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early-access version 2796

This commit is contained in:
pineappleEA 2022-06-22 03:30:11 +02:00
parent bbb22ae7cd
commit 63427abbf6
90 changed files with 4016 additions and 1215 deletions
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55
CMakeModules/MinGWClangCross.cmake Executable file
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@ -0,0 +1,55 @@
set(MINGW_PREFIX /usr/x86_64-w64-mingw32/)
set(CMAKE_SYSTEM_NAME Windows)
set(CMAKE_SYSTEM_PROCESSOR x86_64)
set(CMAKE_FIND_ROOT_PATH ${MINGW_PREFIX})
set(SDL2_PATH ${MINGW_PREFIX})
set(MINGW_TOOL_PREFIX ${CMAKE_SYSTEM_PROCESSOR}-w64-mingw32-)
# Specify the cross compiler
set(CMAKE_C_COMPILER ${MINGW_TOOL_PREFIX}clang)
set(CMAKE_CXX_COMPILER ${MINGW_TOOL_PREFIX}clang++)
set(CMAKE_RC_COMPILER ${MINGW_TOOL_PREFIX}windres)
set(CMAKE_C_COMPILER_AR ${MINGW_TOOL_PREFIX}ar)
set(CMAKE_CXX_COMPILER_AR ${MINGW_TOOL_PREFIX}ar)
set(CMAKE_C_COMPILER_RANLIB ${MINGW_TOOL_PREFIX}ranlib)
set(CMAKE_CXX_COMPILER_RANLIB ${MINGW_TOOL_PREFIX}ranlib)
# Mingw tools
set(STRIP ${MINGW_TOOL_PREFIX}strip)
set(WINDRES ${MINGW_TOOL_PREFIX}windres)
set(ENV{PKG_CONFIG} ${MINGW_TOOL_PREFIX}pkg-config)
# ccache wrapper
option(USE_CCACHE "Use ccache for compilation" OFF)
if(USE_CCACHE)
find_program(CCACHE ccache)
if(CCACHE)
message(STATUS "Using ccache found in PATH")
set_property(GLOBAL PROPERTY RULE_LAUNCH_COMPILE ${CCACHE})
set_property(GLOBAL PROPERTY RULE_LAUNCH_LINK ${CCACHE})
else(CCACHE)
message(WARNING "USE_CCACHE enabled, but no ccache found")
endif(CCACHE)
endif(USE_CCACHE)
# Search for programs in the build host directories
set(CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
# Echo modified cmake vars to screen for debugging purposes
if(NOT DEFINED ENV{MINGW_DEBUG_INFO})
message("")
message("Custom cmake vars: (blank = system default)")
message("-----------------------------------------")
message("* CMAKE_C_COMPILER : ${CMAKE_C_COMPILER}")
message("* CMAKE_CXX_COMPILER : ${CMAKE_CXX_COMPILER}")
message("* CMAKE_RC_COMPILER : ${CMAKE_RC_COMPILER}")
message("* WINDRES : ${WINDRES}")
message("* ENV{PKG_CONFIG} : $ENV{PKG_CONFIG}")
message("* STRIP : ${STRIP}")
message("* USE_CCACHE : ${USE_CCACHE}")
message("")
# So that the debug info only appears once
set(ENV{MINGW_DEBUG_INFO} SHOWN)
endif()

2
README.md
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@ -1,7 +1,7 @@
yuzu emulator early access
=============
This is the source code for early-access 2795.
This is the source code for early-access 2796.
## Legal Notice

5
externals/dynarmic/externals/CMakeLists.txt vendored
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@ -1,5 +1,8 @@
# Always build externals as static libraries, even when dynarmic is built as shared
set(BUILD_SHARED_LIBS OFF)
if (BUILD_SHARED_LIBS)
set(BUILD_SHARED_LIBS OFF)
set(CMAKE_POSITION_INDEPENDENT_CODE ON)
endif()
# For libraries that already come with a CMakeLists file,
# simply add the directory to that file as a subdirectory

2
externals/dynarmic/externals/mcl/CMakeLists.txt vendored
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@ -1,7 +1,7 @@
cmake_minimum_required(VERSION 3.12 FATAL_ERROR)
include(GNUInstallDirs)
project(mcl LANGUAGES CXX VERSION 0.1.5)
project(mcl LANGUAGES CXX VERSION 0.1.8)
# Project options
option(MCL_WARNINGS_AS_ERRORS "Warnings as errors" ON)

16
externals/dynarmic/externals/mcl/include/mcl/bit/bit_field.hpp vendored
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@ -143,11 +143,9 @@ template<size_t bit_count, BitIntegral T>
constexpr T sign_extend(T value) {
static_assert(bit_count != 0, "cannot sign-extend zero-sized value");
constexpr T m = ones<bit_count, T>();
if (get_bit<bit_count - 1, T>(value)) {
return value | ~m;
}
return value;
using S = std::make_signed_t<T>;
constexpr size_t shift_amount = bitsizeof<T> - bit_count;
return static_cast<T>(static_cast<S>(value << shift_amount) >> shift_amount);
}
/// Sign-extends a value that has bit_count bits to the full bitwidth of type T.
@ -155,11 +153,9 @@ template<BitIntegral T>
constexpr T sign_extend(size_t bit_count, T value) {
ASSERT_MSG(bit_count != 0, "cannot sign-extend zero-sized value");
const T m = ones<T>(bit_count);
if (get_bit<T>(bit_count - 1, value)) {
return value | ~m;
}
return value;
using S = std::make_signed_t<T>;
const size_t shift_amount = bitsizeof<T> - bit_count;
return static_cast<T>(static_cast<S>(value << shift_amount) >> shift_amount);
}
/// Replicate an element across a value of type T.

1
externals/dynarmic/externals/mcl/src/CMakeLists.txt vendored
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@ -63,6 +63,7 @@ target_include_directories(mcl
)
target_compile_options(mcl PRIVATE ${MCL_CXX_FLAGS})
target_link_libraries(mcl PUBLIC $<BUILD_INTERFACE:fmt::fmt>)
set_property(TARGET mcl PROPERTY POSITION_INDEPENDENT_CODE ON)
add_library(merry::mcl ALIAS mcl)
include(CreateTargetDirectoryGroups)

1
externals/dynarmic/externals/mcl/src/assert.cpp vendored
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@ -14,6 +14,7 @@ namespace mcl::detail {
[[noreturn]] void assert_terminate_impl(fmt::string_view msg, fmt::format_args args) {
fmt::print(stderr, "assertion failed: ");
fmt::vprint(stderr, msg, args);
std::fflush(stderr);
std::terminate();
}

1
externals/dynarmic/externals/xbyak/.github/FUNDING.yml vendored Executable file
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@ -0,0 +1 @@
github: herumi

2
externals/dynarmic/externals/xbyak/.github/workflows/main.yml vendored
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@ -7,5 +7,7 @@ jobs:
runs-on: ubuntu-latest
steps:
- uses: actions/checkout@v2
- run: sudo apt update
- run: sudo apt install nasm yasm g++-multilib tcsh
- run: make test
- run: make -C sample CXXFLAGS="-DXBYAK_NO_EXCEPTION"

21
externals/dynarmic/externals/xbyak/CMakeLists.txt vendored
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@ -1,6 +1,6 @@
cmake_minimum_required(VERSION 2.6...3.0.2)
project(xbyak CXX)
project(xbyak LANGUAGES CXX VERSION 6.60.1)
file(GLOB headers xbyak/*.h)
@ -18,17 +18,26 @@ if (DEFINED CMAKE_VERSION AND CMAKE_VERSION VERSION_GREATER_EQUAL 3.0.2)
install(
TARGETS ${PROJECT_NAME}
EXPORT ${PROJECT_NAME}-targets
INCLUDES DESTINATION ${CMAKE_INSTALL_INCLUDEDIR}/${PROJECT_NAME}
)
configure_file(
include(CMakePackageConfigHelpers)
configure_package_config_file(
cmake/config.cmake.in
${PROJECT_NAME}Config.cmake
@ONLY
"${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}-config.cmake"
INSTALL_DESTINATION ${CMAKE_INSTALL_LIBDIR}/cmake/${PROJECT_NAME}
)
write_basic_package_version_file(
"${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}-config-version.cmake"
COMPATIBILITY SameMajorVersion
)
install(
FILES ${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}Config.cmake
DESTINATION ${CMAKE_INSTALL_LIBDIR}/cmake/${PROJECT_NAME}
FILES
"${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}-config.cmake"
"${CMAKE_CURRENT_BINARY_DIR}/${PROJECT_NAME}-config-version.cmake"
DESTINATION
${CMAKE_INSTALL_LIBDIR}/cmake/${PROJECT_NAME}
)
install(

20
externals/dynarmic/externals/xbyak/COPYRIGHT vendored
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@ -25,23 +25,3 @@ INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF
THE POSSIBILITY OF SUCH DAMAGE.
-----------------------------------------------------------------------------
ソースコード形式かバイナリ形式か、変更するかしないかを問わず、以下の条件を満た
す場合に限り、再頒布および使用が許可されます。
ソースコードを再頒布する場合、上記の著作権表示、本条件一覧、および下記免責条項
を含めること。
バイナリ形式で再頒布する場合、頒布物に付属のドキュメント等の資料に、上記の著作
権表示、本条件一覧、および下記免責条項を含めること。
書面による特別の許可なしに、本ソフトウェアから派生した製品の宣伝または販売促進
に、著作権者の名前またはコントリビューターの名前を使用してはならない。
本ソフトウェアは、著作権者およびコントリビューターによって「現状のまま」提供さ
れており、明示黙示を問わず、商業的な使用可能性、および特定の目的に対する適合性
に関する暗黙の保証も含め、またそれに限定されない、いかなる保証もありません。
著作権者もコントリビューターも、事由のいかんを問わず、 損害発生の原因いかんを
問わず、かつ責任の根拠が契約であるか厳格責任であるか（過失その他の）不法行為で
あるかを問わず、仮にそのような損害が発生する可能性を知らされていたとしても、
本ソフトウェアの使用によって発生した（代替品または代用サービスの調達、使用の
喪失、データの喪失、利益の喪失、業務の中断も含め、またそれに限定されない）直接
損害、間接損害、偶発的な損害、特別損害、懲罰的損害、または結果損害について、
一切責任を負わないものとします。

2
externals/dynarmic/externals/xbyak/cmake/config.cmake.in vendored
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@ -1 +1,3 @@
@PACKAGE_INIT@
include("${CMAKE_CURRENT_LIST_DIR}/@PROJECT_NAME@-targets.cmake")

8
externals/dynarmic/externals/xbyak/cmake/meson-config.cmake.in vendored Executable file
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@ -0,0 +1,8 @@
@PACKAGE_INIT@
if(NOT TARGET @TARGET_NAME@)
add_library(@TARGET_NAME@ INTERFACE IMPORTED)
set_target_properties(@TARGET_NAME@ PROPERTIES
INTERFACE_INCLUDE_DIRECTORIES "@ABSOLUTE_INCLUDE_DIR@"
)
endif()

