vmp2
/
vmprofiler
3
0
Fork 0
Code Issues Pull Requests Projects Releases Wiki Activity

Merge branch 'dev' into 'master'

Browse Source 
tested and seems to be working great. mainly added virtual JCC support

See merge request vmp2/vmprofiler!9
merge-requests/10/head
_xeroxz 3 years ago
parent e58c23c40e 66bccb7596
commit 5bb8029065
8 changed files with 385 additions and 74 deletions
Show Stats Download Patch File Download Diff File

2
README.md
Unescape View File

@ -4,6 +4,6 @@
</div>
</div>
# vmprofiler - Library To Profile VMProtect 2 Virtual Machines
# VMProfiler - Library To Profile VMProtect 2 Virtual Machines
vmprofiler is a c++ library which is used to statically analyze VMProtect 2 polymorphic virtual machines. This project is inherited in vmprofiler-qt, vmprofiler-cli, and vmemu. This is the base project for all other VMProtect 2 projects inside of this group on githacks.

8
include/vmp2.hpp
Unescape View File

@ -1,5 +1,6 @@
#pragma once
#include <transform.hpp>
#define VMP_MAGIC '2PMV'
namespace vmp2
{
@ -13,7 +14,8 @@ namespace vmp2
{
invalid,
v1 = 0x101,
v2 = 0x102
v2 = 0x102,
v3 = 0x103
};
namespace v1
@ -136,5 +138,5 @@ namespace vmp2
u8 raw[ 0x100 ];
} vsp;
};
}
} // namespace vmp2
} // namespace v2
}

