* proc.c
*/
#include <acess.h>
+#include <threads.h>
#include <proc.h>
#include <desctab.h>
#include <mm_virt.h>
#if USE_MP
# include <mp.h>
#endif
+#include <hal_proc.h>
// === FLAGS ===
#define DEBUG_TRACE_SWITCH 0
+#define DEBUG_DISABLE_DOUBLEFAULT 1
+#define DEBUG_VERY_SLOW_SWITCH 0
// === CONSTANTS ===
-#define SWITCH_MAGIC 0xFFFACE55 // There is no code in this area
+#define SWITCH_MAGIC 0xFF5317C8 // FF SWITCH - There is no code in this area
// Base is 1193182
-#define TIMER_DIVISOR 11931 //~100Hz
+#define TIMER_BASE 1193182
+#if DEBUG_VERY_SLOW_PERIOD
+# define TIMER_DIVISOR 1193 //~10Hz switch, with 10 quantum = 1s per thread
+#else
+# define TIMER_DIVISOR 11932 //~100Hz
+#endif
// === TYPES ===
#if USE_MP
Uint8 State; // 0: Unavaliable, 1: Idle, 2: Active
Uint16 Resvd;
tThread *Current;
+ tThread *IdleThread;
} tCPU;
#endif
extern void APWait(void); // 16-bit AP pause code
extern void APStartup(void); // 16-bit AP startup code
extern Uint GetEIP(void); // start.asm
-extern int GetCPUNum(void); // start.asm
+extern Uint GetEIP_Sched(void); // proc.asm
extern Uint32 gaInitPageDir[1024]; // start.asm
-extern void Kernel_Stack_Top;
-extern tSpinlock glThreadListLock;
+extern char Kernel_Stack_Top[];
+extern tShortSpinlock glThreadListLock;
extern int giNumCPUs;
extern int giNextTID;
-extern int giTotalTickets;
-extern int giNumActiveThreads;
extern tThread gThreadZero;
-extern tThread *gActiveThreads;
-extern tThread *gSleepingThreads;
-extern tThread *gDeleteThreads;
-extern tThread *Threads_GetNextToRun(int CPU);
-extern void Threads_Dump(void);
-extern tThread *Threads_CloneTCB(Uint *Err, Uint Flags);
extern void Isr8(void); // Double Fault
-extern void Proc_ReturnToUser(void);
+extern void Proc_ReturnToUser(tVAddr Handler, Uint Argument, tVAddr KernelStack);
+extern void scheduler_return; // Return address in SchedulerBase
+extern void IRQCommon; // Common IRQ handler code
+extern void IRQCommon_handled; // IRQCommon call return location
+extern void GetEIP_Sched_ret; // GetEIP call return location
// === PROTOTYPES ===
-void ArchThreads_Init(void);
+//void ArchThreads_Init(void);
#if USE_MP
void MP_StartAP(int CPU);
void MP_SendIPI(Uint8 APICID, int Vector, int DeliveryMode);
#endif
-void Proc_Start(void);
-tThread *Proc_GetCurThread(void);
+//void Proc_Start(void);
+//tThread *Proc_GetCurThread(void);
void Proc_ChangeStack(void);
- int Proc_Clone(Uint *Err, Uint Flags);
+// int Proc_Clone(Uint *Err, Uint Flags);
+Uint Proc_MakeUserStack(void);
+//void Proc_StartUser(Uint Entrypoint, Uint *Bases, int ArgC, char **ArgV, char **EnvP, int DataSize);
void Proc_StartProcess(Uint16 SS, Uint Stack, Uint Flags, Uint16 CS, Uint IP);
-void Proc_CallFaultHandler(tThread *Thread);
+ int Proc_Demote(Uint *Err, int Dest, tRegs *Regs);
+//void Proc_CallFaultHandler(tThread *Thread);
+//void Proc_DumpThreadCPUState(tThread *Thread);
void Proc_Scheduler(int CPU);
// === GLOBALS ===
#if USE_MP
volatile int giNumInitingCPUs = 0;
