UNSIGN|LEFT);
#endif
#if defined(PCBSKY9X)
lcd_putsLeft(MENU_DEBUG_Y_RTOS, STR_FREESTACKMINB);
lcd_outdezAtt(MENU_DEBUG_COL1_OFS, MENU_DEBUG_Y_RTOS, stack_free(0), UNSIGN|LEFT);
lcd_puts(lcdLastPos, MENU_DEBUG_Y_RTOS, "/");
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(1), UNSIGN|LEFT);
lcd_puts(lcdLastPos, MENU_DEBUG_Y_RTOS, "/");
lcd_outdezAtt(lcdLastPos, MENU_DEBUG_Y_RTOS, stack_free(2), UNSIGN|LEFT);
#endif
#if !defined(CPUARM)
lcd_putsLeft(1*FH, STR_TMR1LATMAXUS);
lcd_outdez8(MENU_DEBUG_COL1_OFS , 1*FH, g_tmr1Latency_max/2 );
lcd_putsLeft(2*FH, STR_TMR1LATMINUS);
lcd_outdez8(MENU_DEBUG_COL1_OFS , 2*FH, g_tmr1Latency_min/2 );
lcd_putsLeft(3*FH, STR_TMR1JITTERUS);
lcd_outdez8(MENU_DEBUG_COL1_OFS , 3*FH, (g_tmr1Latency_max - g_tmr1Latency_min) /2 );
lcd_putsLeft(4*FH, STR_TMIXMAXMS);
lcd_outdezAtt(MENU_DEBUG_COL1_OFS, 4*FH, DURATION_MS_PREC2(maxMixerDuration), PREC2);
lcd_putsLeft(5*FH, STR_FREESTACKMINB);
lcd_outdezAtt(14*FW, 5*FH, stack_free(), UNSIGN) ;
#endif
lcd_puts(3*FW, 7*FH+1, STR_MENUTORESET);
lcd_status_line();
}