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added a bunch of threading code, recycled from PPSSPP, with lots of hacks in for 3DS... doesn't really do much yet. Just a jumping off point

master
bunnei 2014-05-13 22:00:11 +07:00
parent b87536e82c
commit 3838d46b90
2 changed files with 542 additions and 69 deletions
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586
src/core/hle/kernel/thread.cpp
Unescape Escape View File

@ -11,10 +11,212 @@
#include "common/common.h" #include "common/common.h"
#include "core/core.h"
#include "core/mem_map.h"
#include "core/hle/kernel/kernel.h" #include "core/hle/kernel/kernel.h"
#include "core/hle/kernel/thread.h" #include "core/hle/kernel/thread.h"
// Real CTR struct, don't change the fields. struct ThreadQueueList {
// Number of queues (number of priority levels starting at 0.)
static const int NUM_QUEUES = 128;
// Initial number of threads a single queue can handle.
static const int INITIAL_CAPACITY = 32;
struct Queue {
// Next ever-been-used queue (worse priority.)
Queue *next;
// First valid item in data.
int first;
// One after last valid item in data.
int end;
// A too-large array with room on the front and end.
UID *data;
// Size of data array.
int capacity;
};
ThreadQueueList() {
memset(queues, 0, sizeof(queues));
first = invalid();
}
~ThreadQueueList() {
for (int i = 0; i < NUM_QUEUES; ++i) {
if (queues[i].data != NULL) {
free(queues[i].data);
}
}
}
// Only for debugging, returns priority level.
int contains(const UID uid) {
for (int i = 0; i < NUM_QUEUES; ++i) {
if (queues[i].data == NULL) {
continue;
}
Queue *cur = &queues[i];
for (int j = cur->first; j < cur->end; ++j) {
if (cur->data[j] == uid) {
return i;
}
}
}
return -1;
}
inline UID pop_first() {
Queue *cur = first;
while (cur != invalid()) {
if (cur->end - cur->first > 0) {
return cur->data[cur->first++];
}
cur = cur->next;
}
_dbg_assert_msg_(KERNEL, false, "ThreadQueueList should not be empty.");
return 0;
}
inline UID pop_first_better(u32 priority) {
Queue *cur = first;
Queue *stop = &queues[priority];
while (cur < stop) {
if (cur->end - cur->first > 0) {
return cur->data[cur->first++];
}
cur = cur->next;
}
return 0;
}
inline void push_front(u32 priority, const UID thread_id) {
Queue *cur = &queues[priority];
cur->data[--cur->first] = thread_id;
if (cur->first == 0) {
rebalance(priority);
}
}
inline void push_back(u32 priority, const UID thread_id)
{
Queue *cur = &queues[priority];
cur->data[cur->end++] = thread_id;
if (cur->end == cur->capacity) {
rebalance(priority);
}
}
inline void remove(u32 priority, const UID thread_id) {
Queue *cur = &queues[priority];
_dbg_assert_msg_(KERNEL, cur->next != NULL, "ThreadQueueList::Queue should already be linked up.");
for (int i = cur->first; i < cur->end; ++i) {
if (cur->data[i] == thread_id) {
int remaining = --cur->end - i;
if (remaining > 0) {
memmove(&cur->data[i], &cur->data[i + 1], remaining * sizeof(UID));
}
return;
}
}
// Wasn't there.
