@HLELogging
public class sceMeCore_driver extends HLEModule {
public static Logger log = Modules.getLogger("sceMeCore_driver");
@Override
public String getName() {
return "sceMeCore_driver";
}
@HLEUnimplemented
@HLEFunction(nid = 0x051C1601, version = 500)
public int sceMeBootStart500(int unknown) {
return 0;
}
}
public class sceNp extends HLEModule {
public static Logger log = Modules.getLogger("sceNp");
protected boolean initialized;
@Override
public void start() {
initialized = false;
super.start();
}
/**
* Initialization.
*
* @return
*/
@HLEUnimplemented
@HLEFunction(nid = 0x857B47D3, version = 150, checkInsideInterrupt = true)
public int sceNp_857B47D3() {
// No parameters
initialized = true;
return 0;
}
/**
* Termination.
*
* @return
*/
@HLEUnimplemented
@HLEFunction(nid = 0x37E1E274, version = 150, checkInsideInterrupt = true)
public int sceNp_37E1E274() {
// No parameters
initialized = false;
return 0;
}
}
public class sceGe_user extends HLEModule {
public static Logger log = Modules.getLogger("sceGe_user");
public volatile boolean waitingForSync;
public volatile boolean syncDone;
private HashMap<Integer, SceKernelCallbackInfo> signalCallbacks;
private HashMap<Integer, SceKernelCallbackInfo> finishCallbacks;
private static final String geCallbackPurpose = "sceGeCallback";
// PSP has an array of 64 GE lists
private static final int NUMBER_GE_LISTS = 64;
private PspGeList[] allGeLists;
private ConcurrentLinkedQueue<PspGeList> listFreeQueue;
private ConcurrentLinkedQueue<Integer> deferredThreadWakeupQueue;
public static final int PSP_GE_LIST_DONE = 0;
public static final int PSP_GE_LIST_QUEUED = 1;
public static final int PSP_GE_LIST_DRAWING = 2;
public static final int PSP_GE_LIST_STALL_REACHED = 3;
public static final int PSP_GE_LIST_END_REACHED = 4;
public static final int PSP_GE_LIST_CANCEL_DONE = 5;
public static final String[] PSP_GE_LIST_STRINGS = {
"PSP_GE_LIST_DONE",
"PSP_GE_LIST_QUEUED",
"PSP_GE_LIST_DRAWING",
"PSP_GE_LIST_STALL_REACHED",
"PSP_GE_LIST_END_REACHED",
"PSP_GE_LIST_CANCEL_DONE"
};
public static final int PSP_GE_SIGNAL_HANDLER_SUSPEND = 0x01;
public static final int PSP_GE_SIGNAL_HANDLER_CONTINUE = 0x02;
public static final int PSP_GE_SIGNAL_HANDLER_PAUSE = 0x03;
public static final int PSP_GE_SIGNAL_SYNC = 0x08;
public static final int PSP_GE_SIGNAL_JUMP = 0x10;
public static final int PSP_GE_SIGNAL_CALL = 0x11;
public static final int PSP_GE_SIGNAL_RETURN = 0x12;
public static final int PSP_GE_SIGNAL_TBP0_REL = 0x20;
public static final int PSP_GE_SIGNAL_TBP1_REL = 0x21;
public static final int PSP_GE_SIGNAL_TBP2_REL = 0x22;
public static final int PSP_GE_SIGNAL_TBP3_REL = 0x23;
public static final int PSP_GE_SIGNAL_TBP4_REL = 0x24;
public static final int PSP_GE_SIGNAL_TBP5_REL = 0x25;
public static final int PSP_GE_SIGNAL_TBP6_REL = 0x26;
public static final int PSP_GE_SIGNAL_TBP7_REL = 0x27;
public static final int PSP_GE_SIGNAL_TBP0_REL_OFFSET = 0x28;
public static final int PSP_GE_SIGNAL_TBP1_REL_OFFSET = 0x29;
public static final int PSP_GE_SIGNAL_TBP2_REL_OFFSET = 0x2A;
public static final int PSP_GE_SIGNAL_TBP3_REL_OFFSET = 0x2B;
public static final int PSP_GE_SIGNAL_TBP4_REL_OFFSET = 0x2C;
public static final int PSP_GE_SIGNAL_TBP5_REL_OFFSET = 0x2D;
public static final int PSP_GE_SIGNAL_TBP6_REL_OFFSET = 0x2E;
public static final int PSP_GE_SIGNAL_TBP7_REL_OFFSET = 0x2F;
public static final int PSP_GE_SIGNAL_BREAK = 0xFF;
public static final int PSP_GE_MATRIX_BONE0 = 0;
public static final int PSP_GE_MATRIX_BONE1 = 1;
public static final int PSP_GE_MATRIX_BONE2 = 2;
public static final int PSP_GE_MATRIX_BONE3 = 3;
public static final int PSP_GE_MATRIX_BONE4 = 4;
public static final int PSP_GE_MATRIX_BONE5 = 5;
public static final int PSP_GE_MATRIX_BONE6 = 6;
public static final int PSP_GE_MATRIX_BONE7 = 7;
public static final int PSP_GE_MATRIX_WORLD = 8;
public static final int PSP_GE_MATRIX_VIEW = 9;
public static final int PSP_GE_MATRIX_PROJECTION = 10;
public static final int PSP_GE_MATRIX_TEXGEN = 11;
public int eDRAMMemoryWidth;
@Override
public void start() {
log.debug(String.format("Starting %s", getName()));
waitingForSync = false;
syncDone = false;
signalCallbacks = new HashMap<Integer, SceKernelCallbackInfo>();
finishCallbacks = new HashMap<Integer, SceKernelCallbackInfo>();
listFreeQueue = new ConcurrentLinkedQueue<PspGeList>();
allGeLists = new PspGeList[NUMBER_GE_LISTS];
for (int i = 0; i < NUMBER_GE_LISTS; i++) {
allGeLists[i] = new PspGeList(i);
listFreeQueue.add(allGeLists[i]);
}
deferredThreadWakeupQueue = new ConcurrentLinkedQueue<Integer>();
eDRAMMemoryWidth = 1024;
super.start();
}
@Override
public void stop() {
log.debug(String.format("Stopping %s", getName()));
if (ExternalGE.isActive()) {
ExternalGE.onGeUserStop();
}
}
public void step() {
ThreadManForUser threadMan = Modules.ThreadManForUserModule;
for (Integer thid = deferredThreadWakeupQueue.poll();
thid != null;
thid = deferredThreadWakeupQueue.poll()) {
if (log.isDebugEnabled()) {
log.debug(
"really waking thread "
+ Integer.toHexString(thid)
+ "("
+ threadMan.getThreadName(thid)
+ ")");
}
threadMan.hleUnblockThread(thid);
ExternalGE.onGeStopWaitList();
}
}
private void triggerAsyncCallback(
int cbid,
int listId,
int listPc,
int behavior,
int signalId,
HashMap<Integer, SceKernelCallbackInfo> callbacks) {
SceKernelCallbackInfo callback = callbacks.get(cbid);
if (callback != null && callback.callback_addr != 0) {
if (log.isDebugEnabled()) {
log.debug(
String.format(
"Scheduling Async Callback %s, listId=0x%X, listPc=0x%08X, behavior=%d, signalId=0x%X",
callback.toString(), listId, listPc, behavior, signalId));
}
GeCallbackInterruptHandler geCallbackInterruptHandler =
new GeCallbackInterruptHandler(
callback.callback_addr, callback.callback_arg_addr, listPc);
GeInterruptHandler geInterruptHandler =
new GeInterruptHandler(geCallbackInterruptHandler, listId, behavior, signalId);
Emulator.getScheduler().addAction(geInterruptHandler);
} else {
hleGeOnAfterCallback(listId, behavior, false);
}
}
private void blockCurrentThreadOnList(PspGeList list, IAction action) {
ThreadManForUser threadMan = Modules.ThreadManForUserModule;
boolean blockCurrentThread = false;
boolean executeAction = false;
synchronized (this) {
int currentThreadId = threadMan.getCurrentThreadID();
if (list.isDone()) {
// There has been some race condition: the list has just completed
// do not block the thread
if (log.isDebugEnabled()) {
log.debug(
"blockCurrentThreadOnList not blocking thread "
+ Integer.toHexString(currentThreadId)
+ ", list completed "
+ list);
}
executeAction = true;
} else {
if (log.isDebugEnabled()) {
log.debug(
"blockCurrentThreadOnList blocking thread "
+ Integer.toHexString(currentThreadId)
+ " on list "
+ list);
}
list.blockedThreadIds.add(currentThreadId);
blockCurrentThread = true;
}
}
// Execute the action outside of the synchronized block
if (executeAction && action != null) {
action.execute();
}
// Block the thread outside of the synchronized block
if (blockCurrentThread) {
// Block the thread, but do not execute callbacks.