189
include/vmprofiler.hpp
Unescape View File

@ -5,25 +5,6 @@
namespace vm
{
namespace calc_jmp
{
bool get( const zydis_routine_t &vm_entry, zydis_routine_t &calc_jmp );
std::optional< vmp2::exec_type_t > get_advancement( const zydis_routine_t &calc_jmp );
} // namespace calc_jmp
namespace instrs
{
// decrypt transformations for encrypted virtual instruction rva...
bool get_rva_decrypt( const zydis_routine_t &vm_entry, std::vector< zydis_decoded_instr_t > &transform_instrs );
std::pair< std::uint64_t, std::uint64_t > decrypt_operand( transform::map_t &transforms, std::uint64_t operand,
std::uint64_t rolling_key );
std::pair< std::uint64_t, std::uint64_t > encrypt_operand( transform::map_t &transforms, std::uint64_t operand,
std::uint64_t rolling_key );
} // namespace instrs
namespace handler
{
using instr_callback_t = bool ( * )( const zydis_decoded_instr_t &instr );
@ -116,6 +97,7 @@ namespace vm
// can be used on calc_jmp...
bool get_operand_transforms( const zydis_routine_t &vm_handler, transform::map_t &transforms );
vm::handler::profile_t *get_profile( handler_t &vm_handler );
vm::handler::profile_t *get_profile( vm::handler::mnemonic_t mnemonic );
namespace table
{
@ -186,4 +168,173 @@ namespace vm
&lrflags, &vmexit, &call };
} // namespace profile
} // namespace handler
class ctx_t
{
public:
explicit ctx_t( std::uintptr_t module_base, std::uintptr_t image_base, std::uintptr_t image_size,
std::uintptr_t vm_entry_rva );
bool init();
const std::uintptr_t module_base, image_base, vm_entry_rva, image_size;
vmp2::exec_type_t exec_type;
zydis_routine_t vm_entry, calc_jmp;
std::vector< vm::handler::handler_t > vm_handlers;
};
} // namespace vm
namespace vm
{
namespace instrs
{
struct virt_instr_t
{
vm::handler::mnemonic_t mnemonic_t;
std::uint8_t opcode; // aka vm handler idx...
// can be used to look at values on the stack...
vmp2::v2::entry_t trace_data;
struct
{
bool has_imm;
struct
{
std::uint8_t imm_size; // size in bits...
union
{
std::int64_t s;
std::uint64_t u;
};
} imm;
} operand;
};
enum class jcc_type
{
none,
branching,
absolute
};
struct jcc_data
{
bool has_jcc;
jcc_type type;
std::uintptr_t block_addr[ 2 ];
};
struct code_block_t
{
std::uintptr_t vip_begin;
jcc_data jcc;
std::vector< virt_instr_t > vinstrs;
};
} // namespace instrs
} // namespace vm
namespace vmp2
{
namespace v3
{
struct file_header
{
u32 magic; // VMP2
u64 epoch_time;
version_t version;
u64 module_base;
u64 image_base;
u64 vm_entry_rva;
u32 module_offset;
u32 module_size;
u32 code_block_offset;
u32 code_block_count;
};
struct code_block_t
{
std::uintptr_t vip_begin;
std::uintptr_t next_block_offset;
vm::instrs::jcc_data jcc;
// serialized from std::vector<virt_instr_t>...
std::uint32_t vinstr_count;
vm::instrs::virt_instr_t vinstr[];
};
} // namespace v3
} // namespace vmp2
namespace vm
{
namespace instrs
{
// decrypt transformations for encrypted virtual instruction rva...
bool get_rva_decrypt( const zydis_routine_t &vm_entry, std::vector< zydis_decoded_instr_t > &transform_instrs );
std::pair< std::uint64_t, std::uint64_t > decrypt_operand( transform::map_t &transforms, std::uint64_t operand,
std::uint64_t rolling_key );