}
inline void rotate(u32 priority) {
Queue *cur = &queues[priority];
_dbg_assert_msg_(KERNEL, cur->next != NULL, "ThreadQueueList::Queue should already be linked up.");
if (cur->end - cur->first > 1) {
cur->data[cur->end++] = cur->data[cur->first++];
if (cur->end == cur->capacity) {
rebalance(priority);
}
}
}
inline void clear() {
for (int i = 0; i < NUM_QUEUES; ++i) {
if (queues[i].data != NULL) {
free(queues[i].data);
}
}
memset(queues, 0, sizeof(queues));
first = invalid();
}
inline bool empty(u32 priority) const {
const Queue *cur = &queues[priority];
return cur->first == cur->end;
}
inline void prepare(u32 priority) {
Queue *cur = &queues[priority];
if (cur->next == NULL) {
link(priority, INITIAL_CAPACITY);
}
}
private:
Queue *invalid() const {
return (Queue *)-1;
}
void link(u32 priority, int size) {
_dbg_assert_msg_(KERNEL, queues[priority].data == NULL, "ThreadQueueList::Queue should only be initialized once.");
if (size <= INITIAL_CAPACITY) {
size = INITIAL_CAPACITY;
} else {
int goal = size;
size = INITIAL_CAPACITY;
while (size < goal)
size *= 2;
}
Queue *cur = &queues[priority];
cur->data = (UID*)malloc(sizeof(UID)* size);
cur->capacity = size;
cur->first = size / 2;
cur->end = size / 2;
for (int i = (int)priority - 1; i >= 0; --i) {
if (queues[i].next != NULL) {
cur->next = queues[i].next;
queues[i].next = cur;
return;
}
}
cur->next = first;
first = cur;
}
void rebalance(u32 priority) {
Queue *cur = &queues[priority];
int size = cur->end - cur->first;
if (size >= cur->capacity - 2) {
UID* new_data = (UID*)realloc(cur->data, cur->capacity * 2 * sizeof(UID));
if (new_data != NULL) {
cur->capacity *= 2;
cur->data = new_data;
}
}
int newFirst = (cur->capacity - size) / 2;
if (newFirst != cur->first) {
memmove(&cur->data[newFirst], &cur->data[cur->first], size * sizeof(UID));
cur->first = newFirst;
cur->end = newFirst + size;
}
}
// The first queue that's ever been used.
Queue* first;
// The priority level queues of thread ids.
Queue queues[NUM_QUEUES];
};
// Supposed to represent a real CTR struct... but not sure of the correct fields yet.
struct NativeThread { struct NativeThread {
//u32 Pointer to vtable //u32 Pointer to vtable
//u32 Reference count //u32 Reference count
@ -25,6 +227,22 @@ struct NativeThread {
// if the beginning of this mapped page is 0xFF401000, this ptr would be 0xFF402000. // if the beginning of this mapped page is 0xFF401000, this ptr would be 0xFF402000.
//KThread* Previous ? (virtual address) //KThread* Previous ? (virtual address)
//KThread* Next ? (virtual address) //KThread* Next ? (virtual address)
u32_le native_size;
char name[KERNELOBJECT_MAX_NAME_LENGTH + 1];
// Threading stuff
u32_le status;
u32_le entry_point;
u32_le initial_stack;
u32_le stack_top;
u32_le stack_size;
u32_le arg;
u32_le processor_id;
s32_le initial_priority;
s32_le current_priority;
}; };
struct ThreadWaitInfo { struct ThreadWaitInfo {
@ -52,42 +270,23 @@ public:
//} //}
//static u32 GetMissingErrorCode() { return SCE_KERNEL_ERROR_UNKNOWN_THID; } //static u32 GetMissingErrorCode() { return SCE_KERNEL_ERROR_UNKNOWN_THID; }
//static int GetStaticIDType() { return SCE_KERNEL_TMID_Thread; } static KernelIDType GetStaticIDType() { return KERNEL_ID_TYPE_THREAD; }
//int GetIDType() const { return SCE_KERNEL_TMID_Thread; } KernelIDType GetIDType() const { return KERNEL_ID_TYPE_THREAD; }
//bool AllocateStack(u32 &stack_size) { bool SetupStack(u32 stack_top, int stack_size) {
// FreeStack(); current_stack.start = stack_top;
nt.initial_stack = current_stack.start;
// bool fromTop = (nt.attr & PSP_THREAD_ATTR_LOW_STACK) == 0; nt.stack_size = stack_size;
// if (nt.attr & PSP_THREAD_ATTR_KERNEL) return true;
// { }
// // Allocate stacks for kernel threads (idle) in kernel RAM
// currentStack.start = kernelMemory.Alloc(stack_size, fromTop, (std::string("stack/") + nt.name).c_str());
// }
// else
// {
// currentStack.start = userMemory.Alloc(stack_size, fromTop, (std::string("stack/") + nt.name).c_str());
// }
// if (currentStack.start == (u32)-1)
// {
// currentStack.start = 0;
// nt.initialStack = 0;
// ERROR_LOG(KERNEL, "Failed to allocate stack for thread");
// return false;
// }
// nt.initialStack = currentStack.start;
// nt.stack_size = stack_size;
// return true;
//}
//bool FillStack() { //bool FillStack() {
// // Fill the stack. // // Fill the stack.
