public int sceKernelUnlockLwMutex(int workAreaAddr, int count) {
Memory mem = Processor.memory;
int uid = mem.read32(workAreaAddr);
if (log.isDebugEnabled()) {
log.debug(
"sceKernelUnlockLwMutex (workAreaAddr=0x"
+ Integer.toHexString(workAreaAddr)
+ ", count="
+ count
+ ")");
}
SceKernelLwMutexInfo info = lwMutexMap.get(uid);
if (info == null) {
log.warn("sceKernelUnlockLwMutex unknown uid");
return ERROR_KERNEL_LWMUTEX_NOT_FOUND;
}
if (info.lockedCount == 0) {
log.debug("sceKernelUnlockLwMutex not locked");
return ERROR_KERNEL_LWMUTEX_UNLOCKED;
}
if (info.lockedCount < 0) {
log.warn("sceKernelUnlockLwMutex underflow");
return ERROR_KERNEL_LWMUTEX_UNLOCK_UNDERFLOW;
}
info.lockedCount -= count;
if (info.lockedCount == 0) {
onLwMutexModified(info);
}
return 0;
}
public int sceKernelReferLwMutexStatus(int workAreaAddr, int addr) {
Memory mem = Processor.memory;
int uid = mem.read32(workAreaAddr);
if (log.isDebugEnabled()) {
log.debug(
"sceKernelReferLwMutexStatus (workAreaAddr=0x"
+ Integer.toHexString(workAreaAddr)
+ ", addr=0x"
+ addr
+ ")");
}
SceKernelLwMutexInfo info = lwMutexMap.get(uid);
if (info == null) {
log.warn("sceKernelReferLwMutexStatus unknown UID " + Integer.toHexString(uid));
return ERROR_KERNEL_LWMUTEX_NOT_FOUND;
}
if (!Memory.isAddressGood(addr)) {
log.warn("sceKernelReferLwMutexStatus bad address 0x" + Integer.toHexString(addr));
return -1;
}
info.write(mem, addr);
return 0;
}
@HLEFunction(nid = 0x4C06E472, version = 150)
public int sceGeContinue() {
PspGeList list;
if (ExternalGE.isActive()) {
list = ExternalGE.getCurrentList();
} else {
list = VideoEngine.getInstance().getCurrentList();
}
if (list != null) {
synchronized (this) {
if (list.status == PSP_GE_LIST_END_REACHED) {
Memory mem = Memory.getInstance();
if (mem.read32(list.getPc()) == (GeCommands.FINISH << 24)
&& mem.read32(list.getPc() + 4) == (GeCommands.END << 24)) {
list.readNextInstruction();
list.readNextInstruction();
}
}
list.restartList();
}
}
return 0;
}
public int sceKernelTryLockLwMutex(int workAreaAddr, int count) {
Memory mem = Processor.memory;
int uid = mem.read32(workAreaAddr);
if (log.isDebugEnabled()) {
log.debug("sceKernelTryLockLwMutex redirecting to hleKernelLockLwMutex");
}
return hleKernelLockLwMutex(uid, count, 0, false, false);
}
public int sceKernelLockLwMutexCB(int workAreaAddr, int count, int timeout_addr) {
Memory mem = Processor.memory;
int uid = mem.read32(workAreaAddr);
if (log.isDebugEnabled()) {
log.debug("sceKernelLockLwMutexCB redirecting to hleKernelLockLwMutex");
}
return hleKernelLockLwMutex(uid, count, timeout_addr, true, true);
}
protected int copySamplesToMem(int address) {
Memory mem = Memory.getInstance();
int bytes = me.getCurrentAudioSamples(samplesBuffer);
if (bytes > 0) {
atracEndSample += bytes;
mem.copyToMemory(address, ByteBuffer.wrap(samplesBuffer, 0, bytes), bytes);
}
return bytes / bytesPerSample;
}
public static void init() {
if (!isInitialized) {
List<String> libraries = new LinkedList<String>();
if (NativeCpuInfo.isAvailable()) {
NativeCpuInfo.init();
if (NativeCpuInfo.hasAVX2()) {
libraries.add("software-ge-renderer-AVX2");
}
if (NativeCpuInfo.hasAVX()) {
libraries.add("software-ge-renderer-AVX");
}
if (NativeCpuInfo.hasSSE41()) {
libraries.add("software-ge-renderer-SSE41");
}
if (NativeCpuInfo.hasSSE3()) {
libraries.add("software-ge-renderer-SSE3");
}
if (NativeCpuInfo.hasSSE2()) {
libraries.add("software-ge-renderer-SSE2");
}
}
libraries.add("software-ge-renderer");
boolean libraryExisting = false;
// Search for an available library in preference order
for (String library : libraries) {
if (Utilities.isSystemLibraryExisting(library)) {