std::pair< std::uint64_t, std::uint64_t > encrypt_operand( transform::map_t &transforms, std::uint64_t operand,
std::uint64_t rolling_key );
/// <summary>
/// get virt_instr_t filled in with data given a vmp2 trace entry and vm context...
/// </summary>
/// <param name="ctx">current vm context</param>
/// <param name="entry">vmp2 trace entry containing all of the native/virtual register/stack values...</param>
/// <returns>returns a filled in virt_instr_t on success...</returns>
std::optional< virt_instr_t > get( vm::ctx_t &ctx, vmp2::v2::entry_t &entry );
/// <summary>
/// gets the second operand (imm) given vip and vm::ctx_t...
/// </summary>
/// <param name="ctx">vm context</param>
/// <param name="imm_size">immediate value size in bits...</param>
/// <param name="vip">virtual instruction pointer, linear virtual address...</param>
/// <returns>returns immediate value if imm_size is not 0...</returns>
std::optional< std::uint64_t > get_imm( vm::ctx_t &ctx, std::uint8_t imm_size, std::uintptr_t vip );
/// <summary>
/// get jcc data out of a code block... this function will loop over the code block
/// and look for the last two NANDW in the virtual instructions, then it will look
/// for the last LCONSTW which is the xor key...
///
/// it will then loop and look for all PUSHVSP's, checking each to see if the stack
/// contains two encrypted rva's to each branch.. if there is not two encrypted rva's
/// then the virtual jmp instruction only has one dest...
/// </summary>
/// <param name="ctx">vm context</param>
/// <param name="code_block">code block that does not have its jcc_data yet</param>
/// <returns>if last lconstdw is found, return filled in jcc_data structure...</returns>
std::optional< jcc_data > get_jcc_data( vm::ctx_t &ctx, code_block_t &code_block );
/// <summary>
/// the top of the stack will contain the lower 32bits of the RVA to the virtual instructions
/// that will be jumping too... the RVA is image based (not module based, but optional header image
/// based)... this means the value ontop of the stack could be "40007fd8" with image base being
/// 0x140000000... as you can see the 0x100000000 is missing... the below statement deals with this...
/// </summary>
/// <param name="ctx">vm context</param>
/// <param name="entry">current trace entry for virtual JMP instruction</param>
/// <returns>returns linear virtual address of the next code block...</returns>
std::uintptr_t code_block_addr( const vm::ctx_t &ctx, const vmp2::v2::entry_t &entry );
/// <summary>
/// same routine as above except lower_32bits is passed directly and not extracted from the stack...
/// </summary>
/// <param name="ctx">vm context</param>
/// <param name="lower_32bits">lower 32bits of the relative virtual address...</param>
/// <returns>returns full linear virtual address of code block...</returns>
std::uintptr_t code_block_addr( const vm::ctx_t &ctx, const std::uint32_t lower_32bits );
} // namespace instrs
namespace calc_jmp
{
bool get( const zydis_routine_t &vm_entry, zydis_routine_t &calc_jmp );
std::optional< vmp2::exec_type_t > get_advancement( const zydis_routine_t &calc_jmp );
} // namespace calc_jmp
} // namespace vm