// if ((nt.attr & PSP_THREAD_ATTR_NO_FILLSTACK) == 0) { // if ((nt.attr & PSP_THREAD_ATTR_NO_FILLSTACK) == 0) {
// Memory::Memset(currentStack.start, 0xFF, nt.stack_size); // Memory::Memset(current_stack.start, 0xFF, nt.stack_size);
// } // }
// context.r[MIPS_REG_SP] = currentStack.start + nt.stack_size; // context.r[MIPS_REG_SP] = current_stack.start + nt.stack_size;
// currentStack.end = context.r[MIPS_REG_SP]; // current_stack.end = context.r[MIPS_REG_SP];
// // The k0 section is 256 bytes at the top of the stack. // // The k0 section is 256 bytes at the top of the stack.
// context.r[MIPS_REG_SP] -= 256; // context.r[MIPS_REG_SP] -= 256;
// context.r[MIPS_REG_K0] = context.r[MIPS_REG_SP]; // context.r[MIPS_REG_K0] = context.r[MIPS_REG_SP];
@ -104,7 +303,7 @@ public:
//} //}
//void FreeStack() { //void FreeStack() {
// if (currentStack.start != 0) { // if (current_stack.start != 0) {
// DEBUG_LOG(KERNEL, "Freeing thread stack %s", nt.name); // DEBUG_LOG(KERNEL, "Freeing thread stack %s", nt.name);
// if ((nt.attr & PSP_THREAD_ATTR_CLEAR_STACK) != 0 && nt.initialStack != 0) { // if ((nt.attr & PSP_THREAD_ATTR_CLEAR_STACK) != 0 && nt.initialStack != 0) {
@ -112,12 +311,12 @@ public:
// } // }
// if (nt.attr & PSP_THREAD_ATTR_KERNEL) { // if (nt.attr & PSP_THREAD_ATTR_KERNEL) {
// kernelMemory.Free(currentStack.start); // kernelMemory.Free(current_stack.start);
// } // }
// else { // else {
// userMemory.Free(currentStack.start); // userMemory.Free(current_stack.start);
// } // }
// currentStack.start = 0; // current_stack.start = 0;
// } // }
//} //}
@ -126,14 +325,14 @@ public:
// if (stack == (u32)-1) // if (stack == (u32)-1)
// return false; // return false;
// pushed_stacks.push_back(currentStack); // pushed_stacks.push_back(current_stack);
// currentStack.start = stack; // current_stack.start = stack;
// currentStack.end = stack + size; // current_stack.end = stack + size;
// nt.initialStack = currentStack.start; // nt.initialStack = current_stack.start;
// nt.stack_size = currentStack.end - currentStack.start; // nt.stack_size = current_stack.end - current_stack.start;
// // We still drop the threadID at the bottom and fill it, but there's no k0. // // We still drop the thread_id at the bottom and fill it, but there's no k0.