182
externals/dynarmic/externals/xbyak/doc/changelog.md vendored Executable file
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@ -0,0 +1,182 @@
# History
* 2022/Jun/15 ver 6.60.1 fix link error of Xbyak::util::Cpu on Visual Studio with /O0 option
* 2022/Jun/06 ver 6.60 change the version format to avoid it going backward
* 2022/Jun/01 ver 6.06 refactor Cpu::Type class and improve MmapAllocator when XBYAK_USE_MEMFD is defined.
* 2022/Mar/20 ver 6.052 add Cpu::operator==()
* 2022/Mar/13 ver 6.051 fix compile error when XBYAK_NO_EXCEPTION is defined
* 2022/Mar/12 ver 6.05 add movdiri, movdir64b, clwb, cldemote
* 2022/Apr/22 ver 6.041 consider Android and mingw
* 2022/Apr/05 ver 6.04 add tpause, umonitor, umwait
* 2022/Mar/08 ver 6.03 MmapAllocator supports memfd with user-defined strings.
* 2022/Jan/28 ver 6.02 strict check the range of 32-bit dispacement
* 2021/Dec/14 ver 6.01 support T_FAR jump/call and retf
* 2021/Sep/14 ver 6.00 fully support AVX512-FP16
* 2021/Sep/09 ver 5.997 fix vrndscale* to support {sae}
* 2021/Sep/03 ver 5.996 fix v{add,sub,mul,div,max,min}{sd,ss} to support T_rd_sae.
* 2021/Aug/15 ver 5.995 add a label to /proc/self/maps if XBYAK_USE_MEMFD is defined on Linux
* 2021/Jun/17 ver 5.994 add alias of vcmpXX{ps,pd,ss,sd} with mask register
* 2021/Jun/06 ver 5.993 strict check of gather/scatter register combination
* 2021/May/09 ver 5.992 support endbr32 and endbr64
* 2020/Nov/16 ver 5.991 disable constexpr for gcc-5 with -std=c++-14
* 2020/Oct/19 ver 5.99 support VNNI instructions(Thanks to akharito)
* 2020/Oct/17 ver 5.98 support the form of [scale * reg]
* 2020/Sep/08 ver 5.97 replace uint32 with uint32_t etc.
* 2020/Aug/28 ver 5.95 some constructors of register classes support constexpr if C++14 or later
* 2020/Aug/04 ver 5.941 `CodeGenerator::reset()` calls `ClearError()`.
* 2020/Jul/28 ver 5.94 remove #include <winsock2.h> (only windows)
* 2020/Jul/21 ver 5.93 support exception-less mode
* 2020/Jun/30 ver 5.92 support Intel AMX instruction set (Thanks to nshustrov)
* 2020/Jun/22 ver 5.913 fix mov(r64, imm64) on 32-bit env with XBYAK64
* 2020/Jun/19 ver 5.912 define MAP_JIT on macOS regardless of Xcode version (Thanks to rsdubtso)
* 2020/May/10 ver 5.911 XBYAK_USE_MMAP_ALLOCATOR is defined unless XBYAK_DONT_USE_MMAP_ALLOCATOR is defined.
* 2020/Apr/20 ver 5.91 accept mask register k0 (it means no mask)
* 2020/Apr/09 ver 5.90 kmov{b,d,w,q} throws exception for an unsupported register
* 2020/Feb/26 ver 5.891 fix typo of type
* 2020/Jan/03 ver 5.89 fix error of vfpclasspd
* 2019/Dec/20 ver 5.88 fix compile error on Windows
* 2019/Dec/19 ver 5.87 add setDefaultJmpNEAR(), which deals with `jmp` of an undefined label as T_NEAR if no type is specified.
* 2019/Dec/13 ver 5.86 [changed] revert to the behavior before v5.84 if -fno-operator-names is defined (and() is available)
* 2019/Dec/07 ver 5.85 append MAP_JIT flag to mmap for macOS mojave or later
* 2019/Nov/29 ver 5.84 [changed] XBYAK_NO_OP_NAMES is defined unless XBYAK_USE_OP_NAMES is defined
* 2019/Oct/12 ver 5.83 exit(1) was removed
* 2019/Sep/23 ver 5.82 support monitorx, mwaitx, clzero (thanks to @MagurosanTeam)
* 2019/Sep/14 ver 5.81 support some generic mnemonics.
* 2019/Aug/01 ver 5.802 fix detection of AVX512_BF16 (thanks to vpirogov)
* 2019/May/27 support vp2intersectd, vp2intersectq (not tested)
* 2019/May/26 ver 5.80 support vcvtne2ps2bf16, vcvtneps2bf16, vdpbf16ps
* 2019/Apr/27 ver 5.79 vcmppd/vcmpps supports ptr_b(thanks to jkopinsky)
* 2019/Apr/15 ver 5.78 rewrite Reg::changeBit() (thanks to MerryMage)
* 2019/Mar/06 ver 5.77 fix number of cores that share LLC cache by densamoilov
* 2019/Jan/17 ver 5.76 add Cpu::getNumCores() by shelleygoel
* 2018/Oct/31 ver 5.751 recover Xbyak::CastTo for compatibility
* 2018/Oct/29 ver 5.75 unlink LabelManager from Label when msg is destroyed
* 2018/Oct/21 ver 5.74 support RegRip +/- int. Xbyak::CastTo is removed
* 2018/Oct/15 util::AddressFrame uses push/pop instead of mov
* 2018/Sep/19 ver 5.73 fix evex encoding of vpslld, vpslldq, vpsllw, etc for (reg, mem, imm8)
* 2018/Sep/19 ver 5.72 fix the encoding of vinsertps for disp8N(Thanks to petercaday)
* 2018/Sep/04 ver 5.71 L() returns a new label instance
* 2018/Aug/27 ver 5.70 support setProtectMode() and DontUseProtect for read/exec setting
* 2018/Aug/24 ver 5.68 fix wrong VSIB encoding with vector index >= 16(thanks to petercaday)
* 2018/Aug/14 ver 5.67 remove mutable in Address ; fix setCacheHierarchy for cloud vm
* 2018/Jul/26 ver 5.661 support mingw64
* 2018/Jul/24 ver 5.66 add CodeArray::PROTECT_RE to mode of protect()
* 2018/Jun/26 ver 5.65 fix push(qword [mem])
* 2018/Mar/07 ver 5.64 fix zero division in Cpu() on some cpu
* 2018/Feb/14 ver 5.63 fix Cpu::setCacheHierarchy() and fix EvexModifierZero for clang<3.9(thanks to mgouicem)
* 2018/Feb/13 ver 5.62 Cpu::setCacheHierarchy() by mgouicem and rsdubtso
* 2018/Feb/07 ver 5.61 vmov* supports mem{k}{z}(I forgot it)
* 2018/Jan/24 ver 5.601 add xword, yword, etc. into Xbyak::util namespace
* 2018/Jan/05 ver 5.60 support AVX-512 for Ice lake(319433-030.pdf)
* 2017/Aug/22 ver 5.53 fix mpx encoding, add bnd() prefix
* 2017/Aug/18 ver 5.52 fix align (thanks to MerryMage)
* 2017/Aug/17 ver 5.51 add multi-byte nop and align() uses it(thanks to inolen)
* 2017/Aug/08 ver 5.50 add mpx(thanks to magurosan)
* 2017/Aug/08 ver 5.45 add sha(thanks to magurosan)
* 2017/Aug/08 ver 5.44 add prefetchw(thanks to rsdubtso)
* 2017/Jul/12 ver 5.432 reduce warnings of PVS studio
* 2017/Jul/09 ver 5.431 fix hasRex() (no affect) (thanks to drillsar)
* 2017/May/14 ver 5.43 fix CodeGenerator::resetSize() (thanks to gibbed)
* 2017/May/13 ver 5.42 add movs{b,w,d,q}
* 2017/Jan/26 ver 5.41 add prefetchwt1 and support for scale == 0(thanks to rsdubtso)
* 2016/Dec/14 ver 5.40 add Label::getAddress() method to get the pointer specified by the label
* 2016/Dec/09 ver 5.34 fix handling of negative offsets when encoding disp8N(thanks to rsdubtso)
* 2016/Dec/08 ver 5.33 fix encoding of vpbroadcast{b,w,d,q}, vpinsr{b,w}, vpextr{b,w} for disp8N
* 2016/Dec/01 ver 5.32 rename __xgetbv() to _xgetbv() to support clang for Visual Studio(thanks to freiro)
* 2016/Nov/27 ver 5.31 rename AVX512_4VNNI to AVX512_4VNNIW
* 2016/Nov/27 ver 5.30 add AVX512_4VNNI, AVX512_4FMAPS instructions(thanks to rsdubtso)
* 2016/Nov/26 ver 5.20 add detection of AVX512_4VNNI and AVX512_4FMAPS(thanks to rsdubtso)
* 2016/Nov/20 ver 5.11 lost vptest for ymm(thanks to gregory38)
* 2016/Nov/20 ver 5.10 add addressing [rip+&var]
* 2016/Sep/29 ver 5.03 fix detection ERR_INVALID_OPMASK_WITH_MEMORY(thanks to PVS-Studio)
* 2016/Aug/15 ver 5.02 xbyak does not include xbyak_bin2hex.h
* 2016/Aug/15 ver 5.011 fix detection of version of gcc 5.4
* 2016/Aug/03 ver 5.01 disable omitted operand
* 2016/Jun/24 ver 5.00 support avx-512 instruction set
* 2016/Jun/13 avx-512 add mask instructions
* 2016/May/05 ver 4.91 add detection of AVX-512 to Xbyak::util::Cpu
* 2016/Mar/14 ver 4.901 comment to ready() function(thanks to skmp)
* 2016/Feb/04 ver 4.90 add jcc(const void *addr);
* 2016/Jan/30 ver 4.89 vpblendvb supports ymm reg(thanks to John Funnell)
* 2016/Jan/24 ver 4.88 lea, cmov supports 16-bit register(thanks to whyisthisfieldhere)
* 2015/Oct/05 ver 4.87 support segment selectors
* 2015/Aug/18 ver 4.86 fix [rip + label] addressing with immediate value(thanks to whyisthisfieldhere)
* 2015/Aug/10 ver 4.85 Address::operator==() is not correct(thanks to inolen)
* 2015/Jun/22 ver 4.84 call() support variadic template if available(thanks to randomstuff)
* 2015/Jun/16 ver 4.83 support movbe(thanks to benvanik)
* 2015/May/24 ver 4.82 support detection of F16C
* 2015/Apr/25 ver 4.81 fix the condition to throw exception for setSize(thanks to whyisthisfieldhere)
* 2015/Apr/22 ver 4.80 rip supports label(thanks to whyisthisfieldhere)
* 2015/Jar/28 ver 4.71 support adcx, adox, cmpxchg, rdseed, stac
* 2014/Oct/14 ver 4.70 support MmapAllocator
* 2014/Jun/13 ver 4.62 disable warning of VC2014
* 2014/May/30 ver 4.61 support bt, bts, btr, btc
* 2014/May/28 ver 4.60 support vcvtph2ps, vcvtps2ph
* 2014/Apr/11 ver 4.52 add detection of rdrand
* 2014/Mar/25 ver 4.51 remove state information of unreferenced labels
* 2014/Mar/16 ver 4.50 support new Label
* 2014/Mar/05 ver 4.40 fix wrong detection of BMI/enhanced rep on VirtualBox
* 2013/Dec/03 ver 4.30 support Reg::cvt8(), cvt16(), cvt32(), cvt64()
* 2013/Oct/16 ver 4.21 label support std::string
* 2013/Jul/30 ver 4.20 [break backward compatibility] split Reg32e class into RegExp(base+index*scale+disp) and Reg32e(means Reg32 or Reg64)
* 2013/Jul/04 ver 4.10 [break backward compatibility] change the type of Xbyak::Error from enum to a class
* 2013/Jun/21 ver 4.02 add putL(LABEL) function to put the address of the label
* 2013/Jun/21 ver 4.01 vpsllw, vpslld, vpsllq, vpsraw, vpsrad, vpsrlw, vpsrld, vpsrlq support (ymm, ymm, xmm). support vpbroadcastb, vpbroadcastw, vpbroadcastd, vpbroadcastq(thanks to Gabest).
* 2013/May/30 ver 4.00 support AVX2, VEX-encoded GPR-instructions
* 2013/Mar/27 ver 3.80 support mov(reg, "label");
* 2013/Mar/13 ver 3.76 add cqo(), jcxz(), jecxz(), jrcxz()
* 2013/Jan/15 ver 3.75 add setSize() to modify generated code
* 2013/Jan/12 ver 3.74 add CodeGenerator::reset() ; add Allocator::useProtect()
* 2013/Jan/06 ver 3.73 use unordered_map if possible
* 2012/Dec/04 ver 3.72 eax, ebx, ... are member variables of CodeGenerator(revert), Xbyak::util::eax, ... are static const.
* 2012/Nov/17 ver 3.71 and_(), or_(), xor_(), not_() are available if XBYAK_NO_OP_NAMES is not defined.
* 2012/Nov/17 change eax, ebx, ptr and so on in CodeGenerator as static member and alias of them are defined in Xbyak::util.
* 2012/Nov/09 ver 3.70 XBYAK_NO_OP_NAMES macro is added to use and_() instead of and() (thanks to Mattias)
* 2012/Nov/01 ver 3.62 add fwait/fnwait/finit/fninit
* 2012/Nov/01 ver 3.61 add fldcw/fstcw
* 2012/May/03 ver 3.60 change interface of Allocator
* 2012/Mar/23 ver 3.51 fix userPtr mode
* 2012/Mar/19 ver 3.50 support AutoGrow mode
* 2011/Nov/09 ver 3.05 fix bit property of rip addresing / support movsxd
* 2011/Aug/15 ver 3.04 fix dealing with imm8 such as add(dword [ebp-8], 0xda); (thanks to lolcat)
* 2011/Jun/16 ver 3.03 fix __GNUC_PREREQ macro for Mac gcc(thanks to t_teruya)
* 2011/Apr/28 ver 3.02 do not use xgetbv on Mac gcc
* 2011/May/24 ver 3.01 fix typo of OSXSAVE
* 2011/May/23 ver 3.00 add vcmpeqps and so on
* 2011/Feb/16 ver 2.994 beta add vmovq for 32-bit mode(I forgot it)
* 2011/Feb/16 ver 2.993 beta remove cvtReg to avoid thread unsafe
* 2011/Feb/10 ver 2.992 beta support one argument syntax for fadd like nasm
* 2011/Feb/07 ver 2.991 beta fix pextrw reg, xmm, imm(Thanks to Gabest)
* 2011/Feb/04 ver 2.99 beta support AVX
* 2010/Dec/08 ver 2.31 fix ptr [rip + 32bit offset], support rdtscp
* 2010/Oct/19 ver 2.30 support pclmulqdq, aesdec, aesdeclast, aesenc, aesenclast, aesimc, aeskeygenassist
* 2010/Jun/07 ver 2.29 fix call(<label>)
* 2010/Jun/17 ver 2.28 move some member functions to public
* 2010/Jun/01 ver 2.27 support encoding of mov(reg64, imm) like yasm(not nasm)
* 2010/May/24 ver 2.26 fix sub(rsp, 1000)
* 2010/Apr/26 ver 2.25 add jc/jnc(I forgot to implement them...)
* 2010/Apr/16 ver 2.24 change the prototype of rewrite() method
* 2010/Apr/15 ver 2.23 fix align() and xbyak_util.h for Mac
* 2010/Feb/16 ver 2.22 fix inLocalLabel()/outLocalLabel()
* 2009/Dec/09 ver 2.21 support cygwin(gcc 4.3.2)
* 2009/Nov/28 support a part of FPU
* 2009/Jun/25 fix mov(qword[rax], imm); (thanks to Martin)
* 2009/Mar/10 fix redundant REX.W prefix on jmp/call reg64
* 2009/Feb/24 add movq reg64, mmx/xmm; movq mmx/xmm, reg64
* 2009/Feb/13 movd(xmm7, dword[eax]) drops 0x66 prefix (thanks to Gabest)
* 2008/Dec/30 fix call in short relative address(thanks to kato san)
* 2008/Sep/18 support @@, @f, @b and localization of label(thanks to nobu-q san)
* 2008/Sep/18 support (ptr[rip + 32bit offset]) (thanks to Dango-Chu san)
* 2008/Jun/03 fix align(). mov(ptr[eax],1) throws ERR_MEM_SIZE_IS_NOT_SPECIFIED.
* 2008/Jun/02 support memory interface allocated by user
* 2008/May/26 fix protect() to avoid invalid setting(thanks to shinichiro_h san)
* 2008/Apr/30 add cmpxchg16b, cdqe
* 2008/Apr/29 support x64
* 2008/Apr/14 code refactoring
* 2008/Mar/12 add bsr/bsf
* 2008/Feb/14 fix output of sub eax, 1234 (thanks to Robert)
* 2007/Nov/5 support lock, xadd, xchg
* 2007/Nov/2 support SSSE3/SSE4 (thanks to Dango-Chu san)
* 2007/Feb/4 fix the bug that exception doesn't occur under the condition which the offset of jmp mnemonic without T_NEAR is over 127.
* 2007/Jan/21 fix the bug to create address like [disp] select smaller representation for mov (eax|ax|al, [disp])
* 2007/Jan/4 first version

14
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@ -0,0 +1,14 @@
# Install
The following files are necessary. Please add the path to your compile directory.
* xbyak.h
* xbyak_mnemonic.h
* xbyak_util.h
Linux:
```
make install
```
These files are copied into `/usr/local/include/xbyak`.

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@ -0,0 +1,409 @@
# Usage
Inherit `Xbyak::CodeGenerator` class and make the class method.
```
#include <xbyak/xbyak.h>
struct Code : Xbyak::CodeGenerator {
Code(int x)
{
mov(eax, x);
ret();
}
};
```
Or you can pass the instance of CodeGenerator without inheriting.
```
void genCode(Xbyak::CodeGenerator& code, int x) {
using namespace Xbyak::util;
code.mov(eax, x);
code.ret();
}
```
Make an instance of the class and get the function
pointer by calling `getCode()` and call it.
```
Code c(5);
int (*f)() = c.getCode<int (*)()>();
printf("ret=%d\n", f()); // ret = 5
```
## Syntax
Similar to MASM/NASM syntax with parentheses.
```
NASM Xbyak
mov eax, ebx --> mov(eax, ebx);
inc ecx inc(ecx);
ret --> ret();
```
## Addressing
Use `qword`, `dword`, `word` and `byte` if it is necessary to specify the size of memory,
otherwise use `ptr`.
```
(ptr|qword|dword|word|byte) [base + index * (1|2|4|8) + displacement]
[rip + 32bit disp] ; x64 only
NASM Xbyak
mov eax, [ebx+ecx] --> mov(eax, ptr [ebx+ecx]);
mov al, [ebx+ecx] --> mov(al, ptr [ebx + ecx]);
test byte [esp], 4 --> test(byte [esp], 4);
inc qword [rax] --> inc(qword [rax]);
```
**Note**: `qword`, ... are member variables, then don't use `dword` as unsigned int type.
### How to use Selector (Segment Register)
```
mov eax, [fs:eax] --> putSeg(fs);
mov(eax, ptr [eax]);
mov ax, cs --> mov(ax, cs);
```
**Note**: Segment class is not derived from `Operand`.
## AVX
```
vaddps(xmm1, xmm2, xmm3); // xmm1 <- xmm2 + xmm3
vaddps(xmm2, xmm3, ptr [rax]); // use ptr to access memory
vgatherdpd(xmm1, ptr [ebp + 256 + xmm2*4], xmm3);
```
**Note**:
If `XBYAK_ENABLE_OMITTED_OPERAND` is defined, then you can use two operand version for backward compatibility.
But the newer version will not support it.
```
vaddps(xmm2, xmm3); // xmm2 <- xmm2 + xmm3
```
## AVX-512
```
vaddpd zmm2, zmm5, zmm30 --> vaddpd(zmm2, zmm5, zmm30);
vaddpd xmm30, xmm20, [rax] --> vaddpd(xmm30, xmm20, ptr [rax]);
vaddps xmm30, xmm20, [rax] --> vaddps(xmm30, xmm20, ptr [rax]);
vaddpd zmm2{k5}, zmm4, zmm2 --> vaddpd(zmm2 | k5, zmm4, zmm2);
vaddpd zmm2{k5}{z}, zmm4, zmm2 --> vaddpd(zmm2 | k5 | T_z, zmm4, zmm2);
vaddpd zmm2{k5}{z}, zmm4, zmm2,{rd-sae} --> vaddpd(zmm2 | k5 | T_z, zmm4, zmm2 | T_rd_sae);
vaddpd(zmm2 | k5 | T_z | T_rd_sae, zmm4, zmm2); // the position of `|` is arbitrary.
vcmppd k4{k3}, zmm1, zmm2, {sae}, 5 --> vcmppd(k4 | k3, zmm1, zmm2 | T_sae, 5);
vaddpd xmm1, xmm2, [rax+256] --> vaddpd(xmm1, xmm2, ptr [rax+256]);
vaddpd xmm1, xmm2, [rax+256]{1to2} --> vaddpd(xmm1, xmm2, ptr_b [rax+256]);
vaddpd ymm1, ymm2, [rax+256]{1to4} --> vaddpd(ymm1, ymm2, ptr_b [rax+256]);
vaddpd zmm1, zmm2, [rax+256]{1to8} --> vaddpd(zmm1, zmm2, ptr_b [rax+256]);
vaddps zmm1, zmm2, [rax+rcx*8+8]{1to16} --> vaddps(zmm1, zmm2, ptr_b [rax+rcx*8+8]);
vmovsd [rax]{k1}, xmm4 --> vmovsd(ptr [rax] | k1, xmm4);
vcvtpd2dq xmm16, oword [eax+33] --> vcvtpd2dq(xmm16, xword [eax+33]); // use xword for m128 instead of oword
vcvtpd2dq(xmm16, ptr [eax+33]); // default xword
vcvtpd2dq xmm21, [eax+32]{1to2} --> vcvtpd2dq(xmm21, ptr_b [eax+32]);
vcvtpd2dq xmm0, yword [eax+33] --> vcvtpd2dq(xmm0, yword [eax+33]); // use yword for m256
vcvtpd2dq xmm19, [eax+32]{1to4} --> vcvtpd2dq(xmm19, yword_b [eax+32]); // use yword_b to broadcast
vfpclassps k5{k3}, zword [rax+64], 5 --> vfpclassps(k5|k3, zword [rax+64], 5); // specify m512
vfpclasspd k5{k3}, [rax+64]{1to2}, 5 --> vfpclasspd(k5|k3, xword_b [rax+64], 5); // broadcast 64-bit to 128-bit
vfpclassps k5{k3}, [rax+64]{1to4}, 5 --> vfpclassps(k5|k3, yword_b [rax+64], 5); // broadcast 64-bit to 256-bit
vpdpbusd(xm0, xm1, xm2); // default encoding is EVEX
vpdpbusd(xm0, xm1, xm2, EvexEncoding); // same as the above
vpdpbusd(xm0, xm1, xm2, VexEncoding); // VEX encoding
```
### Remark
* `k1`, ..., `k7` are opmask registers.
- `k0` is dealt as no mask.
- e.g. `vmovaps(zmm0|k0, ptr[rax]);` and `vmovaps(zmm0|T_z, ptr[rax]);` are same to `vmovaps(zmm0, ptr[rax]);`.
* use `| T_z`, `| T_sae`, `| T_rn_sae`, `| T_rd_sae`, `| T_ru_sae`, `| T_rz_sae` instead of `,{z}`, `,{sae}`, `,{rn-sae}`, `,{rd-sae}`, `,{ru-sae}`, `,{rz-sae}` respectively.
* `k4 | k3` is different from `k3 | k4`.
* use `ptr_b` for broadcast `{1toX}`. X is automatically determined.
* specify `xword`/`yword`/`zword(_b)` for m128/m256/m512 if necessary.
## Label
Two kinds of Label are supported. (String literal and Label class).
### String literal
```
L("L1");
jmp("L1");
jmp("L2");
...
a few mnemonics (8-bit displacement jmp)
...
L("L2");
jmp("L3", T_NEAR);
...
a lot of mnemonics (32-bit displacement jmp)
...
L("L3");
```
* Call `hasUndefinedLabel()` to verify your code has no undefined label.
* you can use a label for immediate value of mov like as `mov(eax, "L2")`.
### Support `@@`, `@f`, `@b` like MASM
```
L("@@"); // <A>
jmp("@b"); // jmp to <A>
jmp("@f"); // jmp to <B>
L("@@"); // <B>
jmp("@b"); // jmp to <B>
mov(eax, "@b");
jmp(eax); // jmp to <B>
```
### Local label
Label symbols beginning with a period between `inLocalLabel()` and `outLocalLabel()`
are treated as a local label.
`inLocalLabel()` and `outLocalLabel()` can be nested.
```
void func1()
{
inLocalLabel();
L(".lp"); // <A> ; local label
...
jmp(".lp"); // jmp to <A>
L("aaa"); // global label <C>
outLocalLabel();
inLocalLabel();
L(".lp"); // <B> ; local label
func1();
jmp(".lp"); // jmp to <B>
inLocalLabel();
jmp("aaa"); // jmp to <C>
}
```
### short and long jump
Xbyak deals with jump mnemonics of an undefined label as short jump if no type is specified.
So if the size between jmp and label is larger than 127 byte, then xbyak will cause an error.
```
jmp("short-jmp"); // short jmp
// small code
L("short-jmp");
jmp("long-jmp");
// long code
L("long-jmp"); // throw exception
```
Then specify T_NEAR for jmp.
```
jmp("long-jmp", T_NEAR); // long jmp
// long code
L("long-jmp");
```
Or call `setDefaultJmpNEAR(true);` once, then the default type is set to T_NEAR.
```
jmp("long-jmp"); // long jmp
// long code
L("long-jmp");
```
### Label class
`L()` and `jxx()` support Label class.
```
Xbyak::Label label1, label2;
L(label1);
...
jmp(label1);
...
jmp(label2);
...
L(label2);
```
Use `putL` for jmp table
```
Label labelTbl, L0, L1, L2;
mov(rax, labelTbl);
// rdx is an index of jump table
jmp(ptr [rax + rdx * sizeof(void*)]);
L(labelTbl);
putL(L0);
putL(L1);
putL(L2);
L(L0);
....
L(L1);
....
```
`assignL(dstLabel, srcLabel)` binds dstLabel with srcLabel.
```
Label label2;
Label label1 = L(); // make label1 ; same to Label label1; L(label1);
...
jmp(label2); // label2 is not determined here
...
assignL(label2, label1); // label2 <- label1
```
The `jmp` in the above code jumps to label1 assigned by `assignL`.
**Note**:
* srcLabel must be used in `L()`.
* dstLabel must not be used in `L()`.
`Label::getAddress()` returns the address specified by the label instance and 0 if not specified.
```
// not AutoGrow mode
Label label;
assert(label.getAddress() == 0);
L(label);
assert(label.getAddress() == getCurr());
```
### Rip ; relative addressing
```
Label label;
mov(eax, ptr [rip + label]); // eax = 4
...
L(label);
dd(4);
```
```
int x;
...
mov(eax, ptr[rip + &x]); // throw exception if the difference between &x and current position is larger than 2GiB
```
## Far jump
Use `word|dword|qword` instead of `ptr` to specify the address size.
### 32 bit mode
```
jmp(word[eax], T_FAR); // jmp m16:16(FF /5)
jmp(dword[eax], T_FAR); // jmp m16:32(FF /5)
```
### 64 bit mode
```
jmp(word[rax], T_FAR); // jmp m16:16(FF /5)
jmp(dword[rax], T_FAR); // jmp m16:32(FF /5)
jmp(qword[rax], T_FAR); // jmp m16:64(REX.W FF /5)
```
The same applies to `call`.
## Code size
The default max code size is 4096 bytes.
Specify the size in constructor of `CodeGenerator()` if necessary.
```
class Quantize : public Xbyak::CodeGenerator {
public:
Quantize()
: CodeGenerator(8192)
{
}
...
};
```
## User allocated memory
You can make jit code on prepared memory.
Call `setProtectModeRE` yourself to change memory mode if using the prepared memory.
```
uint8_t alignas(4096) buf[8192]; // C++11 or later
struct Code : Xbyak::CodeGenerator {
Code() : Xbyak::CodeGenerator(sizeof(buf), buf)
{
mov(rax, 123);
ret();
}
};
int main()
{
Code c;
c.setProtectModeRE(); // set memory to Read/Exec
printf("%d\n", c.getCode<int(*)()>()());
}
```
**Note**: See [../sample/test0.cpp](../sample/test0.cpp).
### AutoGrow
The memory region for jit is automatically extended if necessary when `AutoGrow` is specified in a constructor of `CodeGenerator`.
Call `ready()` or `readyRE()` before calling `getCode()` to fix jump address.
```
struct Code : Xbyak::CodeGenerator {
Code()
: Xbyak::CodeGenerator(<default memory size>, Xbyak::AutoGrow)
{
...
}
};
Code c;
// generate code for jit
c.ready(); // mode = Read/Write/Exec
```
**Note**:
* Don't use the address returned by `getCurr()` before calling `ready()` because it may be invalid address.
### Read/Exec mode
Xbyak set Read/Write/Exec mode to memory to run jit code.
If you want to use Read/Exec mode for security, then specify `DontSetProtectRWE` for `CodeGenerator` and
call `setProtectModeRE()` after generating jit code.
```
struct Code : Xbyak::CodeGenerator {
Code()
: Xbyak::CodeGenerator(4096, Xbyak::DontSetProtectRWE)
{
mov(eax, 123);
ret();
}
};
Code c;
c.setProtectModeRE();
...
```
Call `readyRE()` instead of `ready()` when using `AutoGrow` mode.
See [protect-re.cpp](../sample/protect-re.cpp).
## Exception-less mode
If `XBYAK_NO_EXCEPTION` is defined, then gcc/clang can compile xbyak with `-fno-exceptions`.
In stead of throwing an exception, `Xbyak::GetError()` returns non-zero value (e.g. `ERR_BAD_ADDRESSING`) if there is something wrong.
The status will not be changed automatically, then you should reset it by `Xbyak::ClearError()`.
`CodeGenerator::reset()` calls `ClearError()`.
## Macro
* **XBYAK32** is defined on 32bit.
* **XBYAK64** is defined on 64bit.
* **XBYAK64_WIN** is defined on 64bit Windows(VC).
* **XBYAK64_GCC** is defined on 64bit gcc, cygwin.
* define **XBYAK_USE_OP_NAMES** on gcc with `-fno-operator-names` if you want to use `and()`, ....
* define **XBYAK_ENABLE_OMITTED_OPERAND** if you use omitted destination such as `vaddps(xmm2, xmm3);`(deprecated in the future).
* define **XBYAK_UNDEF_JNL** if Bessel function jnl is defined as macro.
* define **XBYAK_NO_EXCEPTION** for a compiler option `-fno-exceptions`.
* define **XBYAK_USE_MEMFD** on Linux then /proc/self/maps shows the area used by xbyak.
* define **XBYAK_OLD_DISP_CHECK** if the old disp check is necessary (deprecated in the future).
## Sample
* [test0.cpp](../sample/test0.cpp) ; tiny sample (x86, x64)
* [quantize.cpp](../sample/quantize.cpp) ; JIT optimized quantization by fast division (x86 only)
* [calc.cpp](../sample/calc.cpp) ; assemble and estimate a given polynomial (x86, x64)
* [bf.cpp](../sample/bf.cpp) ; JIT brainfuck (x86, x64)