tMPInfo *gMPFloatPtr = NULL;
-Uint32 giMP_TimerCount; // Start Count for Local APIC Timer
+volatile Uint32 giMP_TimerCount; // Start Count for Local APIC Timer
tAPIC *gpMP_LocalAPIC = NULL;
Uint8 gaAPIC_to_CPU[256] = {0};
tCPU gaCPUs[MAX_CPUS];
int giProc_BootProcessorID = 0;
#else
tThread *gCurrentThread = NULL;
-#endif
-#if USE_PAE
-Uint32 *gPML4s[4] = NULL;
+tThread *gpIdleThread = NULL;
#endif
tTSS *gTSSs = NULL; // Pointer to TSS array
tTSS gTSS0 = {0};
// --- Error Recovery ---
-char gaDoubleFaultStack[1024];
+char gaDoubleFaultStack[1024] __attribute__ ((section(".padata")));
tTSS gDoubleFault_TSS = {
- .ESP0 = (Uint)&gaDoubleFaultStack[1023],
+ .ESP0 = (Uint)&gaDoubleFaultStack[1024],
.SS0 = 0x10,
.CR3 = (Uint)gaInitPageDir - KERNEL_BASE,
.EIP = (Uint)Isr8,
- .ESP = (Uint)&gaDoubleFaultStack[1023],
+ .ESP = (Uint)&gaDoubleFaultStack[1024],
.CS = 0x08, .SS = 0x10,
.DS = 0x10, .ES = 0x10,
.FS = 0x10, .GS = 0x10,
}
break;
+
+ #if DUMP_MP_TABLES
case 1: // Bus
entSize = 8;
Log("%i: Bus", i);
default:
Log("%i: Unknown (%i)", i, ents->Type);
break;
+ #endif
}
ents = (void*)( (Uint)ents + entSize );
}
#else
giNumCPUs = 1;
gTSSs = &gTSS0;
- MM_FinishVirtualInit();
#endif
+ #if !DEBUG_DISABLE_DOUBLEFAULT
// Initialise Double Fault TSS
gGDT[5].BaseLow = (Uint)&gDoubleFault_TSS & 0xFFFF;
gGDT[5].BaseMid = (Uint)&gDoubleFault_TSS >> 16;
gIDT[8].CS = 5<<3;
gIDT[8].Flags = 0x8500;
gIDT[8].OffsetHi = 0;
+ #endif
// Set timer frequency
outb(0x43, 0x34); // Set Channel 0, Low/High, Rate Generator
outb(0x40, TIMER_DIVISOR&0xFF); // Low Byte of Divisor
outb(0x40, (TIMER_DIVISOR>>8)&0xFF); // High Byte
+
+ Log("Timer Frequency %i.%03i Hz",
+ TIMER_BASE/TIMER_DIVISOR,
+ ((Uint64)TIMER_BASE*1000/TIMER_DIVISOR)%1000
+ );
+
+ #if USE_MP
// Get the count setting for APIC timer
Log("Determining APIC Count");
__asm__ __volatile__ ("sti");
while( giMP_TimerCount == 0 ) __asm__ __volatile__ ("hlt");
__asm__ __volatile__ ("cli");
- Log("APIC Count %i\n", giMP_TimerCount);
+ Log("APIC Count %i", giMP_TimerCount);
+ {
+ Uint64 freq = giMP_TimerCount;
+ freq /= TIMER_DIVISOR;
+ freq *= TIMER_BASE;
+ if( (freq /= 1000) < 2*1000)
+ Log("Bus Frequency %i KHz", freq);
+ else if( (freq /= 1000) < 2*1000)
+ Log("Bus Frequency %i MHz", freq);
+ else if( (freq /= 1000) < 2*1000)
+ Log("Bus Frequency %i GHz", freq);
+ else
+ Log("Bus Frequency %i THz", freq);
+ }
- #if USE_MP
// Initialise Normal TSS(s)
for(pos=0;pos<giNumCPUs;pos++)
{
gTSSs[pos].SS0 = 0x10;
gTSSs[pos].ESP0 = 0; // Set properly by scheduler
gGDT[6+pos].BaseLow = ((Uint)(&gTSSs[pos])) & 0xFFFF;
- gGDT[6+pos].BaseMid = ((Uint)(&gTSSs[pos])) >> 16;
+ gGDT[6+pos].BaseMid = ((Uint)(&gTSSs[pos]) >> 16) & 0xFFFF;
gGDT[6+pos].BaseHi = ((Uint)(&gTSSs[pos])) >> 24;
#if USE_MP
}
-
- // Start APs
- for( pos = 0; pos < giNumCPUs; pos ++ )
- {
- gaCPUs[pos].Current = NULL;
- if( pos != giProc_BootProcessorID ) {
- MP_StartAP( pos );
- }
- }
-
- Log("Waiting for APs to come up\n");
- while( giNumInitingCPUs ) __asm__ __volatile__ ("hlt");