// Memory::Memset(currentStack.start, 0xFF, nt.stack_size); // Memory::Memset(current_stack.start, 0xFF, nt.stack_size);
// Memory::Write_U32(GetUID(), nt.initialStack); // Memory::Write_U32(GetUID(), nt.initialStack);
// return true; // return true;
//} //}
@ -142,16 +341,16 @@ public:
// if (pushed_stacks.size() == 0) { // if (pushed_stacks.size() == 0) {
// return false; // return false;
// } // }
// userMemory.Free(currentStack.start); // userMemory.Free(current_stack.start);
// currentStack = pushed_stacks.back(); // current_stack = pushed_stacks.back();
// pushed_stacks.pop_back(); // pushed_stacks.pop_back();
// nt.initialStack = currentStack.start; // nt.initialStack = current_stack.start;
// nt.stack_size = currentStack.end - currentStack.start; // nt.stack_size = current_stack.end - current_stack.start;
// return true; // return true;
//} //}
Thread() { Thread() {
currentStack.start = 0; current_stack.start = 0;
} }
// Can't use a destructor since savestates will call that too. // Can't use a destructor since savestates will call that too.
@ -177,20 +376,20 @@ public:
ThreadWaitInfo getWaitInfo(); ThreadWaitInfo getWaitInfo();
// Utils // Utils
//inline bool isRunning() const { return (nt.status & THREADSTATUS_RUNNING) != 0; } inline bool IsRunning() const { return (nt.status & THREADSTATUS_RUNNING) != 0; }
//inline bool isStopped() const { return (nt.status & THREADSTATUS_DORMANT) != 0; } inline bool IsStopped() const { return (nt.status & THREADSTATUS_DORMANT) != 0; }
//inline bool isReady() const { return (nt.status & THREADSTATUS_READY) != 0; } inline bool IsReady() const { return (nt.status & THREADSTATUS_READY) != 0; }
//inline bool isWaiting() const { return (nt.status & THREADSTATUS_WAIT) != 0; } inline bool IsWaiting() const { return (nt.status & THREADSTATUS_WAIT) != 0; }
//inline bool isSuspended() const { return (nt.status & THREADSTATUS_SUSPEND) != 0; } inline bool IsSuspended() const { return (nt.status & THREADSTATUS_SUSPEND) != 0; }
NativeThread nt; NativeThread nt;
ThreadWaitInfo waitInfo; ThreadWaitInfo waitInfo;
UID moduleId; UID moduleId;
bool isProcessingCallbacks; //bool isProcessingCallbacks;
u32 currentMipscallId; //u32 currentMipscallId;
UID currentCallbackId; //UID currentCallbackId;
ThreadContext context; ThreadContext context;
@ -206,7 +405,7 @@ public:
// These are stacks that aren't "active" right now, but will pop off once the func returns. // These are stacks that aren't "active" right now, but will pop off once the func returns.
std::vector<StackInfo> pushed_stacks; std::vector<StackInfo> pushed_stacks;
StackInfo currentStack; StackInfo current_stack;
// For thread end. // For thread end.
std::vector<UID> waiting_threads; std::vector<UID> waiting_threads;
@ -214,15 +413,276 @@ public:
std::map<UID, u64> paused_waits; std::map<UID, u64> paused_waits;
}; };
void ThreadContext::reset() {
for (int i = 0; i < 16; i++) {
reg[i] = 0;
}
reg[13] = Memory::SCRATCHPAD_VADDR_END;
cpsr = 0;
}
// Lists all thread ids that aren't deleted/etc.
std::vector<UID> g_thread_queue;
// Lists only ready thread ids
ThreadQueueList g_thread_ready_queue;
UID g_current_thread;
Thread* g_current_thread_ptr;
const char *g_hle_current_thread_name = NULL;
Thread* __KernelCreateThread(UID& id, UID module_id, const char* name, u32 priority,
u32 entrypoint, u32 arg, u32 stack_top, u32 processor_id, int stack_size) {
Thread *t = new Thread;
id = g_kernel_objects.Create(t);
g_thread_queue.push_back(id);
g_thread_ready_queue.prepare(priority);
memset(&t->nt, 0xCD, sizeof(t->nt));
t->nt.entry_point = entrypoint;
t->nt.native_size = sizeof(t->nt);
t->nt.initial_priority = t->nt.current_priority = priority;
t->nt.status = THREADSTATUS_DORMANT;
t->nt.initial_stack = t->nt.stack_top = stack_top;
t->nt.stack_size = stack_size;
t->nt.processor_id = processor_id;
strncpy(t->nt.name, name, KERNELOBJECT_MAX_NAME_LENGTH);
t->nt.name[KERNELOBJECT_MAX_NAME_LENGTH] = '\0';
t->nt.stack_size = stack_size;
t->SetupStack(stack_top, stack_size);
return t;
}
void __KernelResetThread(Thread *t, int lowest_priority) {
t->context.reset();
t->context.pc = t->nt.entry_point;
// If the thread would be better than lowestPriority, reset to its initial. Yes, kinda odd...