libraryExisting = true;
try {
System.loadLibrary(library);
if (Memory.getInstance() instanceof FastMemory) {
memoryInt = ((FastMemory) Memory.getInstance()).getAll();
}
initNative();
log.info(String.format("Loaded %s library", library));
isAvailable = true;
} catch (UnsatisfiedLinkError e) {
log.error(String.format("Could not load external software library %s: %s", library, e));
isAvailable = false;
}
break;
}
}
if (!libraryExisting) {
log.error(String.format("Missing external software library"));
}
isInitialized = true;
}
}
public CaptureRAM(int address, int length) throws IOException {
packetSize = 8 + length;
this.address = address;
this.length = length;
Memory mem = Memory.getInstance();
if (Memory.isAddressGood(address)) {
buffer = mem.getBuffer(address, length);
}
if (buffer == null) {
throw new IOException(
String.format(
"CaptureRAM: Unable to read buffer %08x - %08x", address, address + length));
}
}
public int getAddress(Memory mem, int i) {
if (ptr_index != 0 && index != 0) {
int addr = ptr_index + i * index;
switch (index) {
case 1:
i = mem.read8(addr);
break; // GU_INDEX_8BIT
case 2:
i = mem.read16(addr);
break; // GU_INDEX_16BIT
case 3:
i = mem.read32(addr);
break; // GU_INDEX_UNK3 (assume 32bit)
}
}
return ptr_vertex + i * vertexSize;
}
@Override
public void resolve(Memory mem, int address) {
if (!hasSavedValue) {
savedValue = mem.read32(getImportAddress());
hasSavedValue = true;
}
// Perform a R_MIPS_32 relocation
// Retrieve the current 32bit value
int value = mem.read32(getImportAddress());
// Relocate the value
value += address;
// Write back the relocated 32bit value
mem.write32(getImportAddress(), value);
}
public static Memory getInstance() {
if (instance == null) {
//
// The following memory implementations are available:
// - StandardMemory: low memory requirements, performs address checking, slow
// - SafeFastMemory: high memory requirements, performs address checking, fast
// - FastMemory : high memory requirements, no address checking, very fast
//
// Best choices are currently
// 1) SafeFastMemory (address check is useful when debugging programs)
// 2) StandardMemory when available memory is not sufficient for 1st choice
//
if (useSafeMemory) {
instance = new SafeFastMemory();
} else {
instance = new FastMemory();
}
if (instance != null) {
if (!instance.allocate()) {
instance = null;
}
}
if (instance == null) {
instance = new StandardMemory();
if (!instance.allocate()) {
instance = null;
}
}
if (instance == null) {
throw new OutOfMemoryError("Cannot allocate memory");
}
if (useDebuggerMemory || new File(DebuggerMemory.mBrkFilePath).exists()) {
DebuggerMemory.install();
}
log.debug("Using " + instance.getClass().getName());
}
return instance;
}
public int sceKernelDeleteLwMutex(int workAreaAddr) {
Memory mem = Processor.memory;
int uid = mem.read32(workAreaAddr);
if (log.isDebugEnabled()) {
log.debug("sceKernelDeleteLwMutex (workAreaAddr='" + Integer.toHexString(workAreaAddr) + ")");
}
SceKernelLwMutexInfo info = lwMutexMap.remove(uid);
if (info == null) {
log.warn("sceKernelDeleteLwMutex unknown UID " + Integer.toHexString(uid));
return ERROR_KERNEL_LWMUTEX_NOT_FOUND;
}
mem.write32(workAreaAddr, 0); // Clear uid.
onLwMutexDeleted(uid);
return 0;
}
@Override
public void unresolve(Memory mem) {
if (hasSavedValue) {
mem.write32(getImportAddress(), savedValue);
}
if (sourceModule != null) {
// Add this stub back to the list of unresolved imports from the source module
sourceModule.unresolvedImports.add(this);
}
}
/**
* @return the UID assigned to the module or negative on error TODO need to figure out how the
* uids work when 1 prx contains several modules.