17
externals/dynarmic/externals/xbyak/gen/Makefile vendored
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@ -1,7 +1,7 @@
TARGET=../xbyak/xbyak_mnemonic.h
BIN=sortline gen_code gen_avx512
CFLAGS=-I../ -O2 -DXBYAK_NO_OP_NAMES -Wall -Wextra -Wno-missing-field-initializers
all: $(TARGET)
CFLAGS=-I../ -O2 -DXBYAK_NO_OP_NAMES -Wall -Wextra -Wno-missing-field-initializers $(CXXFLAGS) $(CPPFLAGS) $(LDFLAGS)
all: $(TARGET) ../CMakeLists.txt ../meson.build ../readme.md ../readme.txt
sortline: sortline.cpp
$(CXX) $(CFLAGS) $< -o $@
gen_code: gen_code.cpp ../xbyak/xbyak.h avx_type.hpp
@ -22,5 +22,18 @@ $(TARGET): $(BIN)
echo "#endif" >> $@
echo "#endif" >> $@
VER=$(shell head -n 1 ../xbyak/xbyak_mnemonic.h|grep -o "[0-9.]*")
../CMakeLists.txt: $(TARGET)
sed -i -e 's/CXX VERSION [0-9.]*/CXX VERSION $(VER)/' $@
../meson.build: $(TARGET)
sed -i -e "s/version: '[0-9.]*',/version: '$(VER)',/" $@
../readme.md: $(TARGET)
sed -l 2 -i -e "s/# Xbyak [0-9.]*/# Xbyak $(VER)/" $@
../readme.txt: $(TARGET)
sed -l 2 -i -e "s/Xbyak [0-9.]*/Xbyak $(VER)/" $@
clean:
$(RM) $(BIN) $(TARGET)

54
externals/dynarmic/externals/xbyak/gen/avx_type.hpp vendored
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@ -12,9 +12,10 @@
//
T_N_VL = 1 << 3, // N * (1, 2, 4) for VL
T_DUP = 1 << 4, // N = (8, 32, 64)
T_66 = 1 << 5,
T_F3 = 1 << 6,
T_F2 = 1 << 7,
T_66 = 1 << 5, // pp = 1
T_F3 = 1 << 6, // pp = 2
T_F2 = T_66 | T_F3, // pp = 3
T_ER_R = 1 << 7, // reg{er}
T_0F = 1 << 8,
T_0F38 = 1 << 9,
T_0F3A = 1 << 10,
@ -35,11 +36,18 @@
T_MUST_EVEX = 1 << 25, // contains T_EVEX
T_B32 = 1 << 26, // m32bcst
T_B64 = 1 << 27, // m64bcst
T_B16 = T_B32 | T_B64, // m16bcst
T_M_K = 1 << 28, // mem{k}
T_VSIB = 1 << 29,
T_MEM_EVEX = 1 << 30, // use evex if mem
T_FP16 = 1 << 31,
T_MAP5 = T_FP16 | T_0F,
T_MAP6 = T_FP16 | T_0F38,
T_XXX
};
// T_66 = 1, T_F3 = 2, T_F2 = 3
uint32_t getPP(int type) { return (type >> 5) & 3; }
const int NONE = 256; // same as Xbyak::CodeGenerator::NONE
@ -62,25 +70,30 @@ std::string type2String(int type)
if (!str.empty()) str += " | ";
str += "T_DUP";
}
if (type & T_66) {
if (!str.empty()) str += " | ";
str += "T_66";
}
if (type & T_F3) {
if (!str.empty()) str += " | ";
str += "T_F3";
}
if (type & T_F2) {
if (!str.empty()) str += " | ";
str += "T_F2";
switch (type & T_F2) {
case T_66: str += "T_66"; break;
case T_F3: str += "T_F3"; break;
case T_F2: str += "T_F2"; break;
default: break;
}
}
if (type & T_0F) {
if (!str.empty()) str += " | ";
str += "T_0F";
if (type & T_FP16) {
str += "T_MAP5";
} else {
str += "T_0F";
}
}
if (type & T_0F38) {
if (!str.empty()) str += " | ";
str += "T_0F38";
if (type & T_FP16) {
str += "T_MAP6";
} else {
str += "T_0F38";
}
}
if (type & T_0F3A) {
if (!str.empty()) str += " | ";
@ -130,6 +143,10 @@ std::string type2String(int type)
if (!str.empty()) str += " | ";
str += "T_ER_Z";
}
if (type & T_ER_R) {
if (!str.empty()) str += " | ";
str += "T_ER_R";
}
if (type & T_SAE_X) {
if (!str.empty()) str += " | ";
str += "T_SAE_X";
@ -148,9 +165,12 @@ std::string type2String(int type)
}
if (type & T_B32) {
if (!str.empty()) str += " | ";
str += "T_B32";
}
if (type & T_B64) {
if (type & T_B64) {
str += "T_B16"; // T_B16 = T_B32 | T_B64
} else {
str += "T_B32";
}
} else if (type & T_B64) {
if (!str.empty()) str += " | ";
str += "T_B64";
}