31
src/vmctx.cpp
Unescape View File

@ -0,0 +1,31 @@
#include <vmprofiler.hpp>
namespace vm
{
ctx_t::ctx_t( std::uintptr_t module_base, std::uintptr_t image_base, std::uintptr_t image_size,
std::uintptr_t vm_entry_rva )
: module_base( module_base ), image_base( image_base ), image_size( image_size ), vm_entry_rva( vm_entry_rva )
{
}
bool ctx_t::init()
{
if ( !vm::util::flatten( vm_entry, vm_entry_rva + module_base ) )
return false;
vm::util::deobfuscate( vm_entry );
if ( !vm::calc_jmp::get( vm_entry, calc_jmp ) )
return false;
if ( auto vm_handler_table = vm::handler::table::get( vm_entry );
!vm::handler::get_all( module_base, image_base, vm_entry, vm_handler_table, vm_handlers ) )
return false;
if ( auto advancement = vm::calc_jmp::get_advancement( calc_jmp ); advancement.has_value() )
exec_type = advancement.value();
else
return false;
return true;
}
} // namespace vm

51
src/vmhandler.cpp
Unescape View File

@ -22,8 +22,8 @@ namespace vm
// find LEA RAX, [RDI+0xE0], else determine if the instruction is inside of calc_jmp...
auto result = std::find_if( vm_handler.begin(), vm_handler.end(), []( const zydis_instr_t &instr ) -> bool {
return instr.instr.mnemonic == ZYDIS_MNEMONIC_LEA &&
instr.instr.operands[ 0 ].reg.value == ZYDIS_REGISTER_RAX &&
instr.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RDI &&
instr.instr.operands[ 0 ].reg.value == ZYDIS_REGISTER_RAX &&
instr.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RDI &&
instr.instr.operands[ 1 ].mem.disp.value == 0xE0
? true
: calc_jmp_check( instr.addr );
@ -124,13 +124,13 @@ namespace vm
std::find_if( vm_handler.begin(), vm_handler.end(), []( const zydis_instr_t &instr_data ) -> bool {
// mov/movsx/movzx rax/eax/ax/al, [rsi]
return instr_data.instr.operand_count > 1 &&
( instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOV ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVSX ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVZX ) &&
instr_data.instr.operands[ 0 ].type == ZYDIS_OPERAND_TYPE_REGISTER &&
util::reg::to64( instr_data.instr.operands[ 0 ].reg.value ) == ZYDIS_REGISTER_RAX &&
instr_data.instr.operands[ 1 ].type == ZYDIS_OPERAND_TYPE_MEMORY &&
instr_data.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RSI;
( instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOV ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVSX ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVZX ) &&
instr_data.instr.operands[ 0 ].type == ZYDIS_OPERAND_TYPE_REGISTER &&
util::reg::to64( instr_data.instr.operands[ 0 ].reg.value ) == ZYDIS_REGISTER_RAX &&
instr_data.instr.operands[ 1 ].type == ZYDIS_OPERAND_TYPE_MEMORY &&
instr_data.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RSI;
} );
if ( result == vm_handler.end() )
@ -144,14 +144,14 @@ namespace vm
auto imm_fetch =
std::find_if( vm_handler.begin(), vm_handler.end(), []( const zydis_instr_t &instr_data ) -> bool {
// mov/movsx/movzx rax/eax/ax/al, [rsi]
return ( instr_data.instr.operand_count > 1 &&
( instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOV ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVSX ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVZX ) &&
instr_data.instr.operands[ 0 ].type == ZYDIS_OPERAND_TYPE_REGISTER &&
util::reg::to64( instr_data.instr.operands[ 0 ].reg.value ) == ZYDIS_REGISTER_RAX &&
instr_data.instr.operands[ 1 ].type == ZYDIS_OPERAND_TYPE_MEMORY &&
instr_data.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RSI );
return instr_data.instr.operand_count > 1 &&
( instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOV ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVSX ||
instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOVZX ) &&
instr_data.instr.operands[ 0 ].type == ZYDIS_OPERAND_TYPE_REGISTER &&
util::reg::to64( instr_data.instr.operands[ 0 ].reg.value ) == ZYDIS_REGISTER_RAX &&
instr_data.instr.operands[ 1 ].type == ZYDIS_OPERAND_TYPE_MEMORY &&
instr_data.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RSI;
} );
if ( imm_fetch == vm_handler.end() )
@ -196,7 +196,7 @@ namespace vm
transform_instr =
std::find_if( ++transform_instr, vm_handler.end(), []( const zydis_instr_t &instr_data ) -> bool {
return vm::transform::valid( instr_data.instr.mnemonic ) &&
instr_data.instr.operands[0].actions & ZYDIS_OPERAND_ACTION_WRITE &&
instr_data.instr.operands[ 0 ].actions & ZYDIS_OPERAND_ACTION_WRITE &&
util::reg::compare( instr_data.instr.operands[ 0 ].reg.value, ZYDIS_REGISTER_RAX );
} );
@ -219,8 +219,10 @@ namespace vm
for ( auto &instr : vprofile->signature )
{
contains = std::find_if(contains, vm_handler->instrs.end(),
[ & ]( zydis_instr_t &instr_data ) -> bool { return instr( instr_data.instr ); } );
contains =
std::find_if( contains, vm_handler->instrs.end(), [ & ]( zydis_instr_t &instr_data ) -> bool {
return instr( instr_data.instr );
} );
if ( contains == vm_handler->instrs.end() )
return false;
@ -236,6 +238,15 @@ namespace vm
return nullptr;
}
vm::handler::profile_t *get_profile( vm::handler::mnemonic_t mnemonic )
{
auto result = std::find_if(
vm::handler::profile::all.begin(), vm::handler::profile::all.end(),
[ & ]( vm::handler::profile_t *profile ) -> bool { return profile->mnemonic == mnemonic; } );
return result != vm::handler::profile::all.end() ? *result : nullptr;
}
namespace table
{
std::uintptr_t *get( const zydis_routine_t &vm_entry )