threadMan.hleBlockCurrentThread(
SceKernelThreadInfo.JPCSP_WAIT_GE_LIST,
list.id,
false,
action,
new ListSyncWaitStateChecker(list));
ExternalGE.onGeStartWaitList();
}
}
// sceGeDrawSync is resetting all the lists having status PSP_GE_LIST_DONE
private void hleGeAfterDrawSyncAction() {
synchronized (this) {
for (int i = 0; i < NUMBER_GE_LISTS; i++) {
if (allGeLists[i].status == PSP_GE_LIST_DONE) {
allGeLists[i].reset();
}
}
}
}
/** Called from VideoEngine */
public void hleGeListSyncDone(PspGeList list) {
if (log.isDebugEnabled()) {
String msg = "hleGeListSyncDone list " + list;
if (list.isDone()) {
msg += ", done";
} else {
msg += ", NOT done";
}
if (list.blockedThreadIds.size() > 0 && list.status != PSP_GE_LIST_END_REACHED) {
msg += ", waking thread";
for (int threadId : list.blockedThreadIds) {
msg += " " + Integer.toHexString(threadId);
}
}
log.debug(msg);
}
synchronized (this) {
if (list.blockedThreadIds.size() > 0 && list.status != PSP_GE_LIST_END_REACHED) {
// things might go wrong if the thread already exists in the queue
deferredThreadWakeupQueue.addAll(list.blockedThreadIds);
}
if (list.isDone()) {
listFreeQueue.add(list);
}
}
}
public void hleGeOnAfterCallback(int listId, int behavior, boolean hasCallback) {
// (gid15) I could not make any difference between
// PSP_GE_BEHAVIOR_CONTINUE and PSP_GE_BEHAVIOR_SUSPEND
// Both wait for the completion of the callback before continuing
// the list processing...
if (behavior == PSP_GE_SIGNAL_HANDLER_CONTINUE
|| behavior == PSP_GE_SIGNAL_HANDLER_SUSPEND
|| !hasCallback) {
if (listId >= 0 && listId < NUMBER_GE_LISTS) {
PspGeList list = allGeLists[listId];
if (log.isDebugEnabled()) {
log.debug("hleGeOnAfterCallback restarting list " + list);
}
list.restartList();
}
}
}
/** safe to call from the Async display thread */
public void triggerFinishCallback(int cbid, int listId, int listPc, int callbackNotifyArg1) {
triggerAsyncCallback(
cbid, listId, listPc, PSP_GE_SIGNAL_HANDLER_SUSPEND, callbackNotifyArg1, finishCallbacks);
}
/** safe to call from the Async display thread */
public void triggerSignalCallback(
int cbid, int listId, int listPc, int behavior, int callbackNotifyArg1) {
triggerAsyncCallback(cbid, listId, listPc, behavior, callbackNotifyArg1, signalCallbacks);
}
public PspGeList getGeList(int id) {
if (id < 0 || id >= NUMBER_GE_LISTS) {
return null;
}
return allGeLists[id];
}
static class DeferredCallbackInfo {
public final int cbid;
public final int callbackIndex;
public final int listId;
public final int behavior;
public final int callbackNotifyArg1;
public DeferredCallbackInfo(int cbid, int callbackIndex, int callbackNotifyArg1) {
this.cbid = cbid;
this.callbackIndex = callbackIndex;
this.listId = -1;
this.behavior = PSP_GE_SIGNAL_HANDLER_SUSPEND;
this.callbackNotifyArg1 = callbackNotifyArg1;
}
public DeferredCallbackInfo(
int cbid, int callbackIndex, int listId, int behavior, int callbackNotifyArg1) {
this.cbid = cbid;
this.callbackIndex = callbackIndex;
this.listId = listId;
this.behavior = behavior;
this.callbackNotifyArg1 = callbackNotifyArg1;
}
}
private class HLEAfterDrawSyncAction implements IAction {
@Override
public void execute() {
hleGeAfterDrawSyncAction();
}
}
private static class ListSyncWaitStateChecker implements IWaitStateChecker {
private PspGeList list;
public ListSyncWaitStateChecker(PspGeList list) {
this.list = list;
}
@Override
public boolean continueWaitState(SceKernelThreadInfo thread, ThreadWaitInfo wait) {
// Continue the wait state until the list is done
boolean contineWait = !list.isDone();
if (!contineWait) {
ExternalGE.onGeStopWaitList();
}
return contineWait;
}
}
public int checkListId(int id) {
if (id < 0 || id >= NUMBER_GE_LISTS) {
throw new SceKernelErrorException(SceKernelErrors.ERROR_INVALID_ID);
}
return id;
}
public int checkMode(int mode) {
if (mode < 0 || mode > 1) {
throw new SceKernelErrorException(SceKernelErrors.ERROR_INVALID_MODE);
}
return mode;
}
public int hleGeListEnQueue(
TPointer listAddr,
@CanBeNull TPointer stallAddr,
int cbid,
@CanBeNull TPointer argAddr,
int saveContextAddr,
boolean enqueueHead) {
pspGeListOptParam optParams = null;
int stackAddr = 0;
if (argAddr.isNotNull()) {
optParams = new pspGeListOptParam();
optParams.read(argAddr);
stackAddr = optParams.stackAddr;
if (log.isDebugEnabled()) {
log.debug(String.format("hleGeListEnQueue optParams=%s", optParams));
}
}
if (Modules.SysMemUserForUserModule.hleKernelGetCompiledSdkVersion() >= 0x02000000) {
boolean isBusy;
if (ExternalGE.isActive()) {
isBusy = ExternalGE.hasDrawList(listAddr.getAddress(), stackAddr);
} else {
isBusy = VideoEngine.getInstance().hasDrawList(listAddr.getAddress(), stackAddr);
}
if (isBusy) {
log.warn(
String.format(
"hleGeListEnQueue can't enqueue duplicate list address %s, stack 0x%08X",
listAddr, stackAddr));
return SceKernelErrors.ERROR_BUSY;
}
}
int result;
synchronized (this) {
PspGeList list = listFreeQueue.poll();
if (list == null) {
log.warn("hleGeListEnQueue no more free list available!");
if (log.isDebugEnabled()) {
for (int i = 0; i < NUMBER_GE_LISTS; i++) {
log.debug(String.format("List#%d: %s", i, allGeLists[i]));
}
}
return SceKernelErrors.ERROR_OUT_OF_MEMORY;
}
list.init(listAddr.getAddress(), stallAddr.getAddress(), cbid, optParams);
list.setSaveContextAddr(saveContextAddr);
if (enqueueHead) {
// Send the list to the VideoEngine at the head of the queue.