- MM_FinishVirtualInit();
- //Panic("Uh oh... MP Table Parsing is unimplemented\n");
#endif
// Load the BSP's TSS
__asm__ __volatile__ ("ltr %%ax"::"a"(0x30));
+ // Set Current Thread and CPU Number in DR0 and DR1
+ __asm__ __volatile__ ("mov %0, %%db0"::"r"(&gThreadZero));
+ __asm__ __volatile__ ("mov %0, %%db1"::"r"(0));
#if USE_MP
gaCPUs[0].Current = &gThreadZero;
#else
gCurrentThread = &gThreadZero;
#endif
+ gThreadZero.CurCPU = 0;
- #if USE_PAE
- gThreadZero.MemState.PDP[0] = 0;
- gThreadZero.MemState.PDP[1] = 0;
- gThreadZero.MemState.PDP[2] = 0;
- #else
gThreadZero.MemState.CR3 = (Uint)gaInitPageDir - KERNEL_BASE;
- #endif
// Create Per-Process Data Block
- MM_Allocate(MM_PPD_CFG);
+ if( !MM_Allocate(MM_PPD_CFG) )
+ {
+ Panic("OOM - No space for initial Per-Process Config");
+ }
// Change Stacks
Proc_ChangeStack();
// Set location of AP startup code and mark for a warm restart
*(Uint16*)(KERNEL_BASE|0x467) = (Uint)&APWait - (KERNEL_BASE|0xFFFF0);
*(Uint16*)(KERNEL_BASE|0x469) = 0xFFFF;
- outb(0x70, 0x0F); outb(0x71, 0x0A); // Warm Reset
+ outb(0x70, 0x0F); outb(0x71, 0x0A); // Set warm reset flag
MP_SendIPI(gaCPUs[CPU].APICID, 0, 5); // Init IPI
// Delay
*/
void Proc_Start(void)
{
+ #if USE_MP
+ int i;
+ #endif
+
+ #if USE_MP
+ // Start APs
+ for( i = 0; i < giNumCPUs; i ++ )
+ {
+ int tid;
+ if(i) gaCPUs[i].Current = NULL;
+
+ // Create Idle Task
+ if( (tid = Proc_Clone(0, 0)) == 0)
+ {
+ for(;;) HALT(); // Just yeilds
+ }
+ gaCPUs[i].IdleThread = Threads_GetThread(tid);
+ gaCPUs[i].IdleThread->ThreadName = (char*)"Idle Thread";
+ Threads_SetPriority( gaCPUs[i].IdleThread, -1 ); // Never called randomly
+ gaCPUs[i].IdleThread->Quantum = 1; // 1 slice quantum
+
+
+ // Start the AP
+ if( i != giProc_BootProcessorID ) {
+ MP_StartAP( i );
+ }
+ }
+
+ // BSP still should run the current task
+ gaCPUs[0].Current = &gThreadZero;
+
+ // Start interrupts and wait for APs to come up
+ Log("Waiting for APs to come up\n");
+ __asm__ __volatile__ ("sti");
+ while( giNumInitingCPUs ) __asm__ __volatile__ ("hlt");
+ #else
+ // Create Idle Task
+ if(Proc_Clone(0) == 0)
+ {
+ gpIdleThread = Proc_GetCurThread();
+ gpIdleThread->ThreadName = strdup("Idle Thread");
+ Threads_SetPriority( gpIdleThread, -1 ); // Never called randomly
+ gpIdleThread->Quantum = 1; // 1 slice quantum
+ for(;;) HALT(); // Just yeilds
+ }
+
+ // Set current task
+ gCurrentThread = &gThreadZero;
+
// Start Interrupts (and hence scheduler)
__asm__ __volatile__("sti");
+ #endif
+ MM_FinishVirtualInit();
}
/**
tThread *Proc_GetCurThread(void)
{
#if USE_MP
- //return gaCPUs[ gaAPIC_to_CPU[gpMP_LocalAPIC->ID.Val&0xFF] ].Current;
return gaCPUs[ GetCPUNum() ].Current;
#else
return gCurrentThread;
* \fn int Proc_Clone(Uint *Err, Uint Flags)
* \brief Clone the current process
*/
-int Proc_Clone(Uint *Err, Uint Flags)
+int Proc_Clone(Uint Flags)
{
tThread *newThread;
tThread *cur = Proc_GetCurThread();