*/
public int LoadFlash0Module(String prxname) {
if (prxname != null) {
List<HLEModule> modules = flash0prxMap.get(prxname.toLowerCase());
if (modules != null) {
for (HLEModule module : modules) {
installModuleWithAnnotations(module, firmwareVersion);
}
}
}
SceModule fakeModule = new SceModule(true);
fakeModule.modname = prxname;
fakeModule.write(Memory.getInstance(), fakeModule.address);
Managers.modules.addModule(fakeModule);
return fakeModule.modid;
}
public void setMemorySize(int memorySize) {
if (MemoryMap.SIZE_RAM != memorySize) {
int previousMemorySize = MemoryMap.SIZE_RAM;
MemoryMap.END_RAM = MemoryMap.START_RAM + memorySize - 1;
MemoryMap.END_USERSPACE = MemoryMap.END_RAM;
MemoryMap.SIZE_RAM = MemoryMap.END_RAM - MemoryMap.START_RAM + 1;
if (!Memory.getInstance().allocate()) {
log.error(
String.format(
"Failed to resize the PSP memory from 0x%X to 0x%X",
previousMemorySize, memorySize));
Emulator.PauseEmuWithStatus(Emulator.EMU_STATUS_MEM_ANY);
}
reset();
}
}
public void commit() {
Memory.getInstance().copyToMemory(address, (ByteBuffer) buffer, length);
}
public int atracDecodeData(int atracID, int address, int channels) {
int samples = 0;
boolean isEnded = false;
if (checkMediaEngineState()) {
if (me.getContainer() == null && atracChannel != null) {
if (requireAllAtracData) {
if (atracChannel.length() >= atracFileSize) {
requireAllAtracData = false;
if (checkMediaEngineState() && ExternalDecoder.isEnabled()) {
String decodedFile =
externalDecoder.decodeAtrac(
atracChannel, atracBufferAddress, atracFileSize, atracHash);
if (decodedFile != null) {
Modules.log.info(
"AT3+ data decoded by the external decoder (all AT3+ data retrieved).");
me.finish();
atracChannel = null;
me.init(new FileProtocolHandler(decodedFile), false, true, 0, 0);
atracEndSample = -1;
} else {
Modules.log.info(
"AT3+ data could not be decoded by the external decoder, even after retrieving all AT3+ data.");
me = null;
}
} else {
Modules.log.info(
"AT3+ data could not be decoded by the external decoder, even after retrieving all AT3+ data.");
me = null;
}
if (me == null) {
return atracDecodeData(atracID, address, channels);
}
} else {
// Fake returning 1 sample with remainFrames == 0
// to force a call to sceAtracAddStreamData.
samples = 1;
Memory.getInstance().memset(address, (byte) 0, samples * bytesPerSample);
}
} else if (atracChannel.length() >= getAtracChannelStartLength()
|| atracChannel.length() >= atracFileSize) {
me.init(atracChannel, false, true, 0, 0);
} else {
// Fake returning 1 sample with remainFrames == 0
// to force a call to sceAtracAddStreamData.
samples = 1;
Memory.getInstance().memset(address, (byte) 0, samples * bytesPerSample);
}
}
setChannels(channels);
if (me.stepAudio(atracMaxSamples * bytesPerSample, channels)) {
samples = copySamplesToMem(address);
}
if (samples == 0) {
isEnded = true;
}
} else if (decodedStream != null) {
try {
int length = decodedStream.read(atracDecodeBuffer);
if (length > 0) {
samples = length / 4;
Memory.getInstance()
.copyToMemory(address, ByteBuffer.wrap(atracDecodeBuffer, 0, length), length);
long restLength = decodedStream.length() - decodedStream.getFilePointer();
if (restLength <= 0) {
isEnded = true;
}
} else {
isEnded = true;
}
} catch (IOException e) {
Modules.log.warn(e);
}
} else {
samples = -1;
isEnded = true;
}
if (isEnded) {
atracEnd = 1;
} else {
atracEnd = 0;
}
return samples;
}
public void atracSetData(
int atracID, int codecType, int address, int length, int atracFileSize, int atracHash) {
this.atracFileSize = atracFileSize;
this.atracBufferAddress = address;
this.atracHash = atracHash;
id = generateID(address, length, atracFileSize);
closeStreams();
atracEndSample = -1;
requireAllAtracData = false;
int memoryCodecType = sceAtrac3plus.getCodecType(address);
if (memoryCodecType != codecType && memoryCodecType != 0) {
Modules.log.info(
String.format(
"Different CodecType received %d != %d, assuming %d",
codecType, memoryCodecType, memoryCodecType));
codecType = memoryCodecType;
}
if (codecType == 0x00001001) {
Modules.log.info("Decodable AT3 data detected.");
if (checkMediaEngineState()) {
me.finish();
atracChannel = new PacketChannel();
atracChannel.setTotalStreamSize(atracFileSize);
atracChannel.setFarRewindAllowed(true);
atracChannel.write(address, length);
// Defer the initialization of the MediaEngine until atracDecodeData()
// to ensure we have enough data into the channel.