list.startListHead();
} else {
// Send the list to the VideoEngine before triggering the display (setting GE dirty)
list.startList();
}
Modules.sceDisplayModule.setGeDirty(true);
result = list.id;
}
if (log.isDebugEnabled()) {
log.debug(String.format("hleGeListEnQueue returning 0x%X", result));
}
return result;
}
public int hleGeListSync(int id) {
if (id < 0 || id >= NUMBER_GE_LISTS) {
return -1;
}
PspGeList list = null;
int result;
synchronized (this) {
list = allGeLists[id];
result = list.status;
}
return result;
}
@HLEFunction(nid = 0x1F6752AD, version = 150)
public int sceGeEdramGetSize() {
return MemoryMap.SIZE_VRAM;
}
@HLEFunction(nid = 0xE47E40E4, version = 150)
public int sceGeEdramGetAddr() {
return MemoryMap.START_VRAM;
}
@HLEFunction(nid = 0xB77905EA, version = 150)
public int sceGeEdramSetAddrTranslation(int size) {
// Faking. There's no need for real memory width conversion.
int previousWidth = eDRAMMemoryWidth;
eDRAMMemoryWidth = size;
return previousWidth;
}
@HLEFunction(nid = 0xDC93CFEF, version = 150)
public int sceGeGetCmd(int cmd) {
VideoEngine ve = VideoEngine.getInstance();
int value;
if (ExternalGE.isActive()) {
value = ExternalGE.getCmd(cmd);
} else {
value = ve.getCommandValue(cmd);
}
if (log.isInfoEnabled()) {
log.info(
String.format(
"sceGeGetCmd %s: cmd=0x%X, value=0x%06X",
ve.commandToString(cmd).toUpperCase(), cmd, value));
}
return value;
}
@HLEFunction(nid = 0x57C8945B, version = 150)
public int sceGeGetMtx(int mtxType, TPointer mtxAddr) {
if (mtxType < 0 || mtxType > PSP_GE_MATRIX_TEXGEN) {
log.warn(String.format("sceGeGetMtx invalid type mtxType=%d", mtxType));
return SceKernelErrors.ERROR_INVALID_INDEX;
}
float[] mtx;
if (ExternalGE.isActive()) {
mtx = ExternalGE.getMatrix(mtxType);
} else {
mtx = VideoEngine.getInstance().getMatrix(mtxType);
}
for (int i = 0; i < mtx.length; i++) {
// Float value is returned in lower 24 bits.
mtxAddr.setValue32(i << 2, Float.floatToRawIntBits(mtx[i]) >>> 8);
}
if (log.isInfoEnabled()) {
log.info(String.format("sceGeGetMtx mtxType=%d, mtxAddr=%s, mtx=%s", mtxType, mtxAddr, mtx));
}
return 0;
}
@HLEFunction(nid = 0x438A385A, version = 150)
public int sceGeSaveContext(TPointer contextAddr) {
if (ExternalGE.isActive()) {
return ExternalGE.saveContext(contextAddr.getAddress());
}
VideoEngine.getInstance().hleSaveContext(contextAddr.getAddress());
return 0;
}
@HLEFunction(nid = 0x0BF608FB, version = 150)
public int sceGeRestoreContext(TPointer contextAddr) {
if (ExternalGE.isActive()) {
return ExternalGE.restoreContext(contextAddr.getAddress());
}
VideoEngine.getInstance().hleRestoreContext(contextAddr.getAddress());
return 0;
}
@HLEFunction(nid = 0xAB49E76A, version = 150)
public int sceGeListEnQueue(
TPointer listAddr, @CanBeNull TPointer stallAddr, int cbid, @CanBeNull TPointer argAddr) {
return hleGeListEnQueue(listAddr, stallAddr, cbid, argAddr, 0, false);
}
@HLEFunction(nid = 0x1C0D95A6, version = 150)
public int sceGeListEnQueueHead(
TPointer listAddr, @CanBeNull TPointer stallAddr, int cbid, @CanBeNull TPointer argAddr) {
return hleGeListEnQueue(listAddr, stallAddr, cbid, argAddr, 0, true);
}
@HLEFunction(nid = 0x5FB86AB0, version = 150)
public int sceGeListDeQueue(@CheckArgument("checkListId") int id) {
synchronized (this) {
PspGeList list = allGeLists[id];
list.reset();
if (!listFreeQueue.contains(list)) {
listFreeQueue.add(list);
}
}
return 0;
}
@HLEFunction(nid = 0xE0D68148, version = 150)
public int sceGeListUpdateStallAddr(
@CheckArgument("checkListId") int id, @CanBeNull TPointer stallAddr) {
synchronized (this) {
PspGeList list = allGeLists[id];
if (list.getStallAddr() != stallAddr.getAddress()) {
list.setStallAddr(stallAddr.getAddress());
Modules.sceDisplayModule.setGeDirty(true);
}
}
return 0;
}
@HLEFunction(nid = 0x03444EB4, version = 150)
public int sceGeListSync(
@CheckArgument("checkListId") int id, @CheckArgument("checkMode") int mode) {
if (mode == 0 && IntrManager.getInstance().isInsideInterrupt()) {
log.debug("sceGeListSync (mode==0) cannot be called inside an interrupt handler!");
return SceKernelErrors.ERROR_KERNEL_CANNOT_BE_CALLED_FROM_INTERRUPT;
}
PspGeList list = null;
boolean blockCurrentThread = false;
int result;
synchronized (this) {
list = allGeLists[id];
if (log.isDebugEnabled()) {
log.debug(String.format("sceGeListSync on list: %s", list));
}
if (list.isReset()) {
throw new SceKernelErrorException(SceKernelErrors.ERROR_INVALID_ID);
}
if (mode == 0 && !list.isDone()) {
result = 0;
blockCurrentThread = true;
} else {
result = list.status;
}
}
// Block the current thread outside of the synchronized block
if (blockCurrentThread) {
blockCurrentThreadOnList(list, null);
}
return result;
}
@HLEFunction(nid = 0xB287BD61, version = 150)
public int sceGeDrawSync(@CheckArgument("checkMode") int mode) {
if (mode == 0 && IntrManager.getInstance().isInsideInterrupt()) {
log.debug("sceGeDrawSync (mode==0) cannot be called inside an interrupt handler!");
return SceKernelErrors.ERROR_KERNEL_CANNOT_BE_CALLED_FROM_INTERRUPT;
}
// no synchronization on "this" required because we are not accessing
// local data, only list information from the VideoEngine.