174
src/vminstrs.cpp
Unescape View File

@ -7,12 +7,12 @@ namespace vm
std::pair< std::uint64_t, std::uint64_t > decrypt_operand( transform::map_t &transforms, std::uint64_t operand,
std::uint64_t rolling_key )
{
const auto& generic_decrypt_0 = transforms[ transform::type::generic0 ];
const auto& key_decrypt = transforms[ transform::type::rolling_key ];
const auto& generic_decrypt_1 = transforms[ transform::type::generic1 ];
const auto& generic_decrypt_2 = transforms[ transform::type::generic2 ];
const auto& generic_decrypt_3 = transforms[ transform::type::generic3 ];
const auto& update_key = transforms[ transform::type::update_key ];
const auto &generic_decrypt_0 = transforms[ transform::type::generic0 ];
const auto &key_decrypt = transforms[ transform::type::rolling_key ];
const auto &generic_decrypt_1 = transforms[ transform::type::generic1 ];
const auto &generic_decrypt_2 = transforms[ transform::type::generic2 ];
const auto &generic_decrypt_3 = transforms[ transform::type::generic3 ];
const auto &update_key = transforms[ transform::type::update_key ];
if ( generic_decrypt_0.mnemonic != ZYDIS_MNEMONIC_INVALID )
{
@ -44,8 +44,7 @@ namespace vm
}
// update rolling key...
auto result =
transform::apply( update_key.operands[ 0 ].size, update_key.mnemonic, rolling_key, operand );
auto result = transform::apply( update_key.operands[ 0 ].size, update_key.mnemonic, rolling_key, operand );
// update decryption key correctly...
switch ( update_key.operands[ 0 ].size )
@ -70,15 +69,14 @@ namespace vm
transform::map_t inverse;
inverse_transforms( transforms, inverse );
const auto& generic_decrypt_0 = inverse[ transform::type::generic0 ];
const auto& key_decrypt = inverse[ transform::type::rolling_key ];
const auto& generic_decrypt_1 = inverse[ transform::type::generic1 ];
const auto& generic_decrypt_2 = inverse[ transform::type::generic2 ];
const auto& generic_decrypt_3 = inverse[ transform::type::generic3 ];
const auto& update_key = inverse[ transform::type::update_key ];
const auto &generic_decrypt_0 = inverse[ transform::type::generic0 ];
const auto &key_decrypt = inverse[ transform::type::rolling_key ];
const auto &generic_decrypt_1 = inverse[ transform::type::generic1 ];
const auto &generic_decrypt_2 = inverse[ transform::type::generic2 ];
const auto &generic_decrypt_3 = inverse[ transform::type::generic3 ];
const auto &update_key = inverse[ transform::type::update_key ];
auto result =
transform::apply( update_key.operands[ 0 ].size, update_key.mnemonic, rolling_key, operand );
auto result = transform::apply( update_key.operands[ 0 ].size, update_key.mnemonic, rolling_key, operand );
// make sure we update the rolling decryption key correctly...
switch ( update_key.operands[ 0 ].size )
@ -126,32 +124,28 @@ namespace vm
bool get_rva_decrypt( const zydis_routine_t &vm_entry, std::vector< zydis_decoded_instr_t > &transform_instrs )
{
//
// find mov esi, [rsp+0xA0]
//
auto result =
std::find_if( vm_entry.begin(), vm_entry.end(), []( const zydis_instr_t &instr_data ) -> bool {
if ( instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOV && instr_data.instr.operand_count == 2 &&
instr_data.instr.operands[ 0 ].reg.value == ZYDIS_REGISTER_ESI &&
instr_data.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RSP &&
instr_data.instr.operands[ 1 ].mem.disp.has_displacement &&
instr_data.instr.operands[ 1 ].mem.disp.value == 0xA0 )
return true;
return false;
return instr_data.instr.mnemonic == ZYDIS_MNEMONIC_MOV &&
instr_data.instr.operands[ 0 ].type == ZYDIS_OPERAND_TYPE_REGISTER &&
instr_data.instr.operands[ 0 ].reg.value == ZYDIS_REGISTER_ESI &&
instr_data.instr.operands[ 1 ].type == ZYDIS_OPERAND_TYPE_MEMORY &&
instr_data.instr.operands[ 1 ].mem.base == ZYDIS_REGISTER_RSP &&
instr_data.instr.operands[ 1 ].mem.disp.value == 0xA0;
} );
if ( result == vm_entry.end() )
return false;
//
// find the next three instruction with ESI as the dest...
//
// find the next three instructions with ESI as
// the first operand... and make sure actions & writes...
for ( auto idx = 0u; idx < 3; ++idx )
{
result = std::find_if( ++result, vm_entry.end(), []( const zydis_instr_t &instr_data ) -> bool {
return instr_data.instr.operands[ 0 ].reg.value == ZYDIS_REGISTER_ESI;
return vm::transform::valid( instr_data.instr.mnemonic ) &&
instr_data.instr.operands[ 0 ].actions == ZYDIS_OPERAND_ACTION_WRITE &&
instr_data.instr.operands[ 0 ].reg.value == ZYDIS_REGISTER_ESI;
} );
if ( result == vm_entry.end() )
@ -162,5 +156,123 @@ namespace vm
return true;
}