if (t->nt.current_priority < lowest_priority)
t->nt.current_priority = t->nt.initial_priority;
//t->nt.wait_type = WAITTYPE_NONE;
//t->nt.wait_id = 0;
memset(&t->waitInfo, 0, sizeof(t->waitInfo));
//t->nt.exitStatus = SCE_KERNEL_ERROR_NOT_DORMANT;
//t->isProcessingCallbacks = false;
//t->currentCallbackId = 0;
//t->currentMipscallId = 0;
//t->pendingMipsCalls.clear();
//t->context.r[MIPS_REG_RA] = threadReturnHackAddr; //hack! TODO fix
// TODO: Not sure if it's reset here, but this makes sense.
//t->context.r[MIPS_REG_GP] = t->nt.gpreg;
//t->FillStack();
//if (!t->waitingThreads.empty())
// ERROR_LOG(KERNEL, "Resetting thread with threads waiting on end?");
}
inline Thread *__GetCurrentThread() {
return g_current_thread_ptr;
}
inline void __SetCurrentThread(Thread *thread, UID thread_id, const char *name) {
g_current_thread = thread_id;
g_current_thread_ptr = thread;
g_hle_current_thread_name = name;
}
// TODO: Use __KernelChangeThreadState instead? It has other affects...
void __KernelChangeReadyState(Thread *thread, UID thread_id, bool ready) {
// Passing the id as a parameter is just an optimization, if it's wrong it will cause havoc.
_dbg_assert_msg_(KERNEL, thread->GetUID() == thread_id, "Incorrect thread_id");
int prio = thread->nt.current_priority;
if (thread->IsReady()) {
if (!ready)
g_thread_ready_queue.remove(prio, thread_id);
} else if (ready) {
if (thread->IsRunning()) {
g_thread_ready_queue.push_front(prio, thread_id);
} else {
g_thread_ready_queue.push_back(prio, thread_id);
}
thread->nt.status = THREADSTATUS_READY;
}
}
void __KernelChangeReadyState(UID thread_id, bool ready) {
u32 error;
Thread *thread = g_kernel_objects.Get<Thread>(thread_id, error);
if (thread) {
__KernelChangeReadyState(thread, thread_id, ready);
} else {
WARN_LOG(KERNEL, "Trying to change the ready state of an unknown thread?");
}
}
// Returns NULL if the current thread is fine.
Thread* __KernelNextThread() {
UID bestThread;
// If the current thread is running, it's a valid candidate.
Thread *cur = __GetCurrentThread();
if (cur && cur->IsRunning()) {
bestThread = g_thread_ready_queue.pop_first_better(cur->nt.current_priority);
if (bestThread != 0) {
__KernelChangeReadyState(cur, g_current_thread, true);
}
} else {
bestThread = g_thread_ready_queue.pop_first();
}
// Assume g_thread_ready_queue has not become corrupt.