int result = 0;
if (mode == 0) {
PspGeList lastList;
if (ExternalGE.isActive()) {
lastList = ExternalGE.getLastDrawList();
} else {
lastList = VideoEngine.getInstance().getLastDrawList();
}
if (lastList != null) {
blockCurrentThreadOnList(lastList, new HLEAfterDrawSyncAction());
} else {
if (log.isDebugEnabled()) {
log.debug("sceGeDrawSync all lists completed, not waiting");
}
hleGeAfterDrawSyncAction();
Modules.ThreadManForUserModule.hleRescheduleCurrentThread();
}
} else if (mode == 1) {
PspGeList currentList;
if (ExternalGE.isActive()) {
currentList = ExternalGE.getFirstDrawList();
} else {
currentList = VideoEngine.getInstance().getFirstDrawList();
}
if (currentList != null) {
result = currentList.status;
}
if (log.isDebugEnabled()) {
log.debug(String.format("sceGeDrawSync mode=%d, returning %d", mode, result));
}
}
return result;
}
@HLEFunction(nid = 0xB448EC0D, version = 150)
public int sceGeBreak(@CheckArgument("checkMode") int mode, TPointer brk_addr) {
int result = 0;
PspGeList list;
if (ExternalGE.isActive()) {
list = ExternalGE.getCurrentList();
} else {
list = VideoEngine.getInstance().getCurrentList();
}
if (mode == 0) { // Pause the current list only.
if (list != null) {
list.pauseList();
result = list.id;
}
} else if (mode == 1) { // Pause the current list and cancel the rest of the queue.
if (list != null) {
list.pauseList();
for (int i = 0; i < NUMBER_GE_LISTS; i++) {
allGeLists[i].status = PSP_GE_LIST_CANCEL_DONE;
}
result = list.id;
}
}
return result;
}
@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;
}
@HLEFunction(nid = 0xA4FC06A4, version = 150, checkInsideInterrupt = true)
public int sceGeSetCallback(TPointer cbdata_addr) {
pspGeCallbackData cbdata = new pspGeCallbackData();
cbdata.read(cbdata_addr);
// The cbid returned has a value in the range [0..15].
int cbid = SceUidManager.getNewId(geCallbackPurpose, 0, 15);
if (cbid == SceUidManager.INVALID_ID) {
log.warn(String.format("sceGeSetCallback no more callback ID available"));
return SceKernelErrors.ERROR_OUT_OF_MEMORY;
}
if (log.isDebugEnabled()) {
log.debug(
String.format(
"sceGeSetCallback signalFunc=0x%08X, signalArg=0x%08X, finishFunc=0x%08X, finishArg=0x%08X, result cbid=0x%X",
cbdata.signalFunction,
cbdata.signalArgument,
cbdata.finishFunction,
cbdata.finishArgument,
cbid));
}
ThreadManForUser threadMan = Modules.ThreadManForUserModule;
SceKernelCallbackInfo callbackSignal =
threadMan.hleKernelCreateCallback(
"GeCallbackSignal", cbdata.signalFunction, cbdata.signalArgument);
SceKernelCallbackInfo callbackFinish =
threadMan.hleKernelCreateCallback(
"GeCallbackFinish", cbdata.finishFunction, cbdata.finishArgument);
signalCallbacks.put(cbid, callbackSignal);
finishCallbacks.put(cbid, callbackFinish);
return cbid;
}
@HLEFunction(nid = 0x05DB22CE, version = 150, checkInsideInterrupt = true)
public int sceGeUnsetCallback(int cbid) {
ThreadManForUser threadMan = Modules.ThreadManForUserModule;
SceKernelCallbackInfo callbackSignal = signalCallbacks.remove(cbid);
SceKernelCallbackInfo callbackFinish = finishCallbacks.remove(cbid);
if (callbackSignal != null) {
threadMan.hleKernelDeleteCallback(callbackSignal.uid);
}
if (callbackFinish != null) {
threadMan.hleKernelDeleteCallback(callbackFinish.uid);
}
SceUidManager.releaseId(cbid, geCallbackPurpose);
return 0;
}
}
public class LwMutexManager {
protected static Logger log = Modules.getLogger("ThreadManForUser");
private HashMap<Integer, SceKernelLwMutexInfo> lwMutexMap;
private LwMutexWaitStateChecker lwMutexWaitStateChecker;
private static final int PSP_LWMUTEX_ATTR_FIFO = 0;
private static final int PSP_LWMUTEX_ATTR_PRIORITY = 0x100;
private static final int PSP_LWMUTEX_ATTR_ALLOW_RECURSIVE = 0x200;
public void reset() {
lwMutexMap = new HashMap<Integer, SceKernelLwMutexInfo>();
lwMutexWaitStateChecker = new LwMutexWaitStateChecker();
}
private boolean removeWaitingThread(SceKernelThreadInfo thread) {
// Update numWaitThreads
SceKernelLwMutexInfo info = lwMutexMap.get(thread.wait.LwMutex_id);
if (info != null) {
info.numWaitThreads--;
if (info.numWaitThreads < 0) {
log.warn(
"removing waiting thread "
+ Integer.toHexString(thread.uid)
+ ", lwmutex "
+ Integer.toHexString(info.uid)
+ " numWaitThreads underflowed");
info.numWaitThreads = 0;
}
return true;
}
return false;
}
public void onThreadWaitTimeout(SceKernelThreadInfo thread) {
// Untrack
if (removeWaitingThread(thread)) {
// Return WAIT_TIMEOUT
thread.cpuContext.gpr[2] = ERROR_KERNEL_WAIT_TIMEOUT;
} else {
log.warn("LwMutex deleted while we were waiting for it! (timeout expired)");
// Return WAIT_DELETE
thread.cpuContext.gpr[2] = ERROR_KERNEL_WAIT_DELETE;
}
}
public void onThreadWaitReleased(SceKernelThreadInfo thread) {
// Untrack
if (removeWaitingThread(thread)) {
// Return ERROR_WAIT_STATUS_RELEASED
thread.cpuContext.gpr[2] = ERROR_KERNEL_WAIT_STATUS_RELEASED;
} else {
log.warn("EventFlag deleted while we were waiting for it!");
// Return WAIT_DELETE
thread.cpuContext.gpr[2] = ERROR_KERNEL_WAIT_DELETE;
}
}
public void onThreadDeleted(SceKernelThreadInfo thread) {
if (thread.isWaitingForType(PSP_WAIT_LWMUTEX)) {
// decrement numWaitThreads
removeWaitingThread(thread);
}
}
private void onLwMutexDeleted(int lwmid) {
ThreadManForUser threadMan = Modules.ThreadManForUserModule;
boolean reschedule = false;
for (Iterator<SceKernelThreadInfo> it = threadMan.iterator(); it.hasNext(); ) {
SceKernelThreadInfo thread = it.next();
if (thread.isWaitingForType(PSP_WAIT_LWMUTEX) && thread.wait.LwMutex_id == lwmid) {
thread.cpuContext.gpr[2] = ERROR_KERNEL_WAIT_DELETE;
threadMan.hleChangeThreadState(thread, PSP_THREAD_READY);
reschedule = true;
}
}
// Reschedule only if threads waked up.
