MdeModulePkg: Apply uncrustify changes

REF: https://bugzilla.tianocore.org/show_bug.cgi?id=3737

Apply uncrustify changes to .c/.h files in the MdeModulePkg package

Cc: Andrew Fish <afish@apple.com>
Cc: Leif Lindholm <leif@nuviainc.com>
Cc: Michael D Kinney <michael.d.kinney@intel.com>
Signed-off-by: Michael Kubacki <michael.kubacki@microsoft.com>
Reviewed-by: Liming Gao <gaoliming@byosoft.com.cn>
This commit is contained in:
Michael Kubacki
2021-12-05 14:54:02 -08:00
committed by mergify[bot]
parent 7c7184e201
commit 1436aea4d5
994 changed files with 107608 additions and 101311 deletions

View File

@@ -17,54 +17,54 @@ SPDX-License-Identifier: BSD-2-Clause-Patent
// based on whether or not a debugger is present, and other
// platform-specific configurations.
//
#define VM_STACK_SIZE (1024 * 8)
#define VM_STACK_SIZE (1024 * 8)
#define STACK_REMAIN_SIZE (1024 * 4)
#define STACK_REMAIN_SIZE (1024 * 4)
//
// This is instruction buffer used to create EBC thunk
//
#define EBC_ENTRYPOINT_SIGNATURE 0xAFAFAFAFAFAFAFAFull
#define EBC_LL_EBC_ENTRYPOINT_SIGNATURE 0xFAFAFAFAFAFAFAFAull
#define EBC_ENTRYPOINT_SIGNATURE 0xAFAFAFAFAFAFAFAFull
#define EBC_LL_EBC_ENTRYPOINT_SIGNATURE 0xFAFAFAFAFAFAFAFAull
UINT8 mInstructionBufferTemplate[] = {
//
// Add a magic code here to help the VM recognize the thunk..
// mov rax, 0xca112ebcca112ebc => 48 B8 BC 2E 11 CA BC 2E 11 CA
//
0x48, 0xB8, 0xBC, 0x2E, 0x11, 0xCA, 0xBC, 0x2E, 0x11, 0xCA,
0x48, 0xB8, 0xBC, 0x2E, 0x11, 0xCA, 0xBC, 0x2E, 0x11, 0xCA,
//
// Add code bytes to load up a processor register with the EBC entry point.
// mov r10, EbcEntryPoint => 49 BA XX XX XX XX XX XX XX XX (To be fixed at runtime)
// These 8 bytes of the thunk entry is the address of the EBC
// entry point.
//
0x49, 0xBA,
(UINT8)(EBC_ENTRYPOINT_SIGNATURE & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 8) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 16) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 24) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 32) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 40) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 48) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 56) & 0xFF),
0x49, 0xBA,
(UINT8)(EBC_ENTRYPOINT_SIGNATURE & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 8) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 16) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 24) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 32) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 40) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 48) & 0xFF),
(UINT8)((EBC_ENTRYPOINT_SIGNATURE >> 56) & 0xFF),
//
// Stick in a load of r11 with the address of appropriate VM function.
// mov r11, EbcLLEbcInterpret => 49 BB XX XX XX XX XX XX XX XX (To be fixed at runtime)
//
0x49, 0xBB,
(UINT8)(EBC_LL_EBC_ENTRYPOINT_SIGNATURE & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 8) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 16) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 24) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 32) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 40) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 48) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 56) & 0xFF),
0x49, 0xBB,
(UINT8)(EBC_LL_EBC_ENTRYPOINT_SIGNATURE & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 8) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 16) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 24) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 32) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 40) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 48) & 0xFF),
(UINT8)((EBC_LL_EBC_ENTRYPOINT_SIGNATURE >> 56) & 0xFF),
//
// Stick in jump opcode bytes
// jmp r11 => 41 FF E3
//
0x41, 0xFF, 0xE3,
0x41, 0xFF, 0xE3,
};
/**
@@ -102,20 +102,19 @@ EbcLLExecuteEbcImageEntryPoint (
**/
VOID
PushU64 (
IN VM_CONTEXT *VmPtr,
IN UINT64 Arg
IN VM_CONTEXT *VmPtr,
IN UINT64 Arg
)
{
//
// Advance the VM stack down, and then copy the argument to the stack.