if (bestThread != 0) {
return g_kernel_objects.GetFast<Thread>(bestThread);
} else {
return NULL;
}
}
// Saves the current CPU context
void __KernelSaveContext(ThreadContext *ctx) {
ctx->reg[0] = Core::g_app_core->GetReg(0);
ctx->reg[1] = Core::g_app_core->GetReg(1);
ctx->reg[2] = Core::g_app_core->GetReg(2);
ctx->reg[3] = Core::g_app_core->GetReg(3);
ctx->reg[4] = Core::g_app_core->GetReg(4);
ctx->reg[5] = Core::g_app_core->GetReg(5);
ctx->reg[6] = Core::g_app_core->GetReg(6);
ctx->reg[7] = Core::g_app_core->GetReg(7);
ctx->reg[8] = Core::g_app_core->GetReg(8);
ctx->reg[9] = Core::g_app_core->GetReg(9);
ctx->reg[10] = Core::g_app_core->GetReg(10);
ctx->reg[11] = Core::g_app_core->GetReg(11);
ctx->reg[12] = Core::g_app_core->GetReg(12);
ctx->reg[13] = Core::g_app_core->GetReg(13);
ctx->reg[14] = Core::g_app_core->GetReg(14);
ctx->reg[15] = Core::g_app_core->GetReg(15);
ctx->pc = Core::g_app_core->GetPC();
ctx->cpsr = Core::g_app_core->GetCPSR();
}
// Loads a CPU context
void __KernelLoadContext(ThreadContext *ctx) {
Core::g_app_core->SetReg(0, ctx->reg[0]);
Core::g_app_core->SetReg(1, ctx->reg[1]);
Core::g_app_core->SetReg(2, ctx->reg[2]);
Core::g_app_core->SetReg(3, ctx->reg[3]);
Core::g_app_core->SetReg(4, ctx->reg[4]);
Core::g_app_core->SetReg(5, ctx->reg[5]);
Core::g_app_core->SetReg(6, ctx->reg[6]);
Core::g_app_core->SetReg(7, ctx->reg[7]);
Core::g_app_core->SetReg(8, ctx->reg[8]);
Core::g_app_core->SetReg(9, ctx->reg[9]);
Core::g_app_core->SetReg(10, ctx->reg[10]);
Core::g_app_core->SetReg(11, ctx->reg[11]);
Core::g_app_core->SetReg(12, ctx->reg[12]);
Core::g_app_core->SetReg(13, ctx->reg[13]);
Core::g_app_core->SetReg(14, ctx->reg[14]);
Core::g_app_core->SetReg(15, ctx->reg[15]);
Core::g_app_core->SetPC(ctx->pc);
Core::g_app_core->SetCPSR(ctx->cpsr);
}
void __KernelSwitchContext(Thread *target, const char *reason) {
u32 oldPC = 0;
UID oldUID = 0;
const char *oldName = g_hle_current_thread_name != NULL ? g_hle_current_thread_name : "(none)";
Thread *cur = __GetCurrentThread();
if (cur) { // It might just have been deleted.
__KernelSaveContext(&cur->context);
oldPC = Core::g_app_core->GetPC();
oldUID = cur->GetUID();
// Normally this is taken care of in __KernelNextThread().
if (cur->IsRunning())
__KernelChangeReadyState(cur, oldUID, true);
}
if (target) {
__SetCurrentThread(target, target->GetUID(), target->nt.name);
__KernelChangeReadyState(target, g_current_thread, false);
target->nt.status = (target->nt.status | THREADSTATUS_RUNNING) & ~THREADSTATUS_READY;
__KernelLoadContext(&target->context);
} else {
__SetCurrentThread(NULL, 0, NULL);
}
#if DEBUG_LEVEL <= MAX_LOGLEVEL || DEBUG_LOG == NOTICE_LOG
//bool fromIdle = oldUID == threadIdleID[0] || oldUID == threadIdleID[1];
//bool toIdle = currentThread == threadIdleID[0] || currentThread == threadIdleID[1];
//if (!(fromIdle && toIdle))
//{
// u64 nowCycles = CoreTiming::GetTicks();
// s64 consumedCycles = nowCycles - lastSwitchCycles;
// lastSwitchCycles = nowCycles;
// DEBUG_LOG(SCEKERNEL, "Context switch: %s -> %s (%i->%i, pc: %08x->%08x, %s) +%lldus",
// oldName, hleCurrentThreadName,
// oldUID, currentThread,
// oldPC, currentMIPS->pc,
// reason,
// cyclesToUs(consumedCycles));
//}
#endif
if (target) {
//// No longer waiting.