if (reschedule) {
threadMan.hleRescheduleCurrentThread();
}
}
private void onLwMutexModified(SceKernelLwMutexInfo info) {
ThreadManForUser threadMan = Modules.ThreadManForUserModule;
boolean reschedule = false;
if ((info.attr & PSP_LWMUTEX_ATTR_PRIORITY) == PSP_LWMUTEX_ATTR_FIFO) {
for (Iterator<SceKernelThreadInfo> it = Modules.ThreadManForUserModule.iterator();
it.hasNext(); ) {
SceKernelThreadInfo thread = it.next();
if (thread.isWaitingForType(PSP_WAIT_LWMUTEX)
&& thread.wait.LwMutex_id == info.uid
&& tryLockLwMutex(info, thread.wait.LwMutex_count, thread)) {
// New thread is taking control of LwMutex.
info.threadid = thread.uid;
// Update numWaitThreads
info.numWaitThreads--;
// Return success or failure
thread.cpuContext.gpr[2] = 0;
// Wakeup
threadMan.hleChangeThreadState(thread, PSP_THREAD_READY);
reschedule = true;
}
}
} else if ((info.attr & PSP_LWMUTEX_ATTR_PRIORITY) == PSP_LWMUTEX_ATTR_PRIORITY) {
for (Iterator<SceKernelThreadInfo> it = Modules.ThreadManForUserModule.iteratorByPriority();
it.hasNext(); ) {
SceKernelThreadInfo thread = it.next();
if (thread.isWaitingForType(PSP_WAIT_LWMUTEX)
&& thread.wait.LwMutex_id == info.uid
&& tryLockLwMutex(info, thread.wait.LwMutex_count, thread)) {
// New thread is taking control of LwMutex.
info.threadid = thread.uid;
// Update numWaitThreads
info.numWaitThreads--;
// Return success or failure
thread.cpuContext.gpr[2] = 0;
// Wakeup
threadMan.hleChangeThreadState(thread, PSP_THREAD_READY);
reschedule = true;
}
}
}
// Reschedule only if threads waked up.
if (reschedule) {
Modules.ThreadManForUserModule.hleRescheduleCurrentThread();
}
}
private boolean tryLockLwMutex(SceKernelLwMutexInfo info, int count, SceKernelThreadInfo thread) {
if (info.lockedCount == 0) {
// If the lwmutex is not locked, allow this thread to lock it.
info.threadid = thread.uid;
info.lockedCount += count;
return true;
} else if (info.threadid == thread.uid) {
// If the lwmutex is already locked, but it's trying to be locked by the same thread
// that acquired it initially, check if recursive locking is allowed.
// If not, return an error.
if (((info.attr & PSP_LWMUTEX_ATTR_ALLOW_RECURSIVE) == PSP_LWMUTEX_ATTR_ALLOW_RECURSIVE)) {
info.lockedCount += count;
return true;
}
}
return false;
}
private int hleKernelLockLwMutex(
int uid, int count, int timeout_addr, boolean wait, boolean doCallbacks) {
SceKernelLwMutexInfo info = lwMutexMap.get(uid);
if (info == null) {
log.warn(
String.format(
"hleKernelLockLwMutex uid=%d, count=%d, timeout_addr=0x%08X, wait=%b, doCallbacks=%b - - unknown UID",
uid, count, timeout_addr, wait, doCallbacks));
return ERROR_KERNEL_LWMUTEX_NOT_FOUND;
}
ThreadManForUser threadMan = Modules.ThreadManForUserModule;
SceKernelThreadInfo currentThread = threadMan.getCurrentThread();
if (!tryLockLwMutex(info, count, currentThread)) {
if (log.isDebugEnabled()) {
log.debug(
String.format(
"hleKernelLockLwMutex %s, count=%d, timeout_addr=0x%08X, wait=%b, doCallbacks=%b - fast check failed",
info.toString(), count, timeout_addr, wait, doCallbacks));
}
if (wait && info.threadid != currentThread.uid) {
// Failed, but it's ok, just wait a little
info.numWaitThreads++;
// Wait on a specific lwmutex
currentThread.wait.LwMutex_id = uid;
currentThread.wait.LwMutex_count = count;
threadMan.hleKernelThreadEnterWaitState(
PSP_WAIT_LWMUTEX, uid, lwMutexWaitStateChecker, timeout_addr, doCallbacks);
} else {
if ((info.attr & PSP_LWMUTEX_ATTR_ALLOW_RECURSIVE) != PSP_LWMUTEX_ATTR_ALLOW_RECURSIVE) {
return ERROR_KERNEL_LWMUTEX_RECURSIVE_NOT_ALLOWED;
}
return ERROR_KERNEL_LWMUTEX_LOCKED;
}
} else {
// Success, do not reschedule the current thread.
if (log.isDebugEnabled()) {
log.debug(
String.format(
"hleKernelLockLwMutex %s, count=%d, timeout_addr=0x%08X, wait=%b, doCallbacks=%b - fast check succeeded",
info.toString(), count, timeout_addr, wait, doCallbacks));
}
}
return 0;
}
public int sceKernelCreateLwMutex(
int workAreaAddr, int name_addr, int attr, int count, int option_addr) {
Memory mem = Processor.memory;
String name = Utilities.readStringNZ(mem, name_addr, 32);
if (log.isDebugEnabled()) {
log.debug(
"sceKernelCreateLwMutex (workAreaAddr='"
+ Integer.toHexString(workAreaAddr)
+ "', name='"
+ name
+ "', attr=0x"
+ Integer.toHexString(attr)
+ ", count=0x"
+ Integer.toHexString(count)
+ ", option_addr=0x"
+ Integer.toHexString(option_addr)
+ ")");
}
SceKernelLwMutexInfo info = new SceKernelLwMutexInfo(workAreaAddr, name, count, attr);
lwMutexMap.put(info.uid, info);
// If the initial count is 0, the lwmutex is not acquired.
if (count > 0) {
info.threadid = Modules.ThreadManForUserModule.getCurrentThreadID();
}
// Return 0 in case of no error, do not return the UID of the created mutex
return 0;
}
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;
}
public int sceKernelLockLwMutex(int workAreaAddr, int count, int timeout_addr) {
Memory mem = Processor.memory;
int uid = mem.read32(workAreaAddr);
if (log.isDebugEnabled()) {
log.debug("sceKernelLockLwMutex redirecting to hleKernelLockLwMutex");
}
return hleKernelLockLwMutex(uid, count, timeout_addr, true, 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);
}
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 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;
}
public int sceKernelReferLwMutexStatusByID(int uid, int addr) {
Memory mem = Processor.memory;
if (log.isDebugEnabled()) {
log.debug(
"sceKernelReferLwMutexStatus (uid=0x"
+ Integer.toHexString(uid)
+ ", 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;
}
private class LwMutexWaitStateChecker implements IWaitStateChecker {
@Override
public boolean continueWaitState(SceKernelThreadInfo thread, ThreadWaitInfo wait) {
// Check if the thread has to continue its wait state or if the lwmutex
// has been unlocked during the callback execution.