// Hope it's aligned.
//
VmPtr->Gpr[0] -= sizeof (UINT64);
*(UINT64 *) VmPtr->Gpr[0] = Arg;
VmPtr->Gpr[0] -= sizeof (UINT64);
*(UINT64 *)VmPtr->Gpr[0] = Arg;
return;
}
/**
Begin executing an EBC image.
@@ -147,23 +146,23 @@ PushU64 (
UINT64
EFIAPI
EbcInterpret (
IN UINTN EntryPoint,
IN UINTN Arg1,
IN UINTN Arg2,
IN UINTN Arg3,
IN UINTN Arg4,
IN UINTN Arg5,
IN UINTN Arg6,
IN UINTN Arg7,
IN UINTN Arg8,
IN UINTN Arg9,
IN UINTN Arg10,
IN UINTN Arg11,
IN UINTN Arg12,
IN UINTN Arg13,
IN UINTN Arg14,
IN UINTN Arg15,
IN UINTN Arg16
IN UINTN EntryPoint,
IN UINTN Arg1,
IN UINTN Arg2,
IN UINTN Arg3,
IN UINTN Arg4,
IN UINTN Arg5,
IN UINTN Arg6,
IN UINTN Arg7,
IN UINTN Arg8,
IN UINTN Arg9,
IN UINTN Arg10,
IN UINTN Arg11,
IN UINTN Arg12,
IN UINTN Arg13,
IN UINTN Arg14,
IN UINTN Arg15,
IN UINTN Arg16
)
{
//
@@ -182,12 +181,12 @@ EbcInterpret (
//
// Now clear out our context
//
ZeroMem ((VOID *) &VmContext, sizeof (VM_CONTEXT));
ZeroMem ((VOID *)&VmContext, sizeof (VM_CONTEXT));
//
// Set the VM instruction pointer to the correct location in memory.
//
VmContext.Ip = (VMIP) Addr;
VmContext.Ip = (VMIP)Addr;
//
// Initialize the stack pointer for the EBC. Get the current system stack
@@ -198,14 +197,15 @@ EbcInterpret (
// Adjust the VM's stack pointer down.
//
Status = GetEBCStack((EFI_HANDLE)(UINTN)-1, &VmContext.StackPool, &StackIndex);
if (EFI_ERROR(Status)) {
Status = GetEBCStack ((EFI_HANDLE)(UINTN)-1, &VmContext.StackPool, &StackIndex);
if (EFI_ERROR (Status)) {
return Status;
}
VmContext.StackTop = (UINT8*)VmContext.StackPool + (STACK_REMAIN_SIZE);
VmContext.Gpr[0] = (UINT64) ((UINT8*)VmContext.StackPool + STACK_POOL_SIZE);
VmContext.HighStackBottom = (UINTN) VmContext.Gpr[0];
VmContext.Gpr[0] -= sizeof (UINTN);
VmContext.StackTop = (UINT8 *)VmContext.StackPool + (STACK_REMAIN_SIZE);
VmContext.Gpr[0] = (UINT64)((UINT8 *)VmContext.StackPool + STACK_POOL_SIZE);
VmContext.HighStackBottom = (UINTN)VmContext.Gpr[0];
VmContext.Gpr[0] -= sizeof (UINTN);
//
// Align the stack on a natural boundary.
@@ -215,46 +215,46 @@ EbcInterpret (
//
// Put a magic value in the stack gap, then adjust down again.