275
externals/dynarmic/externals/xbyak/gen/gen_avx512.cpp vendored
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@ -107,6 +107,8 @@ void putVcmp()
{ 0xC2, "vcmpps", T_0F | T_MUST_EVEX | T_EW0 | T_SAE_Z | T_YMM | T_B32, true },
{ 0xC2, "vcmpsd", T_0F | T_MUST_EVEX | T_EW1 | T_SAE_Z | T_F2 | T_N8, true },
{ 0xC2, "vcmpss", T_0F | T_MUST_EVEX | T_EW0 | T_SAE_Z | T_F3 | T_N4, true },
{ 0xC2, "vcmpph", T_0F3A | T_MUST_EVEX | T_EW0 | T_SAE_Z | T_YMM | T_B16, true },
{ 0xC2, "vcmpsh", T_F3 | T_0F3A | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, true },
{ 0x74, "vpcmpeqb", T_66 | T_0F | T_MUST_EVEX | T_YMM, false },
{ 0x75, "vpcmpeqw", T_66 | T_0F | T_MUST_EVEX | T_YMM, false },
@ -144,6 +146,25 @@ void putVcmp()
printf("void %s(const Opmask& k, const Xmm& x, const Operand& op%s) { opAVX_K_X_XM(k, x, op, %s, 0x%02X%s); }\n"
, p->name, p->hasIMM ? ", uint8_t imm" : "", type.c_str(), p->code, p->hasIMM ? ", imm" : "");
}
puts("void vcomish(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_MAP5 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, 0x2F); }");
puts("void vucomish(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_MAP5 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, 0x2E); }");
}
void putVcmpAlias()
{
const char pred[32][16] = {
"eq", "lt", "le", "unord", "neq", "nlt", "nle", "ord",
"eq_uq", "nge", "ngt", "false", "neq_oq", "ge", "gt",
"true", "eq_os", "lt_oq", "le_oq", "unord_s", "neq_us", "nlt_uq", "nle_uq", "ord_s",
"eq_us", "nge_uq", "ngt_uq", "false_os", "neq_os", "ge_oq", "gt_oq", "true_us"
};
const char suf[][4] = { "pd", "ps", "sd", "ss" };
for (int i = 0; i < 4; i++) {
const char *s = suf[i];
for (int j = 0; j < 32; j++) {
printf("void vcmp%s%s(const Opmask& k, const Xmm& x, const Operand& op) { vcmp%s(k, x, op, %d); }\n", pred[j], s, s, j);
}
}
}
// XM_X
@ -178,6 +199,14 @@ void putX_XM()
{ 0x89, "vpexpandq", T_66 | T_0F38 | T_MUST_EVEX | T_YMM | T_EW1 | T_N8 },
{ 0x42, "vgetexppd", T_66 | T_0F38 | T_MUST_EVEX | T_YMM | T_EW1 | T_B64 | T_SAE_Z },
{ 0x42, "vgetexpps", T_66 | T_0F38 | T_MUST_EVEX | T_YMM | T_EW0 | T_B32 | T_SAE_Z },
{ 0x42, "vgetexpph", T_66 | T_MAP6 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_SAE_Z },
{ 0x7D, "vcvtph2uw", T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_ER_Z },
{ 0x7D, "vcvtph2w", T_66 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_ER_Z },
{ 0x7C, "vcvttph2uw", T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_SAE_Z },
{ 0x7C, "vcvttph2w", T_66 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_SAE_Z },
{ 0x7D, "vcvtuw2ph", T_F2 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_ER_Z },
{ 0x7D, "vcvtw2ph", T_F3 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_ER_Z },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
const Tbl *p = &tbl[i];
@ -208,6 +237,8 @@ void putM_X()
{ 0x7F, "vmovdqu16", T_F2 | T_0F | T_MUST_EVEX | T_YMM | T_EW1 | T_ER_X | T_ER_Y | T_ER_Z | T_M_K },
{ 0x7F, "vmovdqu32", T_F3 | T_0F | T_MUST_EVEX | T_YMM | T_EW0 | T_ER_X | T_ER_Y | T_ER_Z | T_M_K },
{ 0x7F, "vmovdqu64", T_F3 | T_0F | T_MUST_EVEX | T_YMM | T_EW1 | T_ER_X | T_ER_Y | T_ER_Z | T_M_K },
{ 0x11, "vmovsh", T_F3 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_N2 | T_M_K },
{ 0x7E, "vmovw", T_66 | T_MAP5 | T_MUST_EVEX | T_N2 },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
const Tbl *p = &tbl[i];
@ -299,8 +330,10 @@ void putX_X_XM_IMM()
{ 0x43, "vgetexpsd", T_66 | T_0F38 | T_MUST_EVEX | T_EW1 | T_SAE_X | T_N8, false },
{ 0x43, "vgetexpss", T_66 | T_0F38 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N4, false },
{ 0x43, "vgetexpsh", T_66 | T_MAP6 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, false },
{ 0x27, "vgetmantsd", T_66 | T_0F3A | T_MUST_EVEX | T_EW1 | T_SAE_X | T_N8, true },
{ 0x27, "vgetmantss", T_66 | T_0F3A | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N4, true },
{ 0x27, "vgetmantsh", T_0F3A | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, true },
{ 0x54, "vfixupimmpd", T_66 | T_0F3A | T_MUST_EVEX | T_YMM | T_EW1 | T_B64 | T_SAE_Z, true },
{ 0x54, "vfixupimmps", T_66 | T_0F3A | T_MUST_EVEX | T_YMM | T_EW0 | T_B32 | T_SAE_Z, true },
@ -310,17 +343,26 @@ void putX_X_XM_IMM()
{ 0x4D, "vrcp14sd", T_66 | T_0F38 | T_MUST_EVEX | T_EW1 | T_N8, false },
{ 0x4D, "vrcp14ss", T_66 | T_0F38 | T_MUST_EVEX | T_EW0 | T_N4, false },
{ 0x4D, "vrcpsh", T_66 | T_MAP6 | T_MUST_EVEX | T_EW0 | T_N2, false },
{ 0x4F, "vrsqrt14sd", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_N8, false },
{ 0x4F, "vrsqrt14ss", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_N4, false },
{ 0x0B, "vrndscalesd", T_66 | T_0F3A | T_MUST_EVEX | T_EW1 | T_N8, true },
{ 0x0A, "vrndscaless", T_66 | T_0F3A | T_MUST_EVEX | T_EW0 | T_N4, true },
{ 0x4F, "vrsqrtsh", T_66 | T_MAP6 | T_MUST_EVEX | T_EW0 | T_N2, false },
{ 0x51, "vsqrtsh", T_F3 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_ER_X | T_N2, false },
{ 0x0B, "vrndscalesd", T_66 | T_0F3A | T_MUST_EVEX | T_EW1 | T_N8 | T_SAE_X, true },
{ 0x0A, "vrndscaless", T_66 | T_0F3A | T_MUST_EVEX | T_EW0 | T_N4 | T_SAE_X, true },
{ 0x0A, "vrndscalesh", T_0F3A | T_MUST_EVEX | T_EW0 | T_N2 | T_SAE_X, true },
{ 0x2C, "vscalefpd", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, false },
{ 0x2C, "vscalefps", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_ER_Z, false },
{ 0x2D, "vscalefsd", T_66 | T_0F38 | T_MUST_EVEX | T_EW1 | T_ER_X | T_N8, false },
{ 0x2D, "vscalefss", T_66 | T_0F38 | T_MUST_EVEX | T_EW0 | T_ER_X | T_N4, false },
{ 0x2C, "vscalefph", T_66 | T_MAP6 | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_ER_Z, false },
{ 0x2D, "vscalefsh", T_66 | T_MAP6 | T_MUST_EVEX | T_EW0 | T_ER_X | T_N2, false },
{ 0x42, "vdbpsadbw", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW0, true },
{ 0x83, "vpmultishiftqb", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, false },
@ -343,6 +385,7 @@ void putX_X_XM_IMM()
{ 0x57, "vreducesd", T_66 | T_0F3A | T_MUST_EVEX | T_EW1 | T_SAE_X | T_N8, true },
{ 0x57, "vreducess", T_66 | T_0F3A | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N4, true },
{ 0x57, "vreducesh", T_0F3A | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, true },
{ 0xB4, "vpmadd52luq", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, false },
{ 0xB5, "vpmadd52huq", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, false },
@ -365,6 +408,11 @@ void putX_X_XM_IMM()
{ 0x72, "vcvtne2ps2bf16", T_F2 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_SAE_Z | T_B32, false },
{ 0x52, "vdpbf16ps", T_F3 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_SAE_Z | T_B32, false },
{ 0x5A, "vcvtsd2sh", T_F2 | T_MAP5 | T_MUST_EVEX | T_EW1 | T_ER_X | T_N8, false },
{ 0x5A, "vcvtsh2sd", T_F3 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, false },
{ 0x13, "vcvtsh2ss", T_MAP6 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, false },
{ 0x1D, "vcvtss2sh", T_MAP5 | T_MUST_EVEX | T_EW0 | T_ER_X | T_N4, false },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
const Tbl *p = &tbl[i];
@ -488,20 +536,81 @@ void putBroadcast(bool only64bit)
void putCvt()
{
puts("void vcvtpd2udq(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 0x79); }");
puts("void vcvtps2qq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_ER_Y, 0x7B); }");
puts("void vcvtps2uqq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_ER_Y, 0x79); }");
puts("void vcvtqq2ps(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 0x5B); }");
puts("void vcvttpd2udq(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_SAE_Z, 0x78); }");
puts("void vcvttps2qq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_SAE_Y, 0x7A); }");
puts("void vcvttps2uqq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_SAE_Y, 0x78); }");
puts("void vcvtudq2pd(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_F3 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL, 0x7A); }");
const struct Tbl {
uint8_t code;
const char *name;
int type;
int ptn;
} tbl[] = {
{ 0x79, "vcvtsd2usi", T_F2 | T_0F | T_MUST_EVEX | T_N8 | T_ER_X, 0 },
{ 0x79, "vcvtss2usi", T_F3 | T_0F | T_MUST_EVEX | T_N4 | T_ER_X, 0 },
{ 0x78, "vcvttsd2usi", T_F2 | T_0F | T_MUST_EVEX | T_N8 | T_SAE_X, 0 },
{ 0x78, "vcvttss2usi", T_F3 | T_0F | T_MUST_EVEX | T_N4 | T_SAE_X, 0 },
{ 0x2D, "vcvtsh2si", T_F3 | T_MAP5 | T_MUST_EVEX | T_N2 | T_ER_X, 0 },
{ 0x79, "vcvtsh2usi", T_F3 | T_MAP5 | T_MUST_EVEX | T_N2 | T_ER_X, 0 },
{ 0x2C, "vcvttsh2si", T_F3 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_N2 | T_SAE_X, 0 },
{ 0x78, "vcvttsh2usi", T_F3 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_N2 | T_SAE_X, 0 },
puts("void vcvtsd2usi(const Reg32e& r, const Operand& op) { int type = (T_F2 | T_0F | T_MUST_EVEX | T_N8 | T_ER_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x79); }");
puts("void vcvtss2usi(const Reg32e& r, const Operand& op) { int type = (T_F3 | T_0F | T_MUST_EVEX | T_N4 | T_ER_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x79); }");
puts("void vcvttsd2usi(const Reg32e& r, const Operand& op) { int type = (T_F2 | T_0F | T_MUST_EVEX | T_N8 | T_SAE_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x78); }");
puts("void vcvttss2usi(const Reg32e& r, const Operand& op) { int type = (T_F3 | T_0F | T_MUST_EVEX | T_N4 | T_SAE_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x78); }");
puts("void vcvtuqq2ps(const Xmm& x, const Operand& op) { opCvt2(x, op, T_F2 | T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 0x7A); }");
{ 0x7B, "vcvtps2qq", T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_ER_Y, 1 },
{ 0x79, "vcvtps2uqq", T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_ER_Y, 1 },
{ 0x7A, "vcvttps2qq", T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_SAE_Y, 1 },
{ 0x78, "vcvttps2uqq", T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_SAE_Y, 1 },
{ 0x7A, "vcvtudq2pd", T_F3 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL, 1 },
{ 0x5B, "vcvtph2dq", T_66 | T_MAP5 | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_ER_Y | T_N8 | T_N_VL, 1 },
{ 0x13, "vcvtph2psx", T_66 | T_MAP6 | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_SAE_Y | T_N8 | T_N_VL, 1 },
{ 0x79, "vcvtph2udq", T_MAP5 | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_ER_Y | T_N8 | T_N_VL, 1 },
{ 0x5B, "vcvttph2dq", T_F3 | T_MAP5 | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_SAE_Y | T_N8 | T_N_VL, 1 },
{ 0x78, "vcvttph2udq", T_MAP5 | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_SAE_Y | T_N8 | T_N_VL, 1 },
{ 0x79, "vcvtpd2udq", T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 2 },
{ 0x5B, "vcvtqq2ps", T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 2 },
{ 0x78, "vcvttpd2udq", T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_SAE_Z, 2 },
{ 0x7A, "vcvtuqq2ps", T_F2 | T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 2 },
{ 0x5A, "vcvtph2pd", T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_N4 | T_N_VL | T_SAE_X, 3 },
{ 0x7B, "vcvtph2qq", T_66 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_N4 | T_N_VL | T_ER_X, 3 },
{ 0x79, "vcvtph2uqq", T_66 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_N4 | T_N_VL | T_ER_X, 3 },
{ 0x78, "vcvttph2uqq", T_66 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_N4 | T_N_VL | T_SAE_X, 3 },
{ 0x7A, "vcvttph2qq", T_66 | T_MAP5 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16 | T_N4 | T_N_VL | T_SAE_X, 3 },
{ 0x5B, "vcvtdq2ph", T_MAP5 | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_ER_Z | T_N16 | T_N_VL, 4 },
{ 0x1D, "vcvtps2phx", T_66 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_B32 | T_ER_Z | T_N16 | T_N_VL, 4 },
{ 0x7A, "vcvtudq2ph", T_F2 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_B32 | T_ER_Z | T_N16 | T_N_VL, 4 },
{ 0x5A, "vcvtpd2ph", T_66 | T_MAP5 | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z | T_N16 | T_N_VL, 5 },
{ 0x5B, "vcvtqq2ph", T_MAP5 | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z | T_N16 | T_N_VL, 5 },
{ 0x7A, "vcvtuqq2ph", T_F2 | T_MAP5 | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z | T_N16 | T_N_VL, 5 },
{ 0x2A, "vcvtsi2sh", T_F3 | T_MAP5 | T_MUST_EVEX | T_ER_R | T_M_K, 6 },
{ 0x7B, "vcvtusi2sh", T_F3 | T_MAP5 | T_MUST_EVEX | T_ER_R | T_M_K, 6 },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
const Tbl& p = tbl[i];
std::string type = type2String(p.type);
switch (p.ptn) {
case 0:
printf("void %s(const Reg32e& r, const Operand& op) { int type = (%s) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x%02X); }\n", p.name, type.c_str(), p.code);
break;
case 1:
printf("void %s(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, %s, 0x%02X); }\n", p.name, type.c_str(), p.code);
break;
case 2:
printf("void %s(const Xmm& x, const Operand& op) { opCvt2(x, op, %s, 0x%02X); }\n", p.name, type.c_str(), p.code);
break;
case 3:
printf("void %s(const Xmm& x, const Operand& op) { if (!op.isXMM() && !op.isMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(x, 0, op, %s, 0x%02X); }\n", p.name, type.c_str(), p.code);
break;
case 4:
printf("void %s(const Xmm& x, const Operand& op) { checkCvt4(x, op); opCvt(x, op, %s, 0x%02X); }\n", p.name, type.c_str(), p.code);
break;
case 5:
printf("void %s(const Xmm& x, const Operand& op) { opCvt5(x, op, %s, 0x%02X); }\n", p.name, type.c_str(), p.code);
break;
case 6:
printf("void %s(const Xmm& x1, const Xmm& x2, const Operand& op) { if (!(x1.isXMM() && x2.isXMM() && op.isBit(32|64))) XBYAK_THROW(ERR_BAD_COMBINATION) int type = (%s) | (op.isBit(32) ? (T_EW0 | T_N4) : (T_EW1 | T_N8)); opVex(x1, &x2, op, type, 0x%02X); }\n", p.name, type.c_str(), p.code);
break;
}
}
puts("void vcvtusi2sd(const Xmm& x1, const Xmm& x2, const Operand& op) { opCvt3(x1, x2, op, T_F2 | T_0F | T_MUST_EVEX, T_W1 | T_EW1 | T_ER_X | T_N8, T_W0 | T_EW0 | T_N4, 0x7B); }");
puts("void vcvtusi2ss(const Xmm& x1, const Xmm& x2, const Operand& op) { opCvt3(x1, x2, op, T_F3 | T_0F | T_MUST_EVEX | T_ER_X, T_W1 | T_EW1 | T_N8, T_W0 | T_EW0 | T_N4, 0x7B); }");
}
@ -628,14 +737,21 @@ void putX_XM_IMM()
} tbl[] = {
{ 0x26, "vgetmantpd", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_SAE_Z, true },
{ 0x26, "vgetmantps", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_SAE_Z, true },
{ 0x26, "vgetmantph", T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_SAE_Z, true },
{ 0x4C, "vrcp14pd", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, false },
{ 0x4C, "vrcp14ps", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_B32, false },
{ 0x4C, "vrcpph", T_66 | T_MAP6 | T_MUST_EVEX | T_YMM | T_EW0 | T_B16, false },
{ 0x4E, "vrsqrt14pd", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, false },
{ 0x4E, "vrsqrt14ps", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_B32, false },
{ 0x09, "vrndscalepd", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, true },
{ 0x08, "vrndscaleps", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B32, true },
{ 0x4E, "vrsqrtph", T_66 | T_MAP6 | T_YMM | T_MUST_EVEX | T_EW0 | T_B16, false },
{ 0x51, "vsqrtph", T_MAP5| T_YMM | T_MUST_EVEX | T_EW0 | T_ER_Z | T_B16, false },
{ 0x09, "vrndscalepd", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_SAE_Z, true },
{ 0x08, "vrndscaleps", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_SAE_Z, true },
{ 0x08, "vrndscaleph", T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_SAE_Z, true },
{ 0xC4, "vpconflictd", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_B32, false },
{ 0xC4, "vpconflictq", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, false },
@ -645,6 +761,7 @@ void putX_XM_IMM()
{ 0x56, "vreducepd", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_SAE_Z, true },
{ 0x56, "vreduceps", T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_SAE_Z, true },
{ 0x56, "vreduceph", T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B16 | T_SAE_Z, true },
{ 0x54, "vpopcntb", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_SAE_Z, false },
{ 0x54, "vpopcntw", T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_SAE_Z, false },
@ -704,8 +821,10 @@ void putMisc()
puts("void vfpclasspd(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isBit(128|256|512)) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k.changeBit(op.getBit()), 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_YMM | T_EW1 | T_B64, 0x66, imm); }");
puts("void vfpclassps(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isBit(128|256|512)) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k.changeBit(op.getBit()), 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_YMM | T_EW0 | T_B32, 0x66, imm); }");
puts("void vfpclassph(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isBit(128|256|512)) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k.changeBit(op.getBit()), 0, op, T_0F3A | T_MUST_EVEX | T_YMM | T_EW0 | T_B16, 0x66, imm); }");
puts("void vfpclasssd(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isXMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k, 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_EW1 | T_N8, 0x67, imm); }");
puts("void vfpclassss(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isXMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k, 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_EW0 | T_N4, 0x67, imm); }");
puts("void vfpclasssh(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isXMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k, 0, op, T_0F3A | T_MUST_EVEX | T_EW0 | T_N2, 0x67, imm); }");
puts("void vpshufbitqmb(const Opmask& k, const Xmm& x, const Operand& op) { opVex(k, &x, op, T_66 | T_0F38 | T_EW0 | T_YMM | T_MUST_EVEX, 0x8F); }");
puts("void vcvtneps2bf16(const Xmm& x, const Operand& op) { opCvt2(x, op, T_F3 | T_0F38 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x72); }");
@ -724,6 +843,126 @@ void putV4FMA()
puts("void vp4dpwssds(const Zmm& z1, const Zmm& z2, const Address& addr) { opAVX_X_X_XM(z1, z2, addr, T_0F38 | T_F2 | T_EW0 | T_YMM | T_MUST_EVEX | T_N16, 0x53); }");
}
void putFP16_1()
{
const struct Tbl {
uint8_t code;
const char *name;
} tbl[] = {
{ 0x58, "add" },
{ 0x5C, "sub" },
{ 0x59, "mul" },
{ 0x5E, "div" },
{ 0x5F, "max" },
{ 0x5D, "min" },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
const Tbl *p = &tbl[i];
printf("void v%sph(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_EW0 | T_YMM | T_MUST_EVEX | T_ER_Z | T_B16, 0x%02X); }\n", p->name, p->code);
printf("void v%ssh(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_F3 | T_EW0 | T_MUST_EVEX | T_ER_X | T_N2, 0x%02X); }\n", p->name, p->code);
}
}
void putFP16_FMA()
{
const struct Tbl {
uint8_t code;
const char *name;
bool isPH;
} tbl[] = {
{ 0x06, "vfmaddsub", true },
{ 0x07, "vfmsubadd", true },
{ 0x08, "vfmadd", true },
{ 0x0C, "vfnmadd", true },
{ 0x0A, "vfmsub", true },
{ 0x0E, "vfnmsub", true },
{ 0x09, "vfmadd", false },
{ 0x0D, "vfnmadd", false },
{ 0x0B, "vfmsub", false },
{ 0x0F, "vfnmsub", false },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
for (int k = 0; k < 3; k++) {
const struct Ord {
const char *str;
uint8_t code;
} ord[] = {
{ "132", 0x90 },
{ "213", 0xA0 },
{ "231", 0xB0 },
};
int t = T_66 | T_MAP6 | T_EW0 | T_MUST_EVEX;
const char *suf = 0;
if (tbl[i].isPH) {
t |= T_ER_Z | T_YMM | T_B16;
suf = "ph";
} else {
t |= T_ER_X | T_N2;
suf = "sh";
}
std::string type = type2String(t);
printf("void %s%s%s(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, %s, 0x%02X); }\n"
, tbl[i].name, ord[k].str, suf, type.c_str(), tbl[i].code | ord[k].code);
}
}
}
void putFP16_FMA2()
{
const struct Tbl {
uint8_t code;
const char *name;
bool isPH;
} tbl[] = {
{ 0x56, "maddc", true },
{ 0xD6, "mulc", true },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
for (int j = 0; j < 2; j++) {
int t = T_MAP6 | T_EW0 | T_MUST_EVEX;
if (j == 0) {
t |= T_F2;
} else {
t |= T_F3;
}
const char *suf = 0;
if (tbl[i].isPH) {
t |= T_ER_Z | T_YMM | T_B32;
suf = "ph";
} else {
t |= T_ER_X | T_N2;
suf = "sh";
}
std::string type = type2String(t);
printf("void vf%s%s%s(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, %s, 0x%02X); }\n"
, j == 0 ? "c" : "", tbl[i].name, suf, type.c_str(), tbl[i].code);
}
}
}
void putFP16_2()
{
{
int t = T_F3 | T_MAP5 | T_MUST_EVEX | T_EW0 | T_N2;
std::string type = type2String(t);
printf("void vmovsh(const Xmm& x, const Address& addr) { opAVX_X_X_XM(x, xm0, addr, %s, 0x10); }\n", type.c_str());
printf("void vmovsh(const Xmm& x1, const Xmm& x2, const Xmm& x3) { opAVX_X_X_XM(x1, x2, x3, %s, 0x10); }\n", type.c_str());
}
{
int t = T_66 | T_MAP5 | T_MUST_EVEX | T_N2;
std::string type = type2String(t);
printf("void vmovw(const Xmm& x, const Operand& op) { if (!op.isREG(32|64) && !op.isMEM()) XBYAK_THROW(ERR_BAD_COMBINATION) opAVX_X_X_XM(x, xm0, op, %s, 0x6E); }\n", type.c_str());
printf("void vmovw(const Reg32e& r, const Xmm& x) { opAVX_X_X_XM(x, xm0, r, %s, 0x7E); }\n", type.c_str());
}
}
void putFP16()
{
putFP16_1();
putFP16_FMA();
putFP16_FMA2();
putFP16_2();
}
int main(int argc, char *[])
{
bool only64bit = argc == 2;
@ -733,6 +972,7 @@ int main(int argc, char *[])
return 0;
}
putVcmp();
putVcmpAlias();
putX_XM();
putM_X();
putXM_X();
@ -747,4 +987,5 @@ int main(int argc, char *[])
putMisc();
putScatter();
putV4FMA();
putFP16();
}