atracEndSample = 0;
return;
}
} else if (codecType == 0x00001000) {
if (checkMediaEngineState() && ExternalDecoder.isEnabled()) {
String decodedFile =
externalDecoder.decodeAtrac(address, length, atracFileSize, atracHash, this);
if (decodedFile != null) {
Modules.log.info("AT3+ data decoded by the external decoder.");
me.finish();
atracChannel = null;
me.init(new FileProtocolHandler(decodedFile), false, true, 0, 0);
atracEndSample = -1;
return;
} else if (requireAllAtracData) {
// The external decoder requires all the atrac data
// before it can try to decode the atrac.
me.finish();
atracChannel = new PacketChannel();
atracChannel.setTotalStreamSize(atracFileSize);
atracChannel.write(address, length);
return;
}
Modules.log.info("AT3+ data could not be decoded by the external decoder.");
} else {
Modules.log.info("Undecodable AT3+ data detected.");
}
}
me = null;
File decodedFile = new File(getCompleteFileName(decodedAtracSuffix));
if (!decodedFile.canRead()) {
// Try to read the decoded file using an alternate file name,
// without HashCode. These files can be generated by external tools
// decoding the Atrac3+ files. These tools can't generate the HashCode.
//
// Use the following alternate file name scheme:
// Atrac-SSSSSSSS-NNNNNNNN-DDDDDDDD.at3.decoded
// where SSSSSSSS is the file size in Hex
// NNNNNNNN is the number of samples in Hex found in the "fact" Chunk
// DDDDDDDD are the first 32-bit in Hex found in the "data" Chunk
int numberOfSamples = 0;
int data = 0;
// Scan the Atrac data for NNNNNNNN and DDDDDDDD values
Memory mem = Memory.getInstance();
int scanAddress = address + 12;
int endScanAddress = address + length;
while (scanAddress < endScanAddress) {
int chunkHeader = mem.read32(scanAddress);
int chunkSize = mem.read32(scanAddress + 4);
if (chunkHeader == waveFactChunkHeader) {
numberOfSamples = mem.read32(scanAddress + 8);
} else if (chunkHeader == waveDataChunkHeader) {
data = mem.read32(scanAddress + 8);
break;
}
// Go to the next Chunk
scanAddress += chunkSize + 8;
}
File alternateDecodedFile =
new File(
String.format(
"%sAtrac-%08X-%08X-%08X%s",
getBaseDirectory(), atracFileSize, numberOfSamples, data, decodedAtracSuffix));
if (alternateDecodedFile.canRead()) {
decodedFile = alternateDecodedFile;
}
}
File atracFile = new File(getCompleteFileName(atracSuffix));
if (decodedFile.canRead()) {
try {
decodedStream = new RandomAccessFile(decodedFile, "r");
atracEndSample = (int) (decodedFile.length() / 4);
} catch (FileNotFoundException e) {
// Decoded file should already be present
Modules.log.warn(e);
}
} else if (atracFile.canRead() && atracFile.length() == atracFileSize) {
// Atrac file is already written, no need to write it again
} else if (sceAtrac3plus.isEnableConnector()) {
commandFileDirty = true;
displayInstructions();
new File(getBaseDirectory()).mkdirs();
try {
atracStream = new FileOutputStream(getCompleteFileName(atracSuffix));
byte[] buffer = new byte[length];
IMemoryReader memoryReader = MemoryReader.getMemoryReader(address, length, 1);
for (int i = 0; i < length; i++) {
buffer[i] = (byte) memoryReader.readNext();
}
atracStream.write(buffer);
} catch (IOException e) {
Modules.log.warn(e);
}
generateCommandFile();
}
}