__asm__ __volatile__ ("mov %%esp, %0": "=r"(esp));
__asm__ __volatile__ ("mov %%ebp, %0": "=r"(ebp));
- newThread = Threads_CloneTCB(Err, Flags);
+ newThread = Threads_CloneTCB(NULL, Flags);
if(!newThread) return -1;
// Initialise Memory Space (New Addr space or kernel stack)
if(Flags & CLONE_VM) {
newThread->MemState.CR3 = MM_Clone();
+ // Check for errors
+ if(newThread->MemState.CR3 == 0) {
+ Threads_Kill(newThread, -2);
+ return -1;
+ }
newThread->KernelStack = cur->KernelStack;
} else {
Uint tmpEbp, oldEsp = esp;
newThread->KernelStack = MM_NewKStack();
// Check for errors
if(newThread->KernelStack == 0) {
- free(newThread);
+ Threads_Kill(newThread, -2);
return -1;
}
newThread->SavedState.EBP = ebp;
eip = GetEIP();
if(eip == SWITCH_MAGIC) {
- outb(0x20, 0x20); // ACK Timer and return as child
+ //__asm__ __volatile__ ("mov %0, %%db0" : : "r" (newThread) );
+ #if USE_MP
+ // ACK the interrupt
+ if( GetCPUNum() )
+ gpMP_LocalAPIC->EOI.Val = 0;
+ else
+ #endif
+ outb(0x20, 0x20); // ACK Timer and return as child
+ __asm__ __volatile__ ("sti"); // Restart interrupts
return 0;
}
cur = Proc_GetCurThread();
// Create new thread
- new = malloc( sizeof(tThread) );
+ new = Threads_CloneThreadZero();
if(!new) {
Warning("Proc_SpawnWorker - Out of heap space!\n");
return -1;
}
- memcpy(new, &gThreadZero, sizeof(tThread));
- // Set Thread ID
- new->TID = giNextTID++;
// Create a new worker stack (in PID0's address space)
- // The stack is relocated by this code
+ // - The stack is relocated by this function
new->KernelStack = MM_NewWorkerStack();
// Get ESP and EBP based in the new stack
new->SavedState.EBP = ebp;
eip = GetEIP();
if(eip == SWITCH_MAGIC) {
- outb(0x20, 0x20); // ACK Timer and return as child
+ //__asm__ __volatile__ ("mov %0, %%db0" : : "r"(new));
+ #if USE_MP
+ // ACK the interrupt
+ if(GetCPUNum())
+ gpMP_LocalAPIC->EOI.Val = 0;
+ else
+ #endif
+ outb(0x20, 0x20); // ACK Timer and return as child
+ __asm__ __volatile__ ("sti"); // Restart interrupts
return 0;
}
// Set EIP as parent
new->SavedState.EIP = eip;
// Mark as active
- new->Status = THREAD_STAT_ACTIVE;
Threads_AddActive( new );
return new->TID;
// Allocate Stack - Allocate incrementally to clean up MM_Dump output
for( i = 0; i < USER_STACK_SZ/0x1000; i++ )
- MM_Allocate( base + (i<<12) );
+ {
+ if( !MM_Allocate( base + (i<<12) ) )
+ {
+ Warning("OOM: Proc_MakeUserStack");
+ return 0;
+ }
+ }
return base + USER_STACK_SZ;
}
{
// Rewinds the stack and calls the user function
// Never returns
- __asm__ __volatile__ ("mov %0, %%ebp;\n\tcall Proc_ReturnToUser" :: "r"(Thread->FaultHandler));
+ Proc_ReturnToUser( Thread->FaultHandler, Thread->CurFaultNum, Thread->KernelStack );
for(;;);
}
+void Proc_DumpThreadCPUState(tThread *Thread)
+{
+ if( Thread->CurCPU > -1 )
+ {
+ int maxBacktraceDistance = 6;
+ tRegs *regs = NULL;
+ Uint32 *stack;
+
+ if( Thread->CurCPU != GetCPUNum() ) {
+ Log(" Currently running");
+ return ;
+ }
+
+ // Backtrace to find the IRQ entrypoint
+ // - This will usually only be called by an IRQ, so this should
+ // work