27
externals/dynarmic/externals/xbyak/gen/gen_code.cpp vendored
View File

@ -26,6 +26,7 @@ struct GenericTbl {
uint8_t code1;
uint8_t code2;
uint8_t code3;
uint8_t code4;
};
void putGeneric(const GenericTbl *p, size_t n)
@ -34,6 +35,7 @@ void putGeneric(const GenericTbl *p, size_t n)
printf("void %s() { db(0x%02X); ", p->name, p->code1);
if (p->code2) printf("db(0x%02X); ", p->code2);
if (p->code3) printf("db(0x%02X); ", p->code3);
if (p->code4) printf("db(0x%02X); ", p->code4);
printf("}\n");
p++;
}
@ -250,7 +252,7 @@ void put()
char buf[16];
unsigned int v = VERSION;
if (v & 0xF) {
snprintf(buf, sizeof(buf), "%d.%02X%x", v >> 12, (v >> 4) & 0xFF, v & 0xF);
snprintf(buf, sizeof(buf), "%d.%02X.%x", v >> 12, (v >> 4) & 0xFF, v & 0xF);
} else {
snprintf(buf, sizeof(buf), "%d.%02X", v >> 12, (v >> 4) & 0xFF);
}
@ -661,6 +663,9 @@ void put()
{ "cmpsb", 0xA6 },
{ "cmpsw", 0x66, 0xA7 },
{ "cmpsd", 0xA7 },
{ "endbr32", 0xF3, 0x0F, 0x1E, 0xFB },
{ "endbr64", 0xF3, 0x0F, 0x1E, 0xFA },
{ "hlt", 0xF4 },
{ "int3", 0xCC },
{ "scasb", 0xAE },
{ "scasw", 0x66, 0xAF },
@ -1040,11 +1045,14 @@ void put()
puts("void lea(const Reg& reg, const Address& addr) { if (!reg.isBit(16 | i32e)) XBYAK_THROW(ERR_BAD_SIZE_OF_REGISTER) opModM(addr, reg, 0x8D); }");
puts("void bswap(const Reg32e& reg) { opModR(Reg32(1), reg, 0x0F); }");
puts("void ret(int imm = 0) { if (imm) { db(0xC2); dw(imm); } else { db(0xC3); } }");
puts("void retf(int imm = 0) { if (imm) { db(0xCA); dw(imm); } else { db(0xCB); } }");
puts("void xadd(const Operand& op, const Reg& reg) { opModRM(reg, op, (op.isREG() && reg.isREG() && op.getBit() == reg.getBit()), op.isMEM(), 0x0F, 0xC0 | (reg.isBit(8) ? 0 : 1)); }");
puts("void cmpxchg(const Operand& op, const Reg& reg) { opModRM(reg, op, (op.isREG() && reg.isREG() && op.getBit() == reg.getBit()), op.isMEM(), 0x0F, 0xB0 | (reg.isBit(8) ? 0 : 1)); }");
puts("void movbe(const Reg& reg, const Address& addr) { opModM(addr, reg, 0x0F, 0x38, 0xF0); }");
puts("void movbe(const Address& addr, const Reg& reg) { opModM(addr, reg, 0x0F, 0x38, 0xF1); }");
puts("void movdiri(const Address& addr, const Reg32e& reg) { opModM(addr, reg, 0x0F, 0x38, 0xF9); }");
puts("void movdir64b(const Reg& reg, const Address& addr) { db(0x66); opModM(addr, reg.cvt32(), 0x0F, 0x38, 0xF8); }");
puts("void adcx(const Reg32e& reg, const Operand& op) { opGen(reg, op, 0xF6, 0x66, isREG32_REG32orMEM, NONE, 0x38); }");
puts("void adox(const Reg32e& reg, const Operand& op) { opGen(reg, op, 0xF6, 0xF3, isREG32_REG32orMEM, NONE, 0x38); }");
puts("void cmpxchg8b(const Address& addr) { opModM(addr, Reg32(1), 0x0F, 0xC7); }");
@ -1079,6 +1087,11 @@ void put()
puts("void rdrand(const Reg& r) { if (r.isBit(8)) XBYAK_THROW(ERR_BAD_SIZE_OF_REGISTER) opModR(Reg(6, Operand::REG, r.getBit()), r, 0x0F, 0xC7); }");
puts("void rdseed(const Reg& r) { if (r.isBit(8)) XBYAK_THROW(ERR_BAD_SIZE_OF_REGISTER) opModR(Reg(7, Operand::REG, r.getBit()), r, 0x0F, 0xC7); }");
puts("void crc32(const Reg32e& reg, const Operand& op) { if (reg.isBit(32) && op.isBit(16)) db(0x66); db(0xF2); opModRM(reg, op, op.isREG(), op.isMEM(), 0x0F, 0x38, 0xF0 | (op.isBit(8) ? 0 : 1)); }");
puts("void tpause(const Reg32& r) { int idx = r.getIdx(); if (idx > 7) XBYAK_THROW(ERR_BAD_PARAMETER) db(0x66); db(0x0F); db(0xAE); setModRM(3, 6, idx); }");
puts("void umonitor(const Reg& r) { int idx = r.getIdx(); if (idx > 7) XBYAK_THROW(ERR_BAD_PARAMETER) int bit = r.getBit(); if (BIT != bit) { if ((BIT == 32 && bit == 16) || (BIT == 64 && bit == 32)) { db(0x67); } else { XBYAK_THROW(ERR_BAD_SIZE_OF_REGISTER) } } db(0xF3); db(0x0F); db(0xAE); setModRM(3, 6, idx); }");
puts("void umwait(const Reg32& r) { int idx = r.getIdx(); if (idx > 7) XBYAK_THROW(ERR_BAD_PARAMETER) db(0xF2); db(0x0F); db(0xAE); setModRM(3, 6, idx); }");
puts("void clwb(const Address& addr) { db(0x66); opMIB(addr, esi, 0x0F, 0xAE); }");
puts("void cldemote(const Address& addr) { opMIB(addr, eax, 0x0F, 0x1C); }");
}
{
const struct Tbl {
@ -1207,8 +1220,8 @@ void put()
printf("void v%spd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x%02X); }\n", p->name, p->code);
printf("void v%sps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x%02X); }\n", p->name, p->code);
if (p->only_pd_ps) continue;
printf("void v%ssd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_Z | T_N8, 0x%02X); }\n", p->name, p->code);
printf("void v%sss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_Z | T_N4, 0x%02X); }\n", p->name, p->code);
printf("void v%ssd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_X | T_N8, 0x%02X); }\n", p->name, p->code);
printf("void v%sss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_X | T_N4, 0x%02X); }\n", p->name, p->code);
}
}
putX_X_XM(false);
@ -1299,7 +1312,8 @@ void put()
if (p->mode & 1) {
const char *immS1 = p->hasIMM ? ", uint8_t imm" : "";
const char *immS2 = p->hasIMM ? ", imm" : ", NONE";
const char *pref = p->type & T_66 ? "0x66" : p->type & T_F2 ? "0xF2" : p->type & T_F3 ? "0xF3" : "NONE";
const char *prefTbl[5] = { "NONE", "0x66", "0xF3", "0xF2" };
const char *pref = prefTbl[getPP(p->type)];
const char *suf = p->type & T_0F38 ? "0x38" : p->type & T_0F3A ? "0x3A" : "NONE";
printf("void %s(const Xmm& xmm, const Operand& op%s) { opGen(xmm, op, 0x%02X, %s, isXMM_XMMorMEM%s, %s); }\n", p->name, immS1, p->code, pref, immS2, suf);
}
@ -1350,11 +1364,12 @@ void put()
{ 0xDE, "aesdec", T_0F38 | T_66 | T_YMM | T_EVEX, 3 },
{ 0xDF, "aesdeclast", T_0F38 | T_66 | T_YMM | T_EVEX, 3 },
};
const uint8_t ppTbl[] = { 0, 0x66, 0xf3, 0xf2 };
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
const Tbl *p = &tbl[i];
std::string type = type2String(p->type);
if (p->mode & 1) {
uint8_t pref = p->type & T_66 ? 0x66 : p->type & T_F2 ? 0xF2 : p->type & T_F3 ? 0xF3 : 0;
uint8_t pref = ppTbl[getPP(p->type)];
printf("void %s(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x%02X, 0x%02X, isXMM_XMMorMEM%s); }\n", p->name, p->code, pref, p->type & T_0F38 ? ", NONE, 0x38" : "");
}
if (p->mode & 2) {
@ -1648,7 +1663,7 @@ void put()
puts("void vcvttpd2dq(const Xmm& x, const Operand& op) { opCvt2(x, op, T_66 | T_0F | T_YMM | T_EVEX |T_EW1 | T_B64 | T_ER_Z, 0xE6); }");
puts("void vcvtph2ps(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_0F38 | T_66 | T_W0 | T_EVEX | T_EW0 | T_N8 | T_N_VL | T_SAE_Y, 0x13); }");
puts("void vcvtps2ph(const Operand& op, const Xmm& x, uint8_t imm) { checkCvt1(x, op); opVex(x, 0, op, T_0F3A | T_66 | T_W0 | T_EVEX | T_EW0 | T_N8 | T_N_VL | T_SAE_Y, 0x1D, imm); }");
puts("void vcvtps2ph(const Operand& op, const Xmm& x, uint8_t imm) { checkCvt1(x, op); opVex(x, 0, op, T_0F3A | T_66 | T_W0 | T_EVEX | T_EW0 | T_N8 | T_N_VL | T_SAE_Y | T_M_K, 0x1D, imm); }");
}
// haswell gpr(reg, reg, r/m)

45
externals/dynarmic/externals/xbyak/meson.build vendored Executable file
View File

@ -0,0 +1,45 @@
# SPDX-FileCopyrightText: 2021 Andrea Pappacoda
#
# SPDX-License-Identifier: BSD-3-Clause
project(
'xbyak',
'cpp',
version: '6.60.1',
license: 'BSD-3-Clause',
default_options: 'b_ndebug=if-release'
)
install_subdir('xbyak', install_dir: get_option('includedir'))
xbyak_dep = declare_dependency(include_directories: include_directories('.'))
if meson.version().version_compare('>=0.54.0')
meson.override_dependency(meson.project_name(), xbyak_dep)
endif
import('pkgconfig').generate(
name: meson.project_name(),
description: 'JIT assembler for x86(IA32), x64(AMD64, x86-64)',
version: meson.project_version(),
url: 'https://github.com/herumi/xbyak'
)
if meson.version().version_compare('>=0.50.0')
cmake = import('cmake')
cmake.write_basic_package_version_file(
name: meson.project_name(),
version: meson.project_version()
)
cmake_conf = configuration_data()
cmake_conf.set('TARGET_NAME', meson.project_name() + '::' + meson.project_name())
cmake_conf.set('ABSOLUTE_INCLUDE_DIR', get_option('prefix')/get_option('includedir'))
cmake.configure_package_config_file(
name: meson.project_name(),
input: 'cmake'/'meson-config.cmake.in',
configuration: cmake_conf
)
endif