//
*(UINTN *) (UINTN) (VmContext.Gpr[0]) = (UINTN) VM_STACK_KEY_VALUE;
VmContext.StackMagicPtr = (UINTN *) (UINTN) VmContext.Gpr[0];
*(UINTN *)(UINTN)(VmContext.Gpr[0]) = (UINTN)VM_STACK_KEY_VALUE;
VmContext.StackMagicPtr = (UINTN *)(UINTN)VmContext.Gpr[0];
//
// The stack upper to LowStackTop is belong to the VM.
//
VmContext.LowStackTop = (UINTN) VmContext.Gpr[0];
VmContext.LowStackTop = (UINTN)VmContext.Gpr[0];
//
// For the worst case, assume there are 4 arguments passed in registers, store
// them to VM's stack.
//
PushU64 (&VmContext, (UINT64) Arg16);
PushU64 (&VmContext, (UINT64) Arg15);
PushU64 (&VmContext, (UINT64) Arg14);
PushU64 (&VmContext, (UINT64) Arg13);
PushU64 (&VmContext, (UINT64) Arg12);
PushU64 (&VmContext, (UINT64) Arg11);
PushU64 (&VmContext, (UINT64) Arg10);
PushU64 (&VmContext, (UINT64) Arg9);
PushU64 (&VmContext, (UINT64) Arg8);
PushU64 (&VmContext, (UINT64) Arg7);
PushU64 (&VmContext, (UINT64) Arg6);
PushU64 (&VmContext, (UINT64) Arg5);
PushU64 (&VmContext, (UINT64) Arg4);
PushU64 (&VmContext, (UINT64) Arg3);
PushU64 (&VmContext, (UINT64) Arg2);
PushU64 (&VmContext, (UINT64) Arg1);
PushU64 (&VmContext, (UINT64)Arg16);
PushU64 (&VmContext, (UINT64)Arg15);
PushU64 (&VmContext, (UINT64)Arg14);
PushU64 (&VmContext, (UINT64)Arg13);
PushU64 (&VmContext, (UINT64)Arg12);
PushU64 (&VmContext, (UINT64)Arg11);
PushU64 (&VmContext, (UINT64)Arg10);
PushU64 (&VmContext, (UINT64)Arg9);
PushU64 (&VmContext, (UINT64)Arg8);
PushU64 (&VmContext, (UINT64)Arg7);
PushU64 (&VmContext, (UINT64)Arg6);
PushU64 (&VmContext, (UINT64)Arg5);
PushU64 (&VmContext, (UINT64)Arg4);
PushU64 (&VmContext, (UINT64)Arg3);
PushU64 (&VmContext, (UINT64)Arg2);
PushU64 (&VmContext, (UINT64)Arg1);
//
// Interpreter assumes 64-bit return address is pushed on the stack.
// The x64 does not do this so pad the stack accordingly.
//
PushU64 (&VmContext, (UINT64) 0);
PushU64 (&VmContext, (UINT64) 0x1234567887654321ULL);
PushU64 (&VmContext, (UINT64)0);
PushU64 (&VmContext, (UINT64)0x1234567887654321ULL);
//
// For x64, this is where we say our return address is
//
VmContext.StackRetAddr = (UINT64) VmContext.Gpr[0];
VmContext.StackRetAddr = (UINT64)VmContext.Gpr[0];
//
// We need to keep track of where the EBC stack starts. This way, if the EBC
@@ -279,11 +279,10 @@ EbcInterpret (
//
// Return the value in Gpr[7] unless there was an error
//
ReturnEBCStack(StackIndex);
return (UINT64) VmContext.Gpr[7];
ReturnEBCStack (StackIndex);
return (UINT64)VmContext.Gpr[7];
}
/**
Begin executing an EBC image.