SceKernelLwMutexInfo info = lwMutexMap.get(wait.LwMutex_id);
if (info == null) {
thread.cpuContext.gpr[2] = ERROR_KERNEL_LWMUTEX_NOT_FOUND;
return false;
}
// Check the lwmutex.
if (tryLockLwMutex(info, wait.LwMutex_count, thread)) {
info.numWaitThreads--;
thread.cpuContext.gpr[2] = 0;
return false;
}
return true;
}
}
public static final LwMutexManager singleton = new LwMutexManager();
private LwMutexManager() {}
}
/*
* TODO list:
* 1. Use the partitionid in functions that use it as a parameter.
* -> Info:
* 1 = kernel, 2 = user, 3 = me, 4 = kernel mirror (from potemkin/dash)
* http://forums.ps2dev.org/viewtopic.php?p=75341#75341
* 8 = slim, topaddr = 0x8A000000, size = 0x1C00000 (28 MB), attr = 0x0C
* 8 = slim, topaddr = 0x8BC00000, size = 0x400000 (4 MB), attr = 0x0C
*
* 2. Implement format string parsing and reading variable number of parameters
* in sceKernelPrintf.
*/
public class SysMemUserForUser extends HLEModule {
public static Logger log = Modules.getLogger("SysMemUserForUser");
protected static Logger stdout = Logger.getLogger("stdout");
protected static HashMap<Integer, SysMemInfo> blockList;
protected static MemoryChunkList[] freeMemoryChunks;
protected int firmwareVersion = 150;
public static final int defaultSizeAlignment = 256;
// PspSysMemBlockTypes
public static final int PSP_SMEM_Low = 0;
public static final int PSP_SMEM_High = 1;
public static final int PSP_SMEM_Addr = 2;
public static final int PSP_SMEM_LowAligned = 3;
public static final int PSP_SMEM_HighAligned = 4;
public static final int KERNEL_PARTITION_ID = 1;
public static final int USER_PARTITION_ID = 2;
protected boolean started = false;
private int compiledSdkVersion;
protected int compilerVersion;
@Override
public void load() {
reset();
super.load();
}
@Override
public void start() {
if (!started) {
reset();
started = true;
}
compiledSdkVersion = 0;
super.start();
}
@Override
public void stop() {
started = false;
super.stop();
}
private MemoryChunkList createMemoryChunkList(int startAddr, int endAddr) {
startAddr &= Memory.addressMask;
endAddr &= Memory.addressMask;
MemoryChunk initialMemory = new MemoryChunk(startAddr, endAddr - startAddr + 1);
return new MemoryChunkList(initialMemory);
}
public void reset() {
blockList = new HashMap<Integer, SysMemInfo>();
// free memory chunks for each partition
freeMemoryChunks = new MemoryChunkList[3];
freeMemoryChunks[USER_PARTITION_ID] =
createMemoryChunkList(MemoryMap.START_USERSPACE, MemoryMap.END_USERSPACE);
freeMemoryChunks[KERNEL_PARTITION_ID] =
createMemoryChunkList(MemoryMap.START_KERNEL, MemoryMap.END_KERNEL);
}
public void setMemory64MB(boolean isMemory64MB) {
if (isMemory64MB) {
setMemorySize(MemoryMap.END_RAM_64MB - MemoryMap.START_RAM + 1); // 60 MB
} else {
setMemorySize(MemoryMap.END_RAM_32MB - MemoryMap.START_RAM + 1); // 32 MB
}
}
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 static class SysMemInfo implements Comparable<SysMemInfo> {
public final int uid;
public final int partitionid;
public final String name;
public final int type;
public final int size;
public final int allocatedSize;
public final int addr;
public SysMemInfo(
int partitionid, String name, int type, int size, int allocatedSize, int addr) {
this.partitionid = partitionid;
this.name = name;
this.type = type;
this.size = size;
this.allocatedSize = allocatedSize;
this.addr = addr;
uid = SceUidManager.getNewUid("SysMem");
blockList.put(uid, this);
}
@Override
public String toString() {
return String.format(
"SysMemInfo[addr=0x%08X-0x%08X, uid=%x, partition=%d, name='%s', type=%s, size=0x%X (allocated=0x%X)]",
addr,
addr + allocatedSize,
uid,
partitionid,
name,
getTypeName(type),
size,
allocatedSize);
}
public void free() {
blockList.remove(uid);
}
@Override
public int compareTo(SysMemInfo o) {
if (addr == o.addr) {
log.warn("Set invariant broken for SysMemInfo " + this);
return 0;
}
return addr < o.addr ? -1 : 1;
}
}
protected static String getTypeName(int type) {
String typeName;
switch (type) {
case PSP_SMEM_Low:
typeName = "PSP_SMEM_Low";
break;
case PSP_SMEM_High:
typeName = "PSP_SMEM_High";
break;
case PSP_SMEM_Addr:
typeName = "PSP_SMEM_Addr";
break;
case PSP_SMEM_LowAligned:
typeName = "PSP_SMEM_LowAligned";
break;
case PSP_SMEM_HighAligned:
typeName = "PSP_SMEM_HighAligned";
break;
default:
typeName = "UNHANDLED " + type;
break;
}
return typeName;
}
// Allocates to 256-byte alignment
public SysMemInfo malloc(int partitionid, String name, int type, int size, int addr) {
int allocatedAddress = 0;
int allocatedSize = 0;
if (partitionid >= 0
&& partitionid < freeMemoryChunks.length
&& freeMemoryChunks[partitionid] != null) {
MemoryChunkList freeMemoryChunk = freeMemoryChunks[partitionid];
int alignment = defaultSizeAlignment - 1;
// The allocated size has not to be aligned to the requested alignment
// (for PSP_SMEM_LowAligned or PSP_SMEM_HighAligned),
// it is only aligned to the default size alignment.