619
externals/dynarmic/externals/xbyak/readme.md vendored
View File

@ -1,6 +1,13 @@
[![Build Status](https://github.com/herumi/xbyak/actions/workflows/main.yml/badge.svg)](https://github.com/herumi/xbyak/actions/workflows/main.yml)
# Xbyak 5.991 ; JIT assembler for x86(IA32), x64(AMD64, x86-64) by C++
# Xbyak 6.60.1 [![Badge Build]][Build Status]
*A C++ JIT assembler for x86 (IA32), x64 (AMD64, x86-64)*
## Menu
- [Install]
- [Usage]
- [Changelog]
## Abstract
@ -10,15 +17,23 @@ The pronunciation of Xbyak is `kəi-bja-k`.
It is named from a Japanese word [開闢](https://translate.google.com/?hl=ja&sl=ja&tl=en&text=%E9%96%8B%E9%97%A2&op=translate), which means the beginning of the world.
## Feature
* header file only
* Intel/MASM like syntax
* fully support AVX-512
- header file only
- Intel/MASM like syntax
- fully support AVX-512
**Note**:
Use `and_()`, `or_()`, ... instead of `and()`, `or()`.
If you want to use them, then specify `-fno-operator-names` option to gcc/clang.
### News
- add movdiri, movdir64b, clwb, cldemote
- WAITPKG instructions (tpause, umonitor, umwait) are supported.
- MmapAllocator supports memfd with user-defined strings. see sample/memfd.cpp
- strictly check address offset disp32 in a signed 32-bit integer. e.g., `ptr[(void*)0xffffffff]` causes an error.
- define `XBYAK_OLD_DISP_CHECK` if you need an old check, but the option will be remoevd.
- add `jmp(mem, T_FAR)`, `call(mem, T_FAR)` `retf()` for far absolute indirect jump.
- vnni instructions such as vpdpbusd supports vex encoding.
- (break backward compatibility) `push(byte, imm)` (resp. `push(word, imm)`) forces to cast `imm` to 8(resp. 16) bit.
- (Windows) `#include <winsock2.h>` has been removed from xbyak.h, so add it explicitly if you need it.
@ -27,590 +42,34 @@ If you want to use them, then specify `-fno-operator-names` option to gcc/clang.
### Supported OS
* Windows Xp, Vista, Windows 7, Windows 10(32bit, 64bit)
* Linux(32bit, 64bit)
* Intel macOS
- Windows (Xp, Vista, 7, 10, 11) (32 / 64 bit)
- Linux (32 / 64 bit)
- macOS (Intel CPU)
### Supported Compilers
Almost C++03 or later compilers for x86/x64 such as Visual Studio, g++, clang++, Intel C++ compiler and g++ on mingw/cygwin.
## Install
The following files are necessary. Please add the path to your compile directory.
* xbyak.h
* xbyak_mnemonic.h
* xbyak_util.h
Linux:
```
make install
```
These files are copied into `/usr/local/include/xbyak`.
## How to use it
Inherit `Xbyak::CodeGenerator` class and make the class method.
```
#include <xbyak/xbyak.h>
struct Code : Xbyak::CodeGenerator {
Code(int x)
{
mov(eax, x);
ret();
}
};
```
Or you can pass the instance of CodeGenerator without inheriting.
```
void genCode(Xbyak::CodeGenerator& code, int x) {
using namespace Xbyak::util;
code.mov(eax, x);
code.ret();
}
```
Make an instance of the class and get the function
pointer by calling `getCode()` and call it.
```
Code c(5);
int (*f)() = c.getCode<int (*)()>();
printf("ret=%d\n", f()); // ret = 5
```
## Syntax
Similar to MASM/NASM syntax with parentheses.
```
NASM Xbyak
mov eax, ebx --> mov(eax, ebx);
inc ecx inc(ecx);
ret --> ret();
```
## Addressing
Use `qword`, `dword`, `word` and `byte` if it is necessary to specify the size of memory,
otherwise use `ptr`.
```
(ptr|qword|dword|word|byte) [base + index * (1|2|4|8) + displacement]
[rip + 32bit disp] ; x64 only
NASM Xbyak
mov eax, [ebx+ecx] --> mov(eax, ptr [ebx+ecx]);
mov al, [ebx+ecx] --> mov(al, ptr [ebx + ecx]);
test byte [esp], 4 --> test(byte [esp], 4);
inc qword [rax] --> inc(qword [rax]);
```
**Note**: `qword`, ... are member variables, then don't use `dword` as unsigned int type.
### How to use Selector (Segment Register)
```
mov eax, [fs:eax] --> putSeg(fs);
mov(eax, ptr [eax]);
mov ax, cs --> mov(ax, cs);
```
**Note**: Segment class is not derived from `Operand`.
## AVX
```
vaddps(xmm1, xmm2, xmm3); // xmm1 <- xmm2 + xmm3
vaddps(xmm2, xmm3, ptr [rax]); // use ptr to access memory
vgatherdpd(xmm1, ptr [ebp + 256 + xmm2*4], xmm3);
```
**Note**:
If `XBYAK_ENABLE_OMITTED_OPERAND` is defined, then you can use two operand version for backward compatibility.
But the newer version will not support it.
```
vaddps(xmm2, xmm3); // xmm2 <- xmm2 + xmm3
```
## AVX-512
```
vaddpd zmm2, zmm5, zmm30 --> vaddpd(zmm2, zmm5, zmm30);
vaddpd xmm30, xmm20, [rax] --> vaddpd(xmm30, xmm20, ptr [rax]);
vaddps xmm30, xmm20, [rax] --> vaddps(xmm30, xmm20, ptr [rax]);
vaddpd zmm2{k5}, zmm4, zmm2 --> vaddpd(zmm2 | k5, zmm4, zmm2);
vaddpd zmm2{k5}{z}, zmm4, zmm2 --> vaddpd(zmm2 | k5 | T_z, zmm4, zmm2);
vaddpd zmm2{k5}{z}, zmm4, zmm2,{rd-sae} --> vaddpd(zmm2 | k5 | T_z, zmm4, zmm2 | T_rd_sae);
vaddpd(zmm2 | k5 | T_z | T_rd_sae, zmm4, zmm2); // the position of `|` is arbitrary.
vcmppd k4{k3}, zmm1, zmm2, {sae}, 5 --> vcmppd(k4 | k3, zmm1, zmm2 | T_sae, 5);
vaddpd xmm1, xmm2, [rax+256] --> vaddpd(xmm1, xmm2, ptr [rax+256]);
vaddpd xmm1, xmm2, [rax+256]{1to2} --> vaddpd(xmm1, xmm2, ptr_b [rax+256]);
vaddpd ymm1, ymm2, [rax+256]{1to4} --> vaddpd(ymm1, ymm2, ptr_b [rax+256]);
vaddpd zmm1, zmm2, [rax+256]{1to8} --> vaddpd(zmm1, zmm2, ptr_b [rax+256]);
vaddps zmm1, zmm2, [rax+rcx*8+8]{1to16} --> vaddps(zmm1, zmm2, ptr_b [rax+rcx*8+8]);
vmovsd [rax]{k1}, xmm4 --> vmovsd(ptr [rax] | k1, xmm4);
vcvtpd2dq xmm16, oword [eax+33] --> vcvtpd2dq(xmm16, xword [eax+33]); // use xword for m128 instead of oword
vcvtpd2dq(xmm16, ptr [eax+33]); // default xword
vcvtpd2dq xmm21, [eax+32]{1to2} --> vcvtpd2dq(xmm21, ptr_b [eax+32]);
vcvtpd2dq xmm0, yword [eax+33] --> vcvtpd2dq(xmm0, yword [eax+33]); // use yword for m256
vcvtpd2dq xmm19, [eax+32]{1to4} --> vcvtpd2dq(xmm19, yword_b [eax+32]); // use yword_b to broadcast
vfpclassps k5{k3}, zword [rax+64], 5 --> vfpclassps(k5|k3, zword [rax+64], 5); // specify m512
vfpclasspd k5{k3}, [rax+64]{1to2}, 5 --> vfpclasspd(k5|k3, xword_b [rax+64], 5); // broadcast 64-bit to 128-bit
vfpclassps k5{k3}, [rax+64]{1to4}, 5 --> vfpclassps(k5|k3, yword_b [rax+64], 5); // broadcast 64-bit to 256-bit
vpdpbusd(xm0, xm1, xm2); // default encoding is EVEX
vpdpbusd(xm0, xm1, xm2, EvexEncoding); // same as the above
vpdpbusd(xm0, xm1, xm2, VexEncoding); // VEX encoding
```
### Remark
* `k1`, ..., `k7` are opmask registers.
- `k0` is dealt as no mask.
- e.g. `vmovaps(zmm0|k0, ptr[rax]);` and `vmovaps(zmm0|T_z, ptr[rax]);` are same to `vmovaps(zmm0, ptr[rax]);`.
* use `| T_z`, `| T_sae`, `| T_rn_sae`, `| T_rd_sae`, `| T_ru_sae`, `| T_rz_sae` instead of `,{z}`, `,{sae}`, `,{rn-sae}`, `,{rd-sae}`, `,{ru-sae}`, `,{rz-sae}` respectively.
* `k4 | k3` is different from `k3 | k4`.
* use `ptr_b` for broadcast `{1toX}`. X is automatically determined.
* specify `xword`/`yword`/`zword(_b)` for m128/m256/m512 if necessary.
## Label
Two kinds of Label are supported. (String literal and Label class).
### String literal
```
L("L1");
jmp("L1");
jmp("L2");
...
a few mnemonics (8-bit displacement jmp)
...
L("L2");
jmp("L3", T_NEAR);
...
a lot of mnemonics (32-bit displacement jmp)
...
L("L3");
```
* Call `hasUndefinedLabel()` to verify your code has no undefined label.
* you can use a label for immediate value of mov like as `mov(eax, "L2")`.
### Support `@@`, `@f`, `@b` like MASM
```
L("@@"); // <A>
jmp("@b"); // jmp to <A>
jmp("@f"); // jmp to <B>
L("@@"); // <B>
jmp("@b"); // jmp to <B>
mov(eax, "@b");
jmp(eax); // jmp to <B>
```
### Local label
Label symbols beginning with a period between `inLocalLabel()` and `outLocalLabel()`
are treated as a local label.
`inLocalLabel()` and `outLocalLabel()` can be nested.
```
void func1()
{
inLocalLabel();
L(".lp"); // <A> ; local label
...
jmp(".lp"); // jmp to <A>
L("aaa"); // global label <C>
outLocalLabel();
inLocalLabel();
L(".lp"); // <B> ; local label
func1();
jmp(".lp"); // jmp to <B>
inLocalLabel();
jmp("aaa"); // jmp to <C>
}
```
### short and long jump
Xbyak deals with jump mnemonics of an undefined label as short jump if no type is specified.
So if the size between jmp and label is larger than 127 byte, then xbyak will cause an error.
```
jmp("short-jmp"); // short jmp
// small code
L("short-jmp");
jmp("long-jmp");
// long code
L("long-jmp"); // throw exception
```
Then specify T_NEAR for jmp.
```
jmp("long-jmp", T_NEAR); // long jmp
// long code
L("long-jmp");
```
Or call `setDefaultJmpNEAR(true);` once, then the default type is set to T_NEAR.
```
jmp("long-jmp"); // long jmp
// long code
L("long-jmp");
```
### Label class
`L()` and `jxx()` support Label class.
```
Xbyak::Label label1, label2;
L(label1);
...
jmp(label1);
...
jmp(label2);
...
L(label2);
```
Use `putL` for jmp table
```
Label labelTbl, L0, L1, L2;
mov(rax, labelTbl);
// rdx is an index of jump table
jmp(ptr [rax + rdx * sizeof(void*)]);
L(labelTbl);
putL(L0);
putL(L1);
putL(L2);
L(L0);
....
L(L1);
....
```
`assignL(dstLabel, srcLabel)` binds dstLabel with srcLabel.
```
Label label2;
Label label1 = L(); // make label1 ; same to Label label1; L(label1);
...
jmp(label2); // label2 is not determined here
...
assignL(label2, label1); // label2 <- label1
```
The `jmp` in the above code jumps to label1 assigned by `assignL`.
**Note**:
* srcLabel must be used in `L()`.
* dstLabel must not be used in `L()`.
`Label::getAddress()` returns the address specified by the label instance and 0 if not specified.
```
// not AutoGrow mode
Label label;
assert(label.getAddress() == 0);
L(label);
assert(label.getAddress() == getCurr());
```
### Rip ; relative addressing
```
Label label;
mov(eax, ptr [rip + label]); // eax = 4
...
L(label);
dd(4);
```
```
int x;
...
mov(eax, ptr[rip + &x]); // throw exception if the difference between &x and current position is larger than 2GiB
```
## Code size
The default max code size is 4096 bytes.
Specify the size in constructor of `CodeGenerator()` if necessary.
```
class Quantize : public Xbyak::CodeGenerator {
public:
Quantize()
: CodeGenerator(8192)
{
}
...
};
```
## User allocated memory
You can make jit code on prepared memory.
Call `setProtectModeRE` yourself to change memory mode if using the prepared memory.
```
uint8_t alignas(4096) buf[8192]; // C++11 or later
struct Code : Xbyak::CodeGenerator {
Code() : Xbyak::CodeGenerator(sizeof(buf), buf)
{
mov(rax, 123);
ret();
}
};
int main()
{
Code c;
c.setProtectModeRE(); // set memory to Read/Exec
printf("%d\n", c.getCode<int(*)()>()());
}
```
**Note**: See [sample/test0.cpp](sample/test0.cpp).
### AutoGrow
The memory region for jit is automatically extended if necessary when `AutoGrow` is specified in a constructor of `CodeGenerator`.
Call `ready()` or `readyRE()` before calling `getCode()` to fix jump address.
```
struct Code : Xbyak::CodeGenerator {
Code()
: Xbyak::CodeGenerator(<default memory size>, Xbyak::AutoGrow)
{
...
}
};
Code c;
// generate code for jit
c.ready(); // mode = Read/Write/Exec
```
**Note**:
* Don't use the address returned by `getCurr()` before calling `ready()` because it may be invalid address.
### Read/Exec mode
Xbyak set Read/Write/Exec mode to memory to run jit code.
If you want to use Read/Exec mode for security, then specify `DontSetProtectRWE` for `CodeGenerator` and
call `setProtectModeRE()` after generating jit code.
```
struct Code : Xbyak::CodeGenerator {
Code()
: Xbyak::CodeGenerator(4096, Xbyak::DontSetProtectRWE)
{
mov(eax, 123);
ret();
}
};
Code c;
c.setProtectModeRE();
...
```
Call `readyRE()` instead of `ready()` when using `AutoGrow` mode.
See [protect-re.cpp](sample/protect-re.cpp).
## Exception-less mode
If `XBYAK_NO_EXCEPTION` is defined, then gcc/clang can compile xbyak with `-fno-exceptions`.
In stead of throwing an exception, `Xbyak::GetError()` returns non-zero value (e.g. `ERR_BAD_ADDRESSING`) if there is something wrong.
The status will not be changed automatically, then you should reset it by `Xbyak::ClearError()`.
`CodeGenerator::reset()` calls `ClearError()`.
## Macro
* **XBYAK32** is defined on 32bit.
* **XBYAK64** is defined on 64bit.
* **XBYAK64_WIN** is defined on 64bit Windows(VC).
* **XBYAK64_GCC** is defined on 64bit gcc, cygwin.
* define **XBYAK_USE_OP_NAMES** on gcc with `-fno-operator-names` if you want to use `and()`, ....
* define **XBYAK_ENABLE_OMITTED_OPERAND** if you use omitted destination such as `vaddps(xmm2, xmm3);`(deprecated in the future).
* define **XBYAK_UNDEF_JNL** if Bessel function jnl is defined as macro.
* define **XBYAK_NO_EXCEPTION** for a compiler option `-fno-exceptions`.