@@ -298,9 +297,9 @@ EbcInterpret (
UINT64
EFIAPI
ExecuteEbcImageEntryPoint (
IN UINTN EntryPoint,
IN EFI_HANDLE ImageHandle,
IN EFI_SYSTEM_TABLE *SystemTable
IN UINTN EntryPoint,
IN EFI_HANDLE ImageHandle,
IN EFI_SYSTEM_TABLE *SystemTable
)
{
//
@@ -319,7 +318,7 @@ ExecuteEbcImageEntryPoint (
//
// Now clear out our context
//
ZeroMem ((VOID *) &VmContext, sizeof (VM_CONTEXT));
ZeroMem ((VOID *)&VmContext, sizeof (VM_CONTEXT));
//
// Save the image handle so we can track the thunks created for this image
@@ -330,52 +329,52 @@ ExecuteEbcImageEntryPoint (
//
// Set the VM instruction pointer to the correct location in memory.
//
VmContext.Ip = (VMIP) Addr;
VmContext.Ip = (VMIP)Addr;
//
// Initialize the stack pointer for the EBC. Get the current system stack
// pointer and adjust it down by the max needed for the interpreter.
//
Status = GetEBCStack(ImageHandle, &VmContext.StackPool, &StackIndex);
if (EFI_ERROR(Status)) {
Status = GetEBCStack (ImageHandle, &VmContext.StackPool, &StackIndex);
if (EFI_ERROR (Status)) {
return Status;
}
VmContext.StackTop = (UINT8*)VmContext.StackPool + (STACK_REMAIN_SIZE);
VmContext.Gpr[0] = (UINT64) ((UINT8*)VmContext.StackPool + STACK_POOL_SIZE);
VmContext.HighStackBottom = (UINTN) VmContext.Gpr[0];
VmContext.Gpr[0] -= sizeof (UINTN);
VmContext.StackTop = (UINT8 *)VmContext.StackPool + (STACK_REMAIN_SIZE);
VmContext.Gpr[0] = (UINT64)((UINT8 *)VmContext.StackPool + STACK_POOL_SIZE);
VmContext.HighStackBottom = (UINTN)VmContext.Gpr[0];
VmContext.Gpr[0] -= sizeof (UINTN);
//
// Put a magic value in the stack gap, then adjust down again
//
*(UINTN *) (UINTN) (VmContext.Gpr[0]) = (UINTN) VM_STACK_KEY_VALUE;
VmContext.StackMagicPtr = (UINTN *) (UINTN) VmContext.Gpr[0];
*(UINTN *)(UINTN)(VmContext.Gpr[0]) = (UINTN)VM_STACK_KEY_VALUE;
VmContext.StackMagicPtr = (UINTN *)(UINTN)VmContext.Gpr[0];
//
// Align the stack on a natural boundary
VmContext.Gpr[0] &= ~(VM_REGISTER)(sizeof(UINTN) - 1);
VmContext.Gpr[0] &= ~(VM_REGISTER)(sizeof (UINTN) - 1);
//
VmContext.LowStackTop = (UINTN) VmContext.Gpr[0];
VmContext.LowStackTop = (UINTN)VmContext.Gpr[0];
//
// Simply copy the image handle and system table onto the EBC stack.
// Greatly simplifies things by not having to spill the args.
//
PushU64 (&VmContext, (UINT64) SystemTable);
PushU64 (&VmContext, (UINT64) ImageHandle);
PushU64 (&VmContext, (UINT64)SystemTable);
PushU64 (&VmContext, (UINT64)ImageHandle);
//
// VM pushes 16-bytes for return address. Simulate that here.
//
PushU64 (&VmContext, (UINT64) 0);
PushU64 (&VmContext, (UINT64) 0x1234567887654321ULL);
PushU64 (&VmContext, (UINT64)0);
PushU64 (&VmContext, (UINT64)0x1234567887654321ULL);
//
// For x64, this is where we say our return address is
//
VmContext.StackRetAddr = (UINT64) VmContext.Gpr[0];
VmContext.StackRetAddr = (UINT64)VmContext.Gpr[0];
//
// Entry function needn't access high stack context, simply
@@ -391,11 +390,10 @@ ExecuteEbcImageEntryPoint (
//
// Return the value in Gpr[7] unless there was an error
//
ReturnEBCStack(StackIndex);
return (UINT64) VmContext.Gpr[7];
ReturnEBCStack (StackIndex);
return (UINT64)VmContext.Gpr[7];
}
/**
Create thunks for an EBC image entry point, or an EBC protocol service.