allocatedSize = Utilities.alignUp(size, alignment);
if (type == PSP_SMEM_LowAligned || type == PSP_SMEM_HighAligned) {
// Use the alignment provided in the addr parameter
alignment = addr - 1;
}
switch (type) {
case PSP_SMEM_Low:
case PSP_SMEM_LowAligned:
allocatedAddress = freeMemoryChunk.allocLow(allocatedSize, alignment);
break;
case PSP_SMEM_High:
case PSP_SMEM_HighAligned:
allocatedAddress = freeMemoryChunk.allocHigh(allocatedSize, alignment);
break;
case PSP_SMEM_Addr:
allocatedAddress = freeMemoryChunk.alloc(addr, allocatedSize);
break;
default:
log.warn(String.format("malloc: unknown type %s", getTypeName(type)));
}
}
SysMemInfo sysMemInfo;
if (allocatedAddress == 0) {
log.warn(
String.format(
"malloc cannot allocate partition=%d, name='%s', type=%s, size=0x%X, addr=0x%08X, maxFreeMem=0x%X, totalFreeMem=0x%X",
partitionid,
name,
getTypeName(type),
size,
addr,
maxFreeMemSize(),
totalFreeMemSize()));
if (log.isTraceEnabled()) {
log.trace("Free list: " + getDebugFreeMem());
log.trace("Allocated blocks:\n" + getDebugAllocatedMem() + "\n");
}
sysMemInfo = null;
} else {
sysMemInfo = new SysMemInfo(partitionid, name, type, size, allocatedSize, allocatedAddress);
if (log.isDebugEnabled()) {
log.debug(
String.format(
"malloc partition=%d, name='%s', type=%s, size=0x%X, addr=0x%08X: returns 0x%08X",
partitionid, name, getTypeName(type), size, addr, allocatedAddress));
if (log.isTraceEnabled()) {
log.trace("Free list after malloc: " + getDebugFreeMem());
log.trace("Allocated blocks after malloc:\n" + getDebugAllocatedMem() + "\n");
}
}
}
return sysMemInfo;
}
public String getDebugFreeMem() {
return freeMemoryChunks[USER_PARTITION_ID].toString();
}
public String getDebugAllocatedMem() {
StringBuilder result = new StringBuilder();
// Sort allocated blocks by address
List<SysMemInfo> sortedBlockList =
Collections.list(Collections.enumeration(blockList.values()));
Collections.sort(sortedBlockList);
for (SysMemInfo sysMemInfo : sortedBlockList) {
if (result.length() > 0) {
result.append("\n");
}
result.append(sysMemInfo.toString());
}
return result.toString();
}
public void free(SysMemInfo info) {
if (info != null) {
info.free();
MemoryChunk memoryChunk = new MemoryChunk(info.addr, info.allocatedSize);
freeMemoryChunks[info.partitionid].add(memoryChunk);
if (log.isDebugEnabled()) {
log.debug(String.format("free %s", info.toString()));
if (log.isTraceEnabled()) {
log.trace("Free list after free: " + getDebugFreeMem());
log.trace("Allocated blocks after free:\n" + getDebugAllocatedMem() + "\n");
}
}
}
}
public int maxFreeMemSize() {
int maxFreeMemSize = 0;
for (MemoryChunk memoryChunk = freeMemoryChunks[USER_PARTITION_ID].getLowMemoryChunk();
memoryChunk != null;
memoryChunk = memoryChunk.next) {
if (memoryChunk.size > maxFreeMemSize) {
maxFreeMemSize = memoryChunk.size;
}
}
return maxFreeMemSize;
}
public int totalFreeMemSize() {
int totalFreeMemSize = 0;
for (MemoryChunk memoryChunk = freeMemoryChunks[USER_PARTITION_ID].getLowMemoryChunk();
memoryChunk != null;
memoryChunk = memoryChunk.next) {
totalFreeMemSize += memoryChunk.size;
}
return totalFreeMemSize;
}
public SysMemInfo getSysMemInfo(int uid) {
return blockList.get(uid);
}
/**
* @param firmwareVersion : in this format: ABB, where A = major and B = minor, for example 271
*/
public void setFirmwareVersion(int firmwareVersion) {
this.firmwareVersion = firmwareVersion;
}
public int getFirmwareVersion() {
return firmwareVersion;
}
// note: we're only looking at user memory, so 0x08800000 - 0x0A000000
// this is mainly to make it fit on one console line
public void dumpSysMemInfo() {
final int MEMORY_SIZE = 0x1800000;
final int SLOT_COUNT = 64; // 0x60000
final int SLOT_SIZE = MEMORY_SIZE / SLOT_COUNT; // 0x60000
boolean[] allocated = new boolean[SLOT_COUNT];
boolean[] fragmented = new boolean[SLOT_COUNT];
int allocatedSize = 0;
int fragmentedSize = 0;
for (Iterator<SysMemInfo> it = blockList.values().iterator(); it.hasNext(); ) {
SysMemInfo info = it.next();
for (int i = info.addr; i < info.addr + info.size; i += SLOT_SIZE) {
if (i >= 0x08800000 && i < 0x0A000000) {
allocated[(i - 0x08800000) / SLOT_SIZE] = true;
}
}
allocatedSize += info.size;
}
for (MemoryChunk memoryChunk = freeMemoryChunks[USER_PARTITION_ID].getLowMemoryChunk();
memoryChunk != null;
memoryChunk = memoryChunk.next) {
for (int i = memoryChunk.addr; i < memoryChunk.addr + memoryChunk.size; i += SLOT_SIZE) {
if (i >= 0x08800000 && i < 0x0A000000) {
fragmented[(i - 0x08800000) / SLOT_SIZE] = true;
}
}
fragmentedSize += memoryChunk.size;
}
StringBuilder allocatedDiagram = new StringBuilder();
allocatedDiagram.append("[");
for (int i = 0; i < SLOT_COUNT; i++) {
allocatedDiagram.append(allocated[i] ? "X" : " ");
}
allocatedDiagram.append("]");
StringBuilder fragmentedDiagram = new StringBuilder();
fragmentedDiagram.append("[");
for (int i = 0; i < SLOT_COUNT; i++) {
fragmentedDiagram.append(fragmented[i] ? "X" : " ");
}
fragmentedDiagram.append("]");
DumpDebugState.log("++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++");
DumpDebugState.log(
String.format("Allocated memory: %08X %d bytes", allocatedSize, allocatedSize));
DumpDebugState.log(allocatedDiagram.toString());
DumpDebugState.log(
String.format("Fragmented memory: %08X %d bytes", fragmentedSize, fragmentedSize));
DumpDebugState.log(fragmentedDiagram.toString());
DumpDebugState.log("Free list: " + getDebugFreeMem());
DumpDebugState.log("Allocated blocks:\n" + getDebugAllocatedMem() + "\n");
}
public int hleKernelPrintf(
CpuState cpu, PspString formatString, Logger logger, String sceFunctionName) {
// Format and print the message to stdout
if (logger.isInfoEnabled()) {
String formattedMsg = formatString.getString();
try {
// For now, use only the 7 register parameters: $a1-$a3, $t0-$t3
// Further parameters should be retrieved from the stack.
Object[] formatParameters =
new Object[] {cpu._a1, cpu._a2, cpu._a3, cpu._t0, cpu._t1, cpu._t2, cpu._t3};
// Translate the C-like format string to a Java format string:
// - %u or %i -> %d
// - %4u -> %4d
// - %lld or %ld -> %d
// - %p -> %08X
String javaMsg = formatString.getString();
javaMsg = javaMsg.replaceAll("\\%(\\d*)l?l?[uid]", "%$1d");
javaMsg = javaMsg.replaceAll("\\%p", "%08X");
// Support for "%s" (at any place and can occur multiple times)
int index = -1;
for (int parameterIndex = 0; parameterIndex < formatParameters.length; parameterIndex++) {
index = javaMsg.indexOf('%', index + 1);
if (index < 0) {
break;
}
String parameterFormat = javaMsg.substring(index);
if (parameterFormat.startsWith("%s")) {
// Convert an integer address to a String by reading
// the String at the given address
formatParameters[parameterIndex] =
Utilities.readStringZ(((Integer) formatParameters[parameterIndex]).intValue());
}
}
// String.format: If there are more arguments than format specifiers, the extra arguments
// are ignored.