## Sample
* [test0.cpp](sample/test0.cpp) ; tiny sample (x86, x64)
* [quantize.cpp](sample/quantize.cpp) ; JIT optimized quantization by fast division (x86 only)
* [calc.cpp](sample/calc.cpp) ; assemble and estimate a given polynomial (x86, x64)
* [bf.cpp](sample/bf.cpp) ; JIT brainfuck (x86, x64)
## License
modified new BSD License
http://opensource.org/licenses/BSD-3-Clause
## History
* 2020/Nov/16 ver 5.991 disable constexpr for gcc-5 with -std=c++-14
* 2020/Oct/19 ver 5.99 support VNNI instructions(Thanks to akharito)
* 2020/Oct/17 ver 5.98 support the form of [scale * reg]
* 2020/Sep/08 ver 5.97 replace uint32 with uint32_t etc.
* 2020/Aug/28 ver 5.95 some constructors of register classes support constexpr if C++14 or later
* 2020/Aug/04 ver 5.941 `CodeGenerator::reset()` calls `ClearError()`.
* 2020/Jul/28 ver 5.94 remove #include <winsock2.h> (only windows)
* 2020/Jul/21 ver 5.93 support exception-less mode
* 2020/Jun/30 ver 5.92 support Intel AMX instruction set (Thanks to nshustrov)
* 2020/Jun/22 ver 5.913 fix mov(r64, imm64) on 32-bit env with XBYAK64
* 2020/Jun/19 ver 5.912 define MAP_JIT on macOS regardless of Xcode version (Thanks to rsdubtso)
* 2020/May/10 ver 5.911 XBYAK_USE_MMAP_ALLOCATOR is defined unless XBYAK_DONT_USE_MMAP_ALLOCATOR is defined.
* 2020/Apr/20 ver 5.91 accept mask register k0 (it means no mask)
* 2020/Apr/09 ver 5.90 kmov{b,d,w,q} throws exception for an unsupported register
* 2020/Feb/26 ver 5.891 fix typo of type
* 2020/Jan/03 ver 5.89 fix error of vfpclasspd
* 2019/Dec/20 ver 5.88 fix compile error on Windows
* 2019/Dec/19 ver 5.87 add setDefaultJmpNEAR(), which deals with `jmp` of an undefined label as T_NEAR if no type is specified.
* 2019/Dec/13 ver 5.86 [changed] revert to the behavior before v5.84 if -fno-operator-names is defined (and() is available)
* 2019/Dec/07 ver 5.85 append MAP_JIT flag to mmap for macOS mojave or later
* 2019/Nov/29 ver 5.84 [changed] XBYAK_NO_OP_NAMES is defined unless XBYAK_USE_OP_NAMES is defined
* 2019/Oct/12 ver 5.83 exit(1) was removed
* 2019/Sep/23 ver 5.82 support monitorx, mwaitx, clzero (thanks to @MagurosanTeam)
* 2019/Sep/14 ver 5.81 support some generic mnemonics.
* 2019/Aug/01 ver 5.802 fix detection of AVX512_BF16 (thanks to vpirogov)
* 2019/May/27 support vp2intersectd, vp2intersectq (not tested)
* 2019/May/26 ver 5.80 support vcvtne2ps2bf16, vcvtneps2bf16, vdpbf16ps
* 2019/Apr/27 ver 5.79 vcmppd/vcmpps supports ptr_b(thanks to jkopinsky)
* 2019/Apr/15 ver 5.78 rewrite Reg::changeBit() (thanks to MerryMage)
* 2019/Mar/06 ver 5.77 fix number of cores that share LLC cache by densamoilov
* 2019/Jan/17 ver 5.76 add Cpu::getNumCores() by shelleygoel
* 2018/Oct/31 ver 5.751 recover Xbyak::CastTo for compatibility
* 2018/Oct/29 ver 5.75 unlink LabelManager from Label when msg is destroyed
* 2018/Oct/21 ver 5.74 support RegRip +/- int. Xbyak::CastTo is removed
* 2018/Oct/15 util::AddressFrame uses push/pop instead of mov
* 2018/Sep/19 ver 5.73 fix evex encoding of vpslld, vpslldq, vpsllw, etc for (reg, mem, imm8)
* 2018/Sep/19 ver 5.72 fix the encoding of vinsertps for disp8N(Thanks to petercaday)
* 2018/Sep/04 ver 5.71 L() returns a new label instance
* 2018/Aug/27 ver 5.70 support setProtectMode() and DontUseProtect for read/exec setting
* 2018/Aug/24 ver 5.68 fix wrong VSIB encoding with vector index >= 16(thanks to petercaday)
* 2018/Aug/14 ver 5.67 remove mutable in Address ; fix setCacheHierarchy for cloud vm
* 2018/Jul/26 ver 5.661 support mingw64
* 2018/Jul/24 ver 5.66 add CodeArray::PROTECT_RE to mode of protect()
* 2018/Jun/26 ver 5.65 fix push(qword [mem])
* 2018/Mar/07 ver 5.64 fix zero division in Cpu() on some cpu
* 2018/Feb/14 ver 5.63 fix Cpu::setCacheHierarchy() and fix EvexModifierZero for clang<3.9(thanks to mgouicem)
* 2018/Feb/13 ver 5.62 Cpu::setCacheHierarchy() by mgouicem and rsdubtso
* 2018/Feb/07 ver 5.61 vmov* supports mem{k}{z}(I forgot it)
* 2018/Jan/24 ver 5.601 add xword, yword, etc. into Xbyak::util namespace
* 2018/Jan/05 ver 5.60 support AVX-512 for Ice lake(319433-030.pdf)
* 2017/Aug/22 ver 5.53 fix mpx encoding, add bnd() prefix
* 2017/Aug/18 ver 5.52 fix align (thanks to MerryMage)
* 2017/Aug/17 ver 5.51 add multi-byte nop and align() uses it(thanks to inolen)
* 2017/Aug/08 ver 5.50 add mpx(thanks to magurosan)
* 2017/Aug/08 ver 5.45 add sha(thanks to magurosan)
* 2017/Aug/08 ver 5.44 add prefetchw(thanks to rsdubtso)
* 2017/Jul/12 ver 5.432 reduce warnings of PVS studio
* 2017/Jul/09 ver 5.431 fix hasRex() (no affect) (thanks to drillsar)
* 2017/May/14 ver 5.43 fix CodeGenerator::resetSize() (thanks to gibbed)
* 2017/May/13 ver 5.42 add movs{b,w,d,q}
* 2017/Jan/26 ver 5.41 add prefetchwt1 and support for scale == 0(thanks to rsdubtso)
* 2016/Dec/14 ver 5.40 add Label::getAddress() method to get the pointer specified by the label
* 2016/Dec/09 ver 5.34 fix handling of negative offsets when encoding disp8N(thanks to rsdubtso)
* 2016/Dec/08 ver 5.33 fix encoding of vpbroadcast{b,w,d,q}, vpinsr{b,w}, vpextr{b,w} for disp8N
* 2016/Dec/01 ver 5.32 rename __xgetbv() to _xgetbv() to support clang for Visual Studio(thanks to freiro)
* 2016/Nov/27 ver 5.31 rename AVX512_4VNNI to AVX512_4VNNIW
* 2016/Nov/27 ver 5.30 add AVX512_4VNNI, AVX512_4FMAPS instructions(thanks to rsdubtso)
* 2016/Nov/26 ver 5.20 add detection of AVX512_4VNNI and AVX512_4FMAPS(thanks to rsdubtso)
* 2016/Nov/20 ver 5.11 lost vptest for ymm(thanks to gregory38)
* 2016/Nov/20 ver 5.10 add addressing [rip+&var]
* 2016/Sep/29 ver 5.03 fix detection ERR_INVALID_OPMASK_WITH_MEMORY(thanks to PVS-Studio)
* 2016/Aug/15 ver 5.02 xbyak does not include xbyak_bin2hex.h
* 2016/Aug/15 ver 5.011 fix detection of version of gcc 5.4
* 2016/Aug/03 ver 5.01 disable omitted operand
* 2016/Jun/24 ver 5.00 support avx-512 instruction set
* 2016/Jun/13 avx-512 add mask instructions
* 2016/May/05 ver 4.91 add detection of AVX-512 to Xbyak::util::Cpu
* 2016/Mar/14 ver 4.901 comment to ready() function(thanks to skmp)
* 2016/Feb/04 ver 4.90 add jcc(const void *addr);
* 2016/Jan/30 ver 4.89 vpblendvb supports ymm reg(thanks to John Funnell)
* 2016/Jan/24 ver 4.88 lea, cmov supports 16-bit register(thanks to whyisthisfieldhere)
* 2015/Oct/05 ver 4.87 support segment selectors
* 2015/Aug/18 ver 4.86 fix [rip + label] addressing with immediate value(thanks to whyisthisfieldhere)
* 2015/Aug/10 ver 4.85 Address::operator==() is not correct(thanks to inolen)
* 2015/Jun/22 ver 4.84 call() support variadic template if available(thanks to randomstuff)
* 2015/Jun/16 ver 4.83 support movbe(thanks to benvanik)
* 2015/May/24 ver 4.82 support detection of F16C
* 2015/Apr/25 ver 4.81 fix the condition to throw exception for setSize(thanks to whyisthisfieldhere)
* 2015/Apr/22 ver 4.80 rip supports label(thanks to whyisthisfieldhere)
* 2015/Jar/28 ver 4.71 support adcx, adox, cmpxchg, rdseed, stac
* 2014/Oct/14 ver 4.70 support MmapAllocator
* 2014/Jun/13 ver 4.62 disable warning of VC2014
* 2014/May/30 ver 4.61 support bt, bts, btr, btc
* 2014/May/28 ver 4.60 support vcvtph2ps, vcvtps2ph
* 2014/Apr/11 ver 4.52 add detection of rdrand
* 2014/Mar/25 ver 4.51 remove state information of unreferenced labels
* 2014/Mar/16 ver 4.50 support new Label
* 2014/Mar/05 ver 4.40 fix wrong detection of BMI/enhanced rep on VirtualBox
* 2013/Dec/03 ver 4.30 support Reg::cvt8(), cvt16(), cvt32(), cvt64()
* 2013/Oct/16 ver 4.21 label support std::string
* 2013/Jul/30 ver 4.20 [break backward compatibility] split Reg32e class into RegExp(base+index*scale+disp) and Reg32e(means Reg32 or Reg64)
* 2013/Jul/04 ver 4.10 [break backward compatibility] change the type of Xbyak::Error from enum to a class
* 2013/Jun/21 ver 4.02 add putL(LABEL) function to put the address of the label
* 2013/Jun/21 ver 4.01 vpsllw, vpslld, vpsllq, vpsraw, vpsrad, vpsrlw, vpsrld, vpsrlq support (ymm, ymm, xmm). support vpbroadcastb, vpbroadcastw, vpbroadcastd, vpbroadcastq(thanks to Gabest).
* 2013/May/30 ver 4.00 support AVX2, VEX-encoded GPR-instructions
* 2013/Mar/27 ver 3.80 support mov(reg, "label");
* 2013/Mar/13 ver 3.76 add cqo(), jcxz(), jecxz(), jrcxz()
* 2013/Jan/15 ver 3.75 add setSize() to modify generated code
* 2013/Jan/12 ver 3.74 add CodeGenerator::reset() ; add Allocator::useProtect()
* 2013/Jan/06 ver 3.73 use unordered_map if possible
* 2012/Dec/04 ver 3.72 eax, ebx, ... are member variables of CodeGenerator(revert), Xbyak::util::eax, ... are static const.
* 2012/Nov/17 ver 3.71 and_(), or_(), xor_(), not_() are available if XBYAK_NO_OP_NAMES is not defined.
* 2012/Nov/17 change eax, ebx, ptr and so on in CodeGenerator as static member and alias of them are defined in Xbyak::util.
* 2012/Nov/09 ver 3.70 XBYAK_NO_OP_NAMES macro is added to use and_() instead of and() (thanks to Mattias)
* 2012/Nov/01 ver 3.62 add fwait/fnwait/finit/fninit
* 2012/Nov/01 ver 3.61 add fldcw/fstcw
* 2012/May/03 ver 3.60 change interface of Allocator
* 2012/Mar/23 ver 3.51 fix userPtr mode
* 2012/Mar/19 ver 3.50 support AutoGrow mode
* 2011/Nov/09 ver 3.05 fix bit property of rip addresing / support movsxd
* 2011/Aug/15 ver 3.04 fix dealing with imm8 such as add(dword [ebp-8], 0xda); (thanks to lolcat)
* 2011/Jun/16 ver 3.03 fix __GNUC_PREREQ macro for Mac gcc(thanks to t_teruya)
* 2011/Apr/28 ver 3.02 do not use xgetbv on Mac gcc
* 2011/May/24 ver 3.01 fix typo of OSXSAVE
* 2011/May/23 ver 3.00 add vcmpeqps and so on
* 2011/Feb/16 ver 2.994 beta add vmovq for 32-bit mode(I forgot it)
* 2011/Feb/16 ver 2.993 beta remove cvtReg to avoid thread unsafe
* 2011/Feb/10 ver 2.992 beta support one argument syntax for fadd like nasm
* 2011/Feb/07 ver 2.991 beta fix pextrw reg, xmm, imm(Thanks to Gabest)
* 2011/Feb/04 ver 2.99 beta support AVX
* 2010/Dec/08 ver 2.31 fix ptr [rip + 32bit offset], support rdtscp
* 2010/Oct/19 ver 2.30 support pclmulqdq, aesdec, aesdeclast, aesenc, aesenclast, aesimc, aeskeygenassist
* 2010/Jun/07 ver 2.29 fix call(<label>)
* 2010/Jun/17 ver 2.28 move some member functions to public
* 2010/Jun/01 ver 2.27 support encoding of mov(reg64, imm) like yasm(not nasm)
* 2010/May/24 ver 2.26 fix sub(rsp, 1000)
* 2010/Apr/26 ver 2.25 add jc/jnc(I forgot to implement them...)
* 2010/Apr/16 ver 2.24 change the prototype of rewrite() method
* 2010/Apr/15 ver 2.23 fix align() and xbyak_util.h for Mac
* 2010/Feb/16 ver 2.22 fix inLocalLabel()/outLocalLabel()
* 2009/Dec/09 ver 2.21 support cygwin(gcc 4.3.2)
* 2009/Nov/28 support a part of FPU
* 2009/Jun/25 fix mov(qword[rax], imm); (thanks to Martin)
* 2009/Mar/10 fix redundant REX.W prefix on jmp/call reg64
* 2009/Feb/24 add movq reg64, mmx/xmm; movq mmx/xmm, reg64
* 2009/Feb/13 movd(xmm7, dword[eax]) drops 0x66 prefix (thanks to Gabest)
* 2008/Dec/30 fix call in short relative address(thanks to kato san)
* 2008/Sep/18 support @@, @f, @b and localization of label(thanks to nobu-q san)
* 2008/Sep/18 support (ptr[rip + 32bit offset]) (thanks to Dango-Chu san)
* 2008/Jun/03 fix align(). mov(ptr[eax],1) throws ERR_MEM_SIZE_IS_NOT_SPECIFIED.
* 2008/Jun/02 support memory interface allocated by user
* 2008/May/26 fix protect() to avoid invalid setting(thanks to shinichiro_h san)
* 2008/Apr/30 add cmpxchg16b, cdqe
* 2008/Apr/29 support x64
* 2008/Apr/14 code refactoring
* 2008/Mar/12 add bsr/bsf
* 2008/Feb/14 fix output of sub eax, 1234 (thanks to Robert)
* 2007/Nov/5 support lock, xadd, xchg
* 2007/Nov/2 support SSSE3/SSE4 (thanks to Dango-Chu san)
* 2007/Feb/4 fix the bug that exception doesn't occur under the condition which the offset of jmp mnemonic without T_NEAR is over 127.
* 2007/Jan/21 fix the bug to create address like [disp] select smaller representation for mov (eax|ax|al, [disp])
* 2007/Jan/4 first version
[BSD-3-Clause License](http://opensource.org/licenses/BSD-3-Clause)
## Author
MITSUNARI Shigeo(herumi@nifty.com)
#### 光成滋生 Mitsunari Shigeo
 [GitHub](https://github.com/herumi) | [Website (Japanese)](http://herumi.in.coocan.jp/) | [herumi@nifty.com](mailto:herumi@nifty.com)
## Sponsors welcome
[GitHub Sponsor](https://github.com/sponsors/herumi)
<!----------------------------------------------------------------------------->
[Badge Build]: https://github.com/herumi/xbyak/actions/workflows/main.yml/badge.svg
[Build Status]: https://github.com/herumi/xbyak/actions/workflows/main.yml
[License]: COPYRIGHT
[Changelog]: doc/changelog.md
[Install]: doc/install.md
[Usage]: doc/usage.md