std::optional< std::uint64_t > get_imm( vm::ctx_t &ctx, std::uint8_t imm_size, std::uintptr_t vip )
{
if ( !imm_size )
return {};
std::uint64_t result = 0u;
if ( ctx.exec_type == vmp2::exec_type_t::forward )
std::memcpy( &result, reinterpret_cast< void * >( vip ), imm_size / 8 );
else // else the second operand is below vip...
std::memcpy( &result, reinterpret_cast< void * >( vip - ( imm_size / 8 ) ), imm_size / 8 );
return result;
}
std::optional< virt_instr_t > get( vm::ctx_t &ctx, vmp2::v2::entry_t &entry )
{
virt_instr_t result;
auto &vm_handler = ctx.vm_handlers[ entry.handler_idx ];
const auto profile = vm_handler.profile;
result.mnemonic_t = profile ? profile->mnemonic : vm::handler::INVALID;
result.opcode = entry.handler_idx;
result.trace_data = entry;
if ( vm_handler.imm_size )
{
result.operand.has_imm = true;
result.operand.imm.imm_size = vm_handler.imm_size;
const auto imm_val = get_imm( ctx, vm_handler.imm_size, entry.vip );
if ( !imm_val.has_value() )
return {};
result.operand.imm.u =
vm::instrs::decrypt_operand( vm_handler.transforms, imm_val.value(), entry.decrypt_key ).first;
}
else
result.operand.has_imm = false;
return result;
}
std::optional< jcc_data > get_jcc_data( vm::ctx_t &vmctx, code_block_t &code_block )
{
// there is no branch for this as this is a vmexit...
if ( code_block.vinstrs.back().mnemonic_t == vm::handler::VMEXIT )
return {};
// find the last LCONSTDW... the imm value is the JMP xor decrypt key...
// we loop backwards here (using rbegin and rend)...
auto result = std::find_if( code_block.vinstrs.rbegin(), code_block.vinstrs.rend(),
[]( const vm::instrs::virt_instr_t &vinstr ) -> bool {
auto profile = vm::handler::get_profile( vinstr.mnemonic_t );
return profile && profile->mnemonic == vm::handler::LCONSTDW;
} );
jcc_data jcc;
const auto xor_key = static_cast< std::uint32_t >( result->operand.imm.u );
const auto &last_trace = code_block.vinstrs.back().trace_data;
// since result is already a variable and is a reverse itr
// im going to be using rbegin and rend here again...
//
// look for PUSHVSP virtual instructions with two encrypted virtual
// instruction rva's ontop of the virtual stack...
result = std::find_if( code_block.vinstrs.rbegin(), code_block.vinstrs.rend(),
[ & ]( const vm::instrs::virt_instr_t &vinstr ) -> bool {
if ( auto profile = vm::handler::get_profile( vinstr.mnemonic_t );
profile && profile->mnemonic == vm::handler::PUSHVSP )
{
const auto possible_block_1 = code_block_addr(
vmctx, vinstr.trace_data.vsp.qword[ 0 ] ^ xor_key ),
possible_block_2 = code_block_addr(
vmctx, vinstr.trace_data.vsp.qword[ 1 ] ^ xor_key );
// if this returns too many false positives we might have to get
// our hands dirty and look into trying to emulate each branch
// to see if the first instruction is an SREGQ...
return possible_block_1 > vmctx.module_base &&
possible_block_1 < vmctx.module_base + vmctx.image_size &&
possible_block_2 > vmctx.module_base &&
possible_block_2 < vmctx.module_base + vmctx.image_size;
}
return false;
} );
// if there is not two branches...
if ( result == code_block.vinstrs.rend() )
{
jcc.block_addr[ 0 ] = code_block_addr( vmctx, last_trace );
jcc.has_jcc = false;
jcc.type = jcc_type::absolute;
}
// else there are two branches...
else
{
jcc.block_addr[ 0 ] = code_block_addr( vmctx, result->trace_data.vsp.qword[ 0 ] ^ xor_key );
jcc.block_addr[ 1 ] = code_block_addr( vmctx, result->trace_data.vsp.qword[ 1 ] ^ xor_key );
jcc.has_jcc = true;
jcc.type = jcc_type::branching;
}
return jcc;
}
std::uintptr_t code_block_addr( const vm::ctx_t &ctx, const vmp2::v2::entry_t &entry )
{
return ( ( entry.vsp.qword[ 0 ] + ( ctx.image_base & ~0xFFFFFFFFull ) ) - ctx.image_base ) +
ctx.module_base;
}
std::uintptr_t code_block_addr( const vm::ctx_t &ctx, const std::uint32_t lower_32bits )
{
return ( ( lower_32bits + ( ctx.image_base & ~0xFFFFFFFFull ) ) - ctx.image_base ) + ctx.module_base;
}
} // namespace instrs
} // namespace vm

1
vmprofiler.vcxproj
Unescape View File

@ -156,6 +156,7 @@
</ItemGroup>
<ItemGroup>
<ClCompile Include="src\calc_jmp.cpp" />
<ClCompile Include="src\vmctx.cpp" />
<ClCompile Include="src\vmhandler.cpp" />
<ClCompile Include="src\vminstrs.cpp" />
<ClCompile Include="src\vmprofiles\add.cpp" />

3
vmprofiler.vcxproj.filters
Unescape View File

@ -234,5 +234,8 @@
<ClCompile Include="src\vmutils.cpp">
<Filter>Source Files</Filter>
</ClCompile>
<ClCompile Include="src\vmctx.cpp">
<Filter>Source Files</Filter>
</ClCompile>
</ItemGroup>
</Project>
Write Preview
Loading…
Cancel
Save