@@ -415,31 +413,32 @@ ExecuteEbcImageEntryPoint (
**/
EFI_STATUS
EbcCreateThunks (
IN EFI_HANDLE ImageHandle,
IN VOID *EbcEntryPoint,
OUT VOID **Thunk,
IN UINT32 Flags
IN EFI_HANDLE ImageHandle,
IN VOID *EbcEntryPoint,
OUT VOID **Thunk,
IN UINT32 Flags
)
{
UINT8 *Ptr;
UINT8 *ThunkBase;
UINT32 Index;
INT32 ThunkSize;
UINT8 *Ptr;
UINT8 *ThunkBase;
UINT32 Index;
INT32 ThunkSize;
//
// Check alignment of pointer to EBC code
//
if ((UINT32) (UINTN) EbcEntryPoint & 0x01) {
if ((UINT32)(UINTN)EbcEntryPoint & 0x01) {
return EFI_INVALID_PARAMETER;
}
ThunkSize = sizeof(mInstructionBufferTemplate);
ThunkSize = sizeof (mInstructionBufferTemplate);
Ptr = EbcAllocatePoolForThunk (sizeof(mInstructionBufferTemplate));
Ptr = EbcAllocatePoolForThunk (sizeof (mInstructionBufferTemplate));
if (Ptr == NULL) {
return EFI_OUT_OF_RESOURCES;
}
//
// Print(L"Allocate TH: 0x%X\n", (UINT32)Ptr);
//
@@ -450,20 +449,21 @@ EbcCreateThunks (
//
// Give them the address of our buffer we're going to fix up
//
*Thunk = (VOID *) Ptr;
*Thunk = (VOID *)Ptr;
//
// Copy whole thunk instruction buffer template
//
CopyMem (Ptr, mInstructionBufferTemplate, sizeof(mInstructionBufferTemplate));
CopyMem (Ptr, mInstructionBufferTemplate, sizeof (mInstructionBufferTemplate));
//
// Patch EbcEntryPoint and EbcLLEbcInterpret
//
for (Index = 0; Index < sizeof(mInstructionBufferTemplate) - sizeof(UINTN); Index++) {
for (Index = 0; Index < sizeof (mInstructionBufferTemplate) - sizeof (UINTN); Index++) {
if (*(UINTN *)&Ptr[Index] == EBC_ENTRYPOINT_SIGNATURE) {
*(UINTN *)&Ptr[Index] = (UINTN)EbcEntryPoint;
}
if (*(UINTN *)&Ptr[Index] == EBC_LL_EBC_ENTRYPOINT_SIGNATURE) {
if ((Flags & FLAG_THUNK_ENTRY_POINT) != 0) {
*(UINTN *)&Ptr[Index] = (UINTN)EbcLLExecuteEbcImageEntryPoint;
@@ -477,12 +477,11 @@ EbcCreateThunks (
// Add the thunk to the list for this image. Do this last since the add
// function flushes the cache for us.
//
EbcAddImageThunk (ImageHandle, (VOID *) ThunkBase, ThunkSize);
EbcAddImageThunk (ImageHandle, (VOID *)ThunkBase, ThunkSize);
return EFI_SUCCESS;
}
/**
This function is called to execute an EBC CALLEX instruction.