formattedMsg = String.format(javaMsg, formatParameters);
} catch (Exception e) {
// Ignore formatting exception
}
logger.info(formattedMsg);
}
return 0;
}
public int hleKernelGetCompiledSdkVersion() {
return compiledSdkVersion;
}
protected void hleSetCompiledSdkVersion(int sdkVersion) {
compiledSdkVersion = sdkVersion;
}
@HLEFunction(nid = 0xA291F107, version = 150)
public int sceKernelMaxFreeMemSize() {
int maxFreeMemSize = maxFreeMemSize();
// Some games expect size to be rounded down in 16 bytes block
maxFreeMemSize &= ~15;
if (log.isDebugEnabled()) {
log.debug(String.format("sceKernelMaxFreeMemSize returning %d(hex=0x%1$X)", maxFreeMemSize));
}
return maxFreeMemSize;
}
@HLEFunction(nid = 0xF919F628, version = 150)
public int sceKernelTotalFreeMemSize() {
int totalFreeMemSize = totalFreeMemSize();
if (log.isDebugEnabled()) {
log.debug(
String.format("sceKernelTotalFreeMemSize returning %d(hex=0x%1$X)", totalFreeMemSize));
}
return totalFreeMemSize;
}
@HLEFunction(nid = 0x237DBD4F, version = 150)
public int sceKernelAllocPartitionMemory(
int partitionid, String name, int type, int size, int addr) {
addr &= Memory.addressMask;
if (type < PSP_SMEM_Low || type > PSP_SMEM_HighAligned) {
return SceKernelErrors.ERROR_KERNEL_ILLEGAL_MEMBLOCK_ALLOC_TYPE;
}
SysMemInfo info = malloc(partitionid, name, type, size, addr);
if (info == null) {
return SceKernelErrors.ERROR_KERNEL_FAILED_ALLOC_MEMBLOCK;
}
return info.uid;
}
@HLEFunction(nid = 0xB6D61D02, version = 150)
public int sceKernelFreePartitionMemory(int uid) {
SceUidManager.checkUidPurpose(uid, "SysMem", true);
SysMemInfo info = blockList.remove(uid);
if (info == null) {
log.warn(String.format("sceKernelFreePartitionMemory unknown uid=0x%X", uid));
return SceKernelErrors.ERROR_KERNEL_ILLEGAL_CHUNK_ID;
}
free(info);
return 0;
}
@HLEFunction(nid = 0x9D9A5BA1, version = 150)
public int sceKernelGetBlockHeadAddr(int uid) {
SceUidManager.checkUidPurpose(uid, "SysMem", true);
SysMemInfo info = blockList.get(uid);
if (info == null) {
log.warn(String.format("sceKernelGetBlockHeadAddr unknown uid=0x%X", uid));
return SceKernelErrors.ERROR_KERNEL_ILLEGAL_CHUNK_ID;
}
return info.addr;
}
@HLEFunction(nid = 0x13A5ABEF, version = 150)
public int sceKernelPrintf(CpuState cpu, PspString formatString) {
return hleKernelPrintf(cpu, formatString, stdout, "sceKernelPrintf");
}
@HLEFunction(nid = 0x3FC9AE6A, version = 150)
public int sceKernelDevkitVersion() {
int major = firmwareVersion / 100;
int minor = (firmwareVersion / 10) % 10;
int revision = firmwareVersion % 10;
int devkitVersion = (major << 24) | (minor << 16) | (revision << 8) | 0x10;
if (log.isDebugEnabled()) {
log.debug(String.format("sceKernelDevkitVersion returning 0x%08X", devkitVersion));
}
return devkitVersion;
}
@HLEFunction(nid = 0xD8DE5C1E, version = 150)
public int SysMemUserForUser_D8DE5C1E() {
// Seems to always return 0...
return 0;
}
@HLEFunction(nid = 0xFC114573, version = 200)
public int sceKernelGetCompiledSdkVersion() {
return compiledSdkVersion;
}
@HLEFunction(nid = 0x7591C7DB, version = 200)
public int sceKernelSetCompiledSdkVersion(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0xF77D77CB, version = 200)
public int sceKernelSetCompilerVersion(int compilerVersion) {
this.compilerVersion = compilerVersion;
return 0;
}
@HLEUnimplemented
@HLEFunction(nid = 0xA6848DF8, version = 200)
public int SysMemUserForUser_A6848DF8() {
return 0;
}
@HLEUnimplemented
@HLEFunction(nid = 0x2A3E5280, version = 280)
public int sceKernelQueryMemoryInfo() {
return 0;
}
@HLEUnimplemented
@HLEFunction(nid = 0x39F49610, version = 280)
public int sceKernelGetPTRIG() {
return 0;
}
@HLEUnimplemented
@HLEFunction(nid = 0x6231A71D, version = 280)
public int sceKernelSetPTRIG() {
return 0;
}
// sceKernelFreeMemoryBlock (internal name)
@HLEFunction(nid = 0x50F61D8A, version = 352)
public int SysMemUserForUser_50F61D8A(int uid) {
SysMemInfo info = blockList.remove(uid);
if (info == null) {
log.warn("SysMemUserForUser_50F61D8A(uid=0x" + Integer.toHexString(uid) + ") unknown uid");
return SceKernelErrors.ERROR_KERNEL_UNKNOWN_UID;
}
free(info);
return 0;
}
@HLEUnimplemented
@HLEFunction(nid = 0xACBD88CA, version = 352)
public int SysMemUserForUser_ACBD88CA() {
return 0;
}
// sceKernelGetMemoryBlockAddr (internal name)
@HLEFunction(nid = 0xDB83A952, version = 352)
public int SysMemUserForUser_DB83A952(int uid, TPointer32 addr) {
SysMemInfo info = blockList.get(uid);
if (info == null) {
log.warn(
String.format("SysMemUserForUser_DB83A952 uid=0x%X, addr=%s: unknown uid", uid, addr));
return SceKernelErrors.ERROR_KERNEL_UNKNOWN_UID;
}
addr.setValue(info.addr);
return 0;
}
// sceKernelAllocMemoryBlock (internal name)
@HLEFunction(nid = 0xFE707FDF, version = 352)
public int SysMemUserForUser_FE707FDF(
@StringInfo(maxLength = 32) PspString name,
int type,
int size,
@CanBeNull TPointer paramsAddr) {
if (paramsAddr.isNotNull()) {
int length = paramsAddr.getValue32();
if (length != 4) {
log.warn(
String.format("SysMemUserForUser_FE707FDF: unknown parameters with length=%d", length));
}
}
if (type < PSP_SMEM_Low || type > PSP_SMEM_High) {
return SceKernelErrors.ERROR_KERNEL_ILLEGAL_MEMBLOCK_ALLOC_TYPE;
}
// Always allocate memory in user area (partitionid == 2).
SysMemInfo info = malloc(SysMemUserForUser.USER_PARTITION_ID, name.getString(), type, size, 0);
if (info == null) {
return SceKernelErrors.ERROR_KERNEL_FAILED_ALLOC_MEMBLOCK;
}
return info.uid;
}
@HLEFunction(nid = 0x342061E5, version = 370)
public int sceKernelSetCompiledSdkVersion370(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0x315AD3A0, version = 380)
public int sceKernelSetCompiledSdkVersion380_390(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0xEBD5C3E6, version = 395)
public int sceKernelSetCompiledSdkVersion395(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0x91DE343C, version = 500)
public int sceKernelSetCompiledSdkVersion500_505(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0x7893F79A, version = 507)
public int sceKernelSetCompiledSdkVersion507(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0x35669D4C, version = 600)
public int sceKernelSetCompiledSdkVersion600_602(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0x1B4217BC, version = 603)
public int sceKernelSetCompiledSdkVersion603_605(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
@HLEFunction(nid = 0x358CA1BB, version = 606)
public int sceKernelSetCompiledSdkVersion606(int sdkVersion) {
hleSetCompiledSdkVersion(sdkVersion);
return 0;
}
}