//target->nt.waitType = WAITTYPE_NONE;
//target->nt.waitID = 0;
//__KernelExecutePendingARMCalls(target, true);
}
}
UID __KernelSetupRootThread(UID module_id, int arg, int prio, int stack_size) {
UID id;
Thread *thread = __KernelCreateThread(id, module_id, "root", prio, Core::g_app_core->GetPC(),
arg, Memory::SCRATCHPAD_VADDR_END, 0xFFFFFFFE, stack_size=stack_size);
if (thread->current_stack.start == 0) {
ERROR_LOG(KERNEL, "Unable to allocate stack for root thread.");
}
__KernelResetThread(thread, 0);
Thread *prev_thread = __GetCurrentThread();
if (prev_thread && prev_thread->IsRunning())
__KernelChangeReadyState(g_current_thread, true);
__SetCurrentThread(thread, id, "root");
thread->nt.status = THREADSTATUS_RUNNING; // do not schedule
strcpy(thread->nt.name, "root");
__KernelLoadContext(&thread->context);
// NOTE(bunnei): Not sure this is really correct, ignore args for now...
//Core::g_app_core->SetReg(0, args);
//Core::g_app_core->SetReg(13, (args + 0xf) & ~0xf); // Setup SP - probably not correct
//u32 location = Core::g_app_core->GetReg(13); // SP
//Core::g_app_core->SetReg(1, location);
//if (argp)
// Memory::Memcpy(location, argp, args);
//// Let's assume same as starting a new thread, 64 bytes for safety/kernel.
//Core::g_app_core->SetReg(13, Core::g_app_core->GetReg(13) - 64);
return id;
}
void __KernelThreadingInit() { void __KernelThreadingInit() {
} }
void __KernelThreadingShutdown() { void __KernelThreadingShutdown() {
} }
//const char *__KernelGetThreadName(UID threadID);
//
//void __KernelSaveContext(ThreadContext *ctx);
//void __KernelLoadContext(ThreadContext *ctx);
//void __KernelSwitchContext(Thread *target, const char *reason);

25
src/core/hle/kernel/thread.h
Unescape Escape View File

@ -7,12 +7,12 @@
#include "common/common_types.h" #include "common/common_types.h"
enum ThreadStatus { enum ThreadStatus {
THREADSTATUS_RUNNING = 1, THREADSTATUS_RUNNING = 1,
THREADSTATUS_READY = 2, THREADSTATUS_READY = 2,
THREADSTATUS_WAIT = 4, THREADSTATUS_WAIT = 4,
THREADSTATUS_SUSPEND = 8, THREADSTATUS_SUSPEND = 8,
THREADSTATUS_DORMANT = 16, THREADSTATUS_DORMANT = 16,
THREADSTATUS_DEAD = 32, THREADSTATUS_DEAD = 32,
THREADSTATUS_WAITSUSPEND = THREADSTATUS_WAIT | THREADSTATUS_SUSPEND THREADSTATUS_WAITSUSPEND = THREADSTATUS_WAIT | THREADSTATUS_SUSPEND
}; };
@ -25,6 +25,19 @@ struct ThreadContext {
u32 pc; u32 pc;
}; };
class Thread;
Thread* __KernelCreateThread(UID& id, UID module_id, const char* name, u32 priority, u32 entrypoint,
u32 arg, u32 stack_top, u32 processor_id, int stack_size=0x4000);
void __KernelResetThread(Thread *t, int lowest_priority);
void __KernelChangeReadyState(Thread *thread, UID thread_id, bool ready);
void __KernelChangeReadyState(UID thread_id, bool ready);
Thread* __KernelNextThread();
void __KernelSaveContext(ThreadContext *ctx);
void __KernelLoadContext(ThreadContext *ctx);
void __KernelSwitchContext(Thread *target, const char *reason);
UID __KernelSetupRootThread(UID module_id, int arg, int prio, int stack_size=0x4000);
void __KernelThreadingInit(); void __KernelThreadingInit();
void __KernelThreadingShutdown(); void __KernelThreadingShutdown();