The function check the callee's content to see whether it is common native
@@ -500,60 +499,62 @@ EbcCreateThunks (
**/
VOID
EbcLLCALLEX (
IN VM_CONTEXT *VmPtr,
IN UINTN FuncAddr,
IN UINTN NewStackPointer,
IN VOID *FramePtr,
IN UINT8 Size
IN VM_CONTEXT *VmPtr,
IN UINTN FuncAddr,
IN UINTN NewStackPointer,
IN VOID *FramePtr,
IN UINT8 Size
)
{
UINTN IsThunk;
UINTN TargetEbcAddr;
UINT8 InstructionBuffer[sizeof(mInstructionBufferTemplate)];
UINTN Index;
UINTN IndexOfEbcEntrypoint;
UINTN IsThunk;
UINTN TargetEbcAddr;
UINT8 InstructionBuffer[sizeof (mInstructionBufferTemplate)];
UINTN Index;
UINTN IndexOfEbcEntrypoint;
IsThunk = 1;
TargetEbcAddr = 0;
IsThunk = 1;
TargetEbcAddr = 0;
IndexOfEbcEntrypoint = 0;
//
// Processor specific code to check whether the callee is a thunk to EBC.
//
CopyMem (InstructionBuffer, (VOID *)FuncAddr, sizeof(InstructionBuffer));
CopyMem (InstructionBuffer, (VOID *)FuncAddr, sizeof (InstructionBuffer));
//
// Fill the signature according to mInstructionBufferTemplate
//
for (Index = 0; Index < sizeof(mInstructionBufferTemplate) - sizeof(UINTN); Index++) {
for (Index = 0; Index < sizeof (mInstructionBufferTemplate) - sizeof (UINTN); Index++) {
if (*(UINTN *)&mInstructionBufferTemplate[Index] == EBC_ENTRYPOINT_SIGNATURE) {
*(UINTN *)&InstructionBuffer[Index] = EBC_ENTRYPOINT_SIGNATURE;
IndexOfEbcEntrypoint = Index;
IndexOfEbcEntrypoint = Index;
}
if (*(UINTN *)&mInstructionBufferTemplate[Index] == EBC_LL_EBC_ENTRYPOINT_SIGNATURE) {
*(UINTN *)&InstructionBuffer[Index] = EBC_LL_EBC_ENTRYPOINT_SIGNATURE;
}
}
//
// Check if we need thunk to native
//
if (CompareMem (InstructionBuffer, mInstructionBufferTemplate, sizeof(mInstructionBufferTemplate)) != 0) {
if (CompareMem (InstructionBuffer, mInstructionBufferTemplate, sizeof (mInstructionBufferTemplate)) != 0) {
IsThunk = 0;
}
if (IsThunk == 1){
if (IsThunk == 1) {
//
// The callee is a thunk to EBC, adjust the stack pointer down 16 bytes and
// put our return address and frame pointer on the VM stack.
// Then set the VM's IP to new EBC code.
//
VmPtr->Gpr[0] -= 8;
VmWriteMemN (VmPtr, (UINTN) VmPtr->Gpr[0], (UINTN) FramePtr);
VmPtr->FramePtr = (VOID *) (UINTN) VmPtr->Gpr[0];
VmPtr->Gpr[0] -= 8;
VmWriteMem64 (VmPtr, (UINTN) VmPtr->Gpr[0], (UINT64) (UINTN) (VmPtr->Ip + Size));
VmWriteMemN (VmPtr, (UINTN)VmPtr->Gpr[0], (UINTN)FramePtr);
VmPtr->FramePtr = (VOID *)(UINTN)VmPtr->Gpr[0];
VmPtr->Gpr[0] -= 8;
VmWriteMem64 (VmPtr, (UINTN)VmPtr->Gpr[0], (UINT64)(UINTN)(VmPtr->Ip + Size));
CopyMem (&TargetEbcAddr, (UINT8 *)FuncAddr + IndexOfEbcEntrypoint, sizeof(UINTN));
VmPtr->Ip = (VMIP) (UINTN) TargetEbcAddr;
CopyMem (&TargetEbcAddr, (UINT8 *)FuncAddr + IndexOfEbcEntrypoint, sizeof (UINTN));
VmPtr->Ip = (VMIP)(UINTN)TargetEbcAddr;
} else {
//
// The callee is not a thunk to EBC, call native code,
@@ -567,4 +568,3 @@ EbcLLCALLEX (
VmPtr->Ip += Size;
}
}