+ __asm__ __volatile__ ("mov %%ebp, %0" : "=r" (stack));
+ while( maxBacktraceDistance -- )
+ {
+ // [ebp] = oldEbp
+ // [ebp+4] = retaddr
+
+ if( stack[1] == (tVAddr)&IRQCommon_handled ) {
+ regs = (void*)stack[2];
+ break;
+ }
+
+ stack = (void*)stack[0];
+ }
+
+ if( !regs ) {
+ Log(" Unable to find IRQ Entry");
+ return ;
+ }
+
+ Log(" at %04x:%08x", regs->cs, regs->eip);
+ return ;
+ }
+
+ #if 1
+ tVAddr diffFromScheduler = Thread->SavedState.EIP - (tVAddr)Proc_Scheduler;
+ tVAddr diffFromClone = Thread->SavedState.EIP - (tVAddr)Proc_Clone;
+ tVAddr diffFromSpawn = Thread->SavedState.EIP - (tVAddr)Proc_SpawnWorker;
+
+ if( diffFromClone > 0 && diffFromClone < 512 ) // When I last checked, GetEIP was at .+0x183
+ {
+ Log(" Creating full thread");
+ return ;
+ }
+
+ if( diffFromSpawn > 0 && diffFromSpawn < 512 ) // When I last checked, GetEIP was at .+0x99
+ {
+ Log(" Creating worker thread");
+ return ;
+ }
+
+ if( diffFromScheduler > 0 && diffFromScheduler < 256 ) // When I last checked, GetEIP was at .+0x60
+ #else
+ Uint32 data[3];
+ MM_ReadFromAddrSpace(Thread->MemState.CR3, Thread->SavedState.EBP, data, 12);
+ if( data[1] == (Uint32)&IRQCommon + 25 )
+ {
+ tRegs *regs = (void *) data[2];
+ Log(" oldebp = 0x%08x, ret = 0x%08x, regs = 0x%x",
+ data[0], data[1], data[2]
+ );
+ // [EBP] = old EBP
+ // [EBP+0x04] = Return Addr
+ // [EBP+0x08] = Arg 1 (CPU Number)
+ // [EBP+0x0C] = Arg 2 (Thread)
+ // [EBP+0x10] = GS (start of tRegs)
+ Log(" IRQ%i from %02x:%08x", regs->int_num regs->cs, regs->eip);
+ }
+ if( stack[1] == (Uint32)&scheduler_return )
+ #endif
+ {
+ // Scheduled out
+ Log(" At %04x:%08x", Thread->SavedState.UserCS, Thread->SavedState.UserEIP);
+ return ;
+ }
+
+ Log(" Just created (unknow %p)", Thread->SavedState.EIP);
+}
+
/**
* \fn void Proc_Scheduler(int CPU)
* \brief Swap current thread and clears dead threads
// If the spinlock is set, let it complete
if(IS_LOCKED(&glThreadListLock)) return;
- // Clear Delete Queue
- while(gDeleteThreads)
- {
- thread = gDeleteThreads->Next;
- if(gDeleteThreads->IsLocked) { // Only free if structure is unused
- gDeleteThreads->Status = THREAD_STAT_NULL;
- free( gDeleteThreads );
- }
- gDeleteThreads = thread;
- }
-
- // Check if there is any tasks running
- if(giNumActiveThreads == 0) {
- Log("No Active threads, sleeping");
- __asm__ __volatile__ ("hlt");
- return;
- }
-
// Get current thread
#if USE_MP
thread = gaCPUs[CPU].Current;
thread = gCurrentThread;
#endif
- // Reduce remaining quantum and continue timeslice if non-zero
- if(thread->Remaining--) return;
- // Reset quantum for next call
- thread->Remaining = thread->Quantum;
-
- // Get machine state
- __asm__ __volatile__ ("mov %%esp, %0":"=r"(esp));
- __asm__ __volatile__ ("mov %%ebp, %0":"=r"(ebp));
- eip = GetEIP();
- if(eip == SWITCH_MAGIC) return; // Check if a switch happened
+ // NOTE:
+ // 2011-04-05
+ // Bug may be caused by DR0 not being maintained somewhere, hence
+ // login is getting loaded with the idle state.
+ if( thread )
+ {
+ tRegs *regs;
+ // Reduce remaining quantum and continue timeslice if non-zero
+ if( thread->Remaining-- )
+ return;
+ // Reset quantum for next call
+ thread->Remaining = thread->Quantum;
+
+ // Get machine state
+ __asm__ __volatile__ ( "mov %%esp, %0" : "=r" (esp) );
+ __asm__ __volatile__ ( "mov %%ebp, %0" : "=r" (ebp) );
+ eip = GetEIP();
+ if(eip == SWITCH_MAGIC) return; // Check if a switch happened
+
+ // Save machine state
+ thread->SavedState.ESP = esp;
+ thread->SavedState.EBP = ebp;
+ thread->SavedState.EIP = eip;
+
+ // TODO: Make this more stable somehow
+ regs = (tRegs*)(ebp+(2+2)*4); // EBP,Ret + CPU,CurThread
+ thread->SavedState.UserCS = regs->cs;
+ thread->SavedState.UserEIP = regs->eip;
+
+ if(thread->bInstrTrace) {
+ regs->eflags |= 0x100; // Set TF
+ Log("%p De-scheduled", thread);
+ }
+ else
+ regs->eflags &= ~0x100; // Clear TF
+ }
- // Save machine state
- thread->SavedState.ESP = esp;
- thread->SavedState.EBP = ebp;
- thread->SavedState.EIP = eip;
+ // Get next thread to run
+ thread = Threads_GetNextToRun(CPU, thread);
- // Get next thread
- thread = Threads_GetNextToRun(CPU);
- // Error Check
+ // No avaliable tasks, just go into low power mode (idle thread)
if(thread == NULL) {
- Warning("Hmm... Threads_GetNextToRun returned NULL, I don't think this should happen.\n");
- return;
+ #if USE_MP
+ thread = gaCPUs[CPU].IdleThread;
+ Log("CPU %i Running Idle Thread", CPU);
+ #else
+ thread = gpIdleThread;
+ #endif
}
#if DEBUG_TRACE_SWITCH
- Log("Switching to task %i, CR3 = 0x%x, EIP = %p",
- thread->TID,
- thread->MemState.CR3,
- thread->SavedState.EIP
- );
+ if(thread && thread != Proc_GetCurThread() ) {
+ Log("Switching to task %i(%s), CR3 = 0x%x, EIP = %p",
+ thread->TID,
+ thread->ThreadName,
+ thread->MemState.CR3,
+ thread->SavedState.EIP
+ );
+ }
#endif
// Set current thread
gCurrentThread = thread;
#endif
- //Log("CPU = %i", CPU);
+ #if USE_MP // MP Debug
+// Log("CPU = %i, Thread %p", CPU, thread);
+ #endif
// Update Kernel Stack pointer
gTSSs[CPU].ESP0 = thread->KernelStack-4;
- // Set address space
- #if USE_PAE
- # error "Todo: Implement PAE Address space switching"
- #else
- __asm__ __volatile__ ("mov %0, %%cr3"::"a"(thread->MemState.CR3));
- #endif
-
#if 0
if(thread->SavedState.ESP > 0xC0000000
&& thread->SavedState.ESP < thread->KernelStack-0x2000) {
}
#endif
+ if( thread->bInstrTrace ) {
+ Log("%p Scheduled", thread);
+ }
+
+ // Set thread pointer
+ __asm__ __volatile__("mov %0, %%db0\n\t" : : "r"(thread) );
// Switch threads
__asm__ __volatile__ (
+ "mov %4, %%cr3\n\t" // Set address space
"mov %1, %%esp\n\t" // Restore ESP
"mov %2, %%ebp\n\t" // and EBP
+ "or %5, 72(%%ebp)\n\t" // or trace flag to eflags (2+2+4+8+2)*4
"jmp *%3" : : // And return to where we saved state (Proc_Clone or Proc_Scheduler)
"a"(SWITCH_MAGIC), "b"(thread->SavedState.ESP),
- "d"(thread->SavedState.EBP), "c"(thread->SavedState.EIP)
+ "d"(thread->SavedState.EBP), "c"(thread->SavedState.EIP),
+ "r"(thread->MemState.CR3),
+ "r"(thread->bInstrTrace&&thread->SavedState.EIP==(Uint)&GetEIP_Sched_ret?0x100:0)
);
for(;;); // Shouldn't reach here
}
git.ucc.asn.au / tpg / acess2.git / blobdiff
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