37
externals/dynarmic/externals/xbyak/readme.txt vendored
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@ -1,5 +1,5 @@
C++用x86(IA-32), x64(AMD64, x86-64) JITアセンブラ Xbyak 5.991
C++用x86(IA-32), x64(AMD64, x86-64) JITアセンブラ Xbyak 6.60.1
-----------------------------------------------------------------------------
◎概要
@ -277,6 +277,24 @@ L(label);
assert(label.getAddress(), getCurr());
```
4. farジャンプ
`jmp(mem, T_FAR)`, `call(mem, T_FAR)`, `retf()`をサポートします。
サイズを明示するために`ptr`の代わりに`word|dword|qword`を利用してください。
32bit
```
jmp(word[eax], T_FAR); // jmp m16:16(FF /5)
jmp(dword[eax], T_FAR); // jmp m16:32(FF /5)
```
64bit
```
jmp(word[rax], T_FAR); // jmp m16:16(FF /5)
jmp(dword[rax], T_FAR); // jmp m16:32(FF /5)
jmp(qword[rax], T_FAR); // jmp m16:64(REX.W FF /5)
```
・Xbyak::CodeGenerator()コンストラクタインタフェース
@param maxSize [in] コード生成最大サイズ(デフォルト4096byte)
@ -382,6 +400,23 @@ sample/{echo,hello}.bfは http://www.kmonos.net/alang/etc/brainfuck.php から
-----------------------------------------------------------------------------
◎履歴
2022/06/15 ver 6.60.1 Visual Studio /O0でXbyak::util::Cpuがリンクエラーになるのに対応
2022/06/06 ver 6.60 バージョンのつけ方を数値が戻らないように変更
2022/06/01 ver 6.06 Cpu::TypeクラスのリファクタリングとXBYAK_USE_MEMFDが定義されたときのMmapAllocatorの改善
2022/05/20 ver 6.052 Cpu::operator==()を正しく定義
2022/05/13 ver 6.051 XYBAK_NO_EXCEPTIONを定義したときのCpuクラスのコンパイルエラー修正
2022/05/12 ver 6.05 movdiri, movdir64b, clwb, cldemoteを追加
2022/04/05 ver 6.04 tpause, umonitor, umwaitを追加
2022/03/08 ver 6.03 MmapAllocatorがmemfd用のユーザ定義文字列をサポート
2022/01/28 ver 6.02 dispacementの32bit範囲チェックの厳密化
2021/12/14 ver 6.01 T_FAR jump/callとretfをサポート
2021/09/14 ver 6.00 AVX512-FP16を完全サポート
2021/09/09 ver 5.997 vrndscale*を{sae}をサポートするよう修正
2021/09/03 ver 5.996 v{add,sub,mul,div,max,min}{sd,ss}をT_rd_saeなどをサポートするよう修正
2021/08/15 ver 5.995 Linux上でXBYAK_USE_MEMFDが定義されたなら/proc/self/mapsにラベル追加
2021/06/17 ver 5.994 マスクレジスタ用のvcmpXX{ps,pd,ss,sd}のalias追加
2021/06/06 ver 5.993 gather/scatterのレジスタの組み合わせの厳密なチェック
2021/05/09 ver 5.992 endbr32とendbr64のサポート
2020/11/16 ver 5.991 g++-5のC++14でconstexpr機能の抑制
2020/10/19 ver 5.99 VNNI命令サポート(Thanks to akharito)
2020/10/17 ver 5.98 [scale * reg]のサポート

6
externals/dynarmic/externals/xbyak/sample/Makefile vendored
View File

@ -37,6 +37,7 @@ endif
ifneq ($(OS),mac)
TARGET += static_buf64
TARGET += memfd
endif
@ -51,7 +52,7 @@ all: $(TARGET)
CFLAGS_WARN=-Wall -Wextra -Wformat=2 -Wcast-qual -Wcast-align -Wwrite-strings -Wfloat-equal -Wpointer-arith #-pedantic
CFLAGS=-g -O2 -fomit-frame-pointer -Wall -I../ $(CFLAGS_WARN)
CFLAGS=-g -O2 -fomit-frame-pointer -Wall -I../ $(CFLAGS_WARN) $(CXXFLAGS) $(CPPFLAGS) $(LDFLAGS)
test:
$(CXX) $(CFLAGS) test0.cpp -o $@ -m32
@ -95,6 +96,8 @@ jmp_table:
$(CXX) $(CFLAGS) jmp_table.cpp -o $@ -m32
jmp_table64:
$(CXX) $(CFLAGS) jmp_table.cpp -o $@ -m64
memfd:
$(CXX) $(CFLAGS) memfd.cpp -o $@ -m64
profiler: profiler.cpp ../xbyak/xbyak_util.h
$(CXX) $(CFLAGS) profiler.cpp -o $@
profiler-vtune: profiler.cpp ../xbyak/xbyak_util.h
@ -121,3 +124,4 @@ test_util : test_util.cpp $(XBYAK_INC) ../xbyak/xbyak_util.h
test_util2 : test_util.cpp $(XBYAK_INC) ../xbyak/xbyak_util.h
jmp_table: jmp_table.cpp $(XBYAK_INC)
jmp_table64: jmp_table.cpp $(XBYAK_INC)
memfd: memfd.cpp $(XBYAK_INC)

39
externals/dynarmic/externals/xbyak/sample/memfd.cpp vendored Executable file
View File

@ -0,0 +1,39 @@
/*
a sample to use MmapAllocator with an user-defined name
cat /proc/`psidof ./memfd`/maps
7fca70b44000-7fca70b4a000 rw-p 00000000 00:00 0
7fca70b67000-7fca70b68000 rwxs 00000000 00:05 19960170 /memfd:xyz (deleted)
7fca70b68000-7fca70b69000 rwxs 00000000 00:05 19960169 /memfd:abc (deleted)
7fca70b69000-7fca70b6a000 r--p 00029000 103:03 19136541 /lib/x86_64-linux-gnu/ld-2.27.so
7fca70b6a000-7fca70b6b000 rw-p 0002a000 103:03 19136541 /lib/x86_64-linux-gnu/ld-2.27.so
*/
#define XBYAK_USE_MEMFD
#include <xbyak/xbyak.h>
#include <fstream>
class Code : Xbyak::MmapAllocator, public Xbyak::CodeGenerator {
public:
Code(const char *name, int v)
: Xbyak::MmapAllocator(name)
, Xbyak::CodeGenerator(4096, nullptr, this /* specify external MmapAllocator */)
{
mov(eax, v);
ret();
}
};
int main()
{
Code c1("Xbyak::abc", 123);
Code c2("Xbyak::xyz", 456);
printf("c1 %d\n", c1.getCode<int (*)()>()());
printf("c2 %d\n", c2.getCode<int (*)()>()());
std::ifstream ifs("/proc/self/maps", std::ios::binary);
if (ifs) {
std::string line;
while (std::getline(ifs, line)) {
printf("%s\n", line.c_str());
}
}
}

24
externals/dynarmic/externals/xbyak/sample/test_util.cpp vendored
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@ -7,14 +7,13 @@ struct PopCountTest : public Xbyak::CodeGenerator {
PopCountTest(int n)
: Xbyak::CodeGenerator(4096, Xbyak::DontSetProtectRWE)
{
ret();
mov(eax, n);
popcnt(eax, eax);
ret();
}
};
void putCPUinfo()
void putCPUinfo(bool onlyCpuidFeature)
{
using namespace Xbyak::util;
Cpu cpu;
@ -35,8 +34,6 @@ void putCPUinfo()
{ Cpu::tPOPCNT, "popcnt" },
{ Cpu::t3DN, "3dn" },
{ Cpu::tE3DN, "e3dn" },
{ Cpu::tSSE4a, "sse4a" },
{ Cpu::tSSE5, "sse5" },
{ Cpu::tAESNI, "aesni" },
{ Cpu::tRDTSCP, "rdtscp" },
{ Cpu::tOSXSAVE, "osxsave(xgetvb)" },
@ -85,11 +82,19 @@ void putCPUinfo()
{ Cpu::tAMX_INT8, "amx(int8)" },
{ Cpu::tAMX_BF16, "amx(bf16)" },
{ Cpu::tAVX_VNNI, "avx_vnni" },
{ Cpu::tAVX512_FP16, "avx512_fp16" },
{ Cpu::tWAITPKG, "waitpkg" },
{ Cpu::tCLFLUSHOPT, "clflushopt" },
{ Cpu::tCLDEMOTE, "cldemote" },
{ Cpu::tMOVDIRI, "movdiri" },
{ Cpu::tMOVDIR64B, "movdir64b" },
{ Cpu::tCLZERO, "clzero" },
};
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
if (cpu.has(tbl[i].type)) printf(" %s", tbl[i].str);
}
printf("\n");
if (onlyCpuidFeature) return;
if (cpu.has(Cpu::tPOPCNT)) {
const int n = 0x12345678; // bitcount = 13
const int ok = 13;
@ -123,12 +128,15 @@ void putCPUinfo()
printf("CoreLevel=%u\n", cpu.getNumCores(Xbyak::util::CoreLevel));
}
int main()
int main(int argc, char *argv[])
{
bool onlyCpuidFeature = argc == 2 && strcmp(argv[1], "-cpuid") == 0;
if (!onlyCpuidFeature) {
#ifdef XBYAK32
puts("32bit");
puts("32bit");
#else
puts("64bit");
puts("64bit");
#endif
putCPUinfo();
}
putCPUinfo(onlyCpuidFeature);
}

9
externals/dynarmic/externals/xbyak/test/Makefile vendored
View File

@ -1,4 +1,4 @@
TARGET = make_nm normalize_prefix bad_address misc cvt_test cvt_test32 noexception
TARGET = make_nm normalize_prefix bad_address misc cvt_test cvt_test32 noexception misc32
XBYAK_INC=../xbyak/xbyak.h
UNAME_S=$(shell uname -s)
BIT=32
@ -22,7 +22,7 @@ all: $(TARGET)
CFLAGS_WARN=-Wall -Wextra -Wformat=2 -Wcast-qual -Wcast-align -Wwrite-strings -Wfloat-equal -Wpointer-arith
CFLAGS=-O2 -fomit-frame-pointer -Wall -fno-operator-names -I../ -I./ $(CFLAGS_WARN) #-std=c++0x
CFLAGS=-O2 -fomit-frame-pointer -Wall -fno-operator-names -I../ -I./ $(CFLAGS_WARN) $(CXXFLAGS) $(CPPFLAGS) $(LDFLAGS) #-std=c++0x
make_nm:
$(CXX) $(CFLAGS) make_nm.cpp -o $@
normalize_prefix: normalize_prefix.cpp ../xbyak/xbyak.h
@ -41,6 +41,8 @@ bad_address: bad_address.cpp ../xbyak/xbyak.h
$(CXX) $(CFLAGS) bad_address.cpp -o $@
misc: misc.cpp ../xbyak/xbyak.h
$(CXX) $(CFLAGS) misc.cpp -o $@
misc32: misc.cpp ../xbyak/xbyak.h
$(CXX) $(CFLAGS) misc.cpp -o $@ -DXBYAK32
cvt_test: cvt_test.cpp ../xbyak/xbyak.h
$(CXX) $(CFLAGS) $< -o $@
cvt_test32: cvt_test.cpp ../xbyak/xbyak.h
@ -62,6 +64,7 @@ ifneq ($(ONLY_64BIT),1)
endif
./bad_address
./misc
./misc32
./cvt_test
ifeq ($(BIT),64)
./test_address.sh 64
@ -95,7 +98,7 @@ test:
$(MAKE) test_avx512
clean:
rm -rf *.o $(TARGET) lib_run nm.cpp nm_frame make_512
$(RM) a.asm *.lst *.obj *.o $(TARGET) lib_run nm.cpp nm_frame make_512
lib_run: lib_test.cpp lib_run.cpp lib.h
$(CXX) $(CFLAGS) lib_run.cpp lib_test.cpp -o lib_run

6
externals/dynarmic/externals/xbyak/test/address.cpp vendored
View File

@ -31,7 +31,7 @@ void genVsib(bool isJIT)
"xmm3 * 8 + edi + 123",
"xmm2 * 2 + 5",
"eax + xmm0",
"esp + xmm4",
"esp + xmm2",
};
const char *vm32yTbl[] = {
"ymm0",
@ -42,7 +42,7 @@ void genVsib(bool isJIT)
"ymm3 * 8 + edi + 123",
"ymm2 * 2 + 5",
"eax + ymm0",
"esp + ymm4",
"esp + ymm2",
};
genVsibSub(isJIT, "vgatherdpd", vm32xTbl, NUM_OF_ARRAY(vm32xTbl));
genVsibSub(isJIT, "vgatherqpd", vm32yTbl, NUM_OF_ARRAY(vm32yTbl));
@ -93,7 +93,7 @@ void genAddress(bool isJIT, const char regTbl[][5], size_t regTblNum)
}
if (isFirst) {
if (isJIT) printf("(void*)");
printf("0x%08X", disp);
printf("%d", disp);
} else {
if (disp >= 0) {
putchar('+');

15
externals/dynarmic/externals/xbyak/test/jmp.cpp vendored
View File

@ -1383,3 +1383,18 @@ CYBOZU_TEST_AUTO(setDefaultJmpNEAR)
}
}
}
CYBOZU_TEST_AUTO(ambiguousFarJmp)
{
struct Code : Xbyak::CodeGenerator {
#ifdef XBYAK32
void genJmp() { jmp(ptr[eax], T_FAR); }
void genCall() { call(ptr[eax], T_FAR); }
#else
void genJmp() { jmp(ptr[rax], T_FAR); }
void genCall() { call(ptr[rax], T_FAR); }
#endif
} code;
CYBOZU_TEST_EXCEPTION(code.genJmp(), std::exception);
CYBOZU_TEST_EXCEPTION(code.genCall(), std::exception);
}

8
externals/dynarmic/externals/xbyak/test/make_512.cpp vendored
View File

@ -1366,6 +1366,8 @@ public:
put(p, _ZMM, _ZMM, mem | _MEM);
}
}
put("vaddss", XMM, _XMM, XMM_ER);
put("vaddsd", XMM, _XMM, XMM_ER);
#endif
}
void putAVX1()
@ -1949,14 +1951,16 @@ public:
put("vrndscalepd", XMM_KZ, _XMM | _MEM | M_1to2, IMM8);
put("vrndscalepd", YMM_KZ, _YMM | _MEM | M_1to4, IMM8);
put("vrndscalepd", ZMM_KZ, _ZMM | _MEM | M_1to8, IMM8);
put("vrndscalepd", ZMM_KZ, _ZMM | ZMM_SAE, IMM8);
put("vrndscaleps", XMM_KZ, _XMM | _MEM | M_1to4, IMM8);
put("vrndscaleps", YMM_KZ, _YMM | _MEM | M_1to8, IMM8);
put("vrndscaleps", ZMM_KZ, _ZMM | _MEM | M_1to16, IMM8);
put("vrndscaleps", ZMM_KZ, _ZMM | ZMM_SAE, IMM8);
put("vrndscalesd", XMM_KZ, _XMM, _XMM | _MEM, IMM8);
put("vrndscalesd", XMM_KZ, _XMM, _XMM | _MEM | XMM_SAE, IMM8);
put("vrndscaless", XMM_KZ, _XMM, _XMM | _MEM, IMM8);
put("vrndscaless", XMM_KZ, _XMM, _XMM | _MEM | XMM_SAE, IMM8);
put("vscalefpd", XMM_KZ, _XMM, _XMM | _MEM | M_1to2);
put("vscalefpd", YMM_KZ, _YMM, _YMM | _MEM | M_1to4);

50
externals/dynarmic/externals/xbyak/test/make_nm.cpp vendored
View File

@ -179,6 +179,19 @@ class Test {
printf("\n");
}
}
void put(const char *nm, const char *para1, uint64_t op2, const char *para3) const
{
for (int j = 0; j < bitEnd; j++) {
if ((op2 & (1ULL << j)) == 0) continue;
printf("%s ", nm);
if (isXbyak_) printf("(");
printf("%s", para1);
if (!(op2 & NOPARA)) printf(", %s", get(1ULL << j));
printf(", %s", para3);
if (isXbyak_) printf("); dump();");
printf("\n");
}
}
const char *get(uint64_t type) const
{
int idx = (rand() / 31) & 7;
@ -499,6 +512,7 @@ class Test {
"cmpsb",
"cmpsw",
"cmpsd",
"hlt",
"int3",
"leave",
"lodsb",
@ -623,6 +637,7 @@ class Test {
"fstsw",
"fnstsw",
"fxrstor",
"clwb",
};
for (size_t i = 0; i < NUM_OF_ARRAY(memTbl); i++) {
put(memTbl[i], MEM);
@ -685,6 +700,24 @@ class Test {
puts("pshufb xmm14, [rel label0]");
}
#endif
#endif
}
void putFarJmp() const
{
#ifdef XBYAK64
put("jmp", "word[rax],T_FAR", "far word [rax]");
put("jmp", "dword[rax],T_FAR", "far dword [rax]");
put("jmp", "qword[rax],T_FAR", "far qword [rax]");
put("call", "word[rax],T_FAR", "far word [rax]");
put("call", "dword[rax],T_FAR", "far dword [rax]");
put("call", "qword[rax],T_FAR", "far qword [rax]");
#else
put("jmp", "dword[eax],T_FAR", "far dword [eax]");
put("jmp", "word[eax],T_FAR", "far word [eax]");
put("call", "dword[eax],T_FAR", "far dword [eax]");
put("call", "word[eax],T_FAR", "far word [eax]");
#endif
}
void putMMX1() const
@ -1237,6 +1270,10 @@ class Test {
put("mov", REG64, "0x12345678", "0x12345678");
put("mov", REG64, "0xffffffff12345678LL", "0xffffffff12345678");
put("mov", REG32e|REG16|REG8|RAX|EAX|AX|AL, IMM);
put("mov", EAX, "ptr[(void*)-1]", "[-1]");
put("mov", EAX, "ptr[(void*)0x7fffffff]", "[0x7fffffff]");
put("mov", EAX, "ptr[(void*)0xffffffffffffffff]", "[0xffffffffffffffff]");
}
void putEtc() const
{
@ -1244,6 +1281,9 @@ class Test {
const char *p = "ret";
put(p);
put(p, IMM);
p = "retf";
put(p);
put(p, IMM);
p = "mov";
put(p, EAX|REG32|MEM|MEM_ONLY_DISP, REG32|EAX);
put(p, REG64|MEM|MEM_ONLY_DISP, REG64|RAX);
@ -1480,6 +1520,7 @@ class Test {
put("pextrq", REG64|MEM, XMM, IMM);
put("pinsrq", XMM, REG64|MEM, IMM);
#endif
}
void putSHA() const
{
@ -2361,16 +2402,16 @@ public:
for (size_t i = 0; i < NUM_OF_ARRAY(tbl); i++) {
const Tbl& p = tbl[i];
const char *name = p.name;
put(name, XMM, VM32X, XMM);
put(name, "xmm3", VM32X, "xmm5");
switch (p.mode) {
case y_vx_y:
put(name, YMM, VM32X, YMM);
put(name, "ymm3", VM32X, "ymm5");
break;
case y_vy_y:
put(name, YMM, VM32Y, YMM);
put(name, "ymm3", VM32Y, "ymm5");
break;
case x_vy_x:
put(name, XMM, VM32Y, XMM);
put(name, "xmm3", VM32Y, "xmm5");
break;
default:
printf("ERR mode=%d\n", p.mode);
@ -2516,6 +2557,7 @@ public:
#else // USE_AVX
putJmp();
putFarJmp();
#ifdef USE_YASM

1133
externals/dynarmic/externals/xbyak/test/misc.cpp vendored
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File diff suppressed because it is too large Load Diff

4
externals/dynarmic/externals/xbyak/test/sf_test.cpp vendored
View File

@ -218,7 +218,7 @@ void check(int x, int y)
}
}
void verify(const Xbyak::uint8_t *f, int pNum)
void verify(const uint8_t *f, int pNum)
{
switch (pNum) {
case 0:
@ -264,7 +264,7 @@ void testAll()
}
for (int tNum = 0; tNum < maxNum; tNum++) {
// printf("pNum=%d, tNum=%d, stackSize=%d\n", pNum, tNum | opt, stackSize);
const Xbyak::uint8_t *f = code.getCurr();
const uint8_t *f = code.getCurr();
code.gen(pNum, tNum | opt, stackSize);
verify(f, pNum);
/*

163
externals/dynarmic/externals/xbyak/xbyak/xbyak.h vendored
View File

@ -95,6 +95,12 @@
#include <stdint.h>
#endif
// MFD_CLOEXEC defined only linux 3.17 or later.
// Android wraps the memfd_create syscall from API version 30.
#if !defined(MFD_CLOEXEC) || (defined(__ANDROID__) && __ANDROID_API__ < 30)
#undef XBYAK_USE_MEMFD
#endif
#if defined(_WIN64) || defined(__MINGW64__) || (defined(__CYGWIN__) && defined(__x86_64__))
#define XBYAK64_WIN
#elif defined(__x86_64__)
@ -138,7 +144,7 @@ namespace Xbyak {
enum {
DEFAULT_MAX_CODE_SIZE = 4096,
VERSION = 0x5991 /* 0xABCD = A.BC(D) */
VERSION = 0x6601 /* 0xABCD = A.BC(.D) */
};
#ifndef MIE_INTEGER_TYPE_DEFINED
@ -209,6 +215,7 @@ enum {
ERR_INVALID_MIB_ADDRESS,
ERR_X2APIC_IS_NOT_SUPPORTED,
ERR_NOT_SUPPORTED,
ERR_SAME_REGS_ARE_INVALID,
ERR_INTERNAL // Put it at last.
};
@ -261,6 +268,7 @@ inline const char *ConvertErrorToString(int err)
"invalid mib address",
"x2APIC is not supported",
"not supported",
"same regs are invalid",
"internal error"
};
assert(ERR_INTERNAL + 1 == sizeof(errTbl) / sizeof(*errTbl));
@ -285,10 +293,10 @@ inline void SetError(int err) {
inline void ClearError() {
local::GetErrorRef() = 0;
}
inline int GetError() { return local::GetErrorRef(); }
inline int GetError() { return Xbyak::local::GetErrorRef(); }
#define XBYAK_THROW(err) { local::SetError(err); return; }
#define XBYAK_THROW_RET(err, r) { local::SetError(err); return r; }
#define XBYAK_THROW(err) { Xbyak::local::SetError(err); return; }
#define XBYAK_THROW_RET(err, r) { Xbyak::local::SetError(err); return r; }
#else
class Error : public std::exception {
@ -377,6 +385,7 @@ enum LabelMode {
custom allocator
*/
struct Allocator {
explicit Allocator(const std::string& = "") {} // same interface with MmapAllocator
virtual uint8_t *alloc(size_t size) { return reinterpret_cast<uint8_t*>(AlignedMalloc(size, inner::ALIGN_PAGE_SIZE)); }
virtual void free(uint8_t *p) { AlignedFree(p); }
virtual ~Allocator() {}
@ -408,10 +417,21 @@ inline int getMacOsVersion()
} // util
#endif
class MmapAllocator : Allocator {
typedef XBYAK_STD_UNORDERED_MAP<uintptr_t, size_t> SizeList;
SizeList sizeList_;
class MmapAllocator : public Allocator {
struct Allocation {
size_t size;
#if defined(XBYAK_USE_MEMFD)
// fd_ is only used with XBYAK_USE_MEMFD. We keep the file open
// during the lifetime of each allocation in order to support
// checkpoint/restore by unprivileged users.
int fd;
#endif
};
const std::string name_; // only used with XBYAK_USE_MEMFD
typedef XBYAK_STD_UNORDERED_MAP<uintptr_t, Allocation> AllocationList;
AllocationList allocList_;
public:
explicit MmapAllocator(const std::string& name = "xbyak") : name_(name) {}
uint8_t *alloc(size_t size)
{
const size_t alignedSizeM1 = inner::ALIGN_PAGE_SIZE - 1;
@ -427,21 +447,44 @@ public:
const int mojaveVersion = 18;
if (util::getMacOsVersion() >= mojaveVersion) mode |= MAP_JIT;
#endif
void *p = mmap(NULL, size, PROT_READ | PROT_WRITE, mode, -1, 0);
if (p == MAP_FAILED) XBYAK_THROW_RET(ERR_CANT_ALLOC, 0)
int fd = -1;
#if defined(XBYAK_USE_MEMFD)
fd = memfd_create(name_.c_str(), MFD_CLOEXEC);
if (fd != -1) {
mode = MAP_SHARED;
if (ftruncate(fd, size) != 0) {
close(fd);
XBYAK_THROW_RET(ERR_CANT_ALLOC, 0)
}
}
#endif
void *p = mmap(NULL, size, PROT_READ | PROT_WRITE, mode, fd, 0);
if (p == MAP_FAILED) {
if (fd != -1) close(fd);
XBYAK_THROW_RET(ERR_CANT_ALLOC, 0)
}
assert(p);
sizeList_[(uintptr_t)p] = size;
Allocation &alloc = allocList_[(uintptr_t)p];
alloc.size = size;
#if defined(XBYAK_USE_MEMFD)
alloc.fd = fd;
#endif
return (uint8_t*)p;
}
void free(uint8_t *p)
{
if (p == 0) return;
SizeList::iterator i = sizeList_.find((uintptr_t)p);
if (i == sizeList_.end()) XBYAK_THROW(ERR_BAD_PARAMETER)
if (munmap((void*)i->first, i->second) < 0) XBYAK_THROW(ERR_MUNMAP)
sizeList_.erase(i);
AllocationList::iterator i = allocList_.find((uintptr_t)p);
if (i == allocList_.end()) XBYAK_THROW(ERR_BAD_PARAMETER)
if (munmap((void*)i->first, i->second.size) < 0) XBYAK_THROW(ERR_MUNMAP)
#if defined(XBYAK_USE_MEMFD)
if (i->second.fd != -1) close(i->second.fd);
#endif
allocList_.erase(i);
}
};
#else
typedef Allocator MmapAllocator;
#endif
class Address;
@ -1557,6 +1600,7 @@ public:
enum LabelType {
T_SHORT,
T_NEAR,
T_FAR, // far jump
T_AUTO // T_SHORT if possible
};
private:
@ -1605,6 +1649,11 @@ private:
{
return op1.isREG(i32e) && ((op2.isREG(i32e) && op1.getBit() == op2.getBit()) || op2.isMEM());
}
static inline bool isValidSSE(const Operand& op1)
{
// SSE instructions do not support XMM16 - XMM31
return !(op1.isXMM() && op1.getIdx() >= 16);
}
void rex(const Operand& op1, const Operand& op2 = Operand())
{
uint8_t rex = 0;
@ -1635,9 +1684,10 @@ private:
//
T_N_VL = 1 << 3, // N * (1, 2, 4) for VL
T_DUP = 1 << 4, // N = (8, 32, 64)
T_66 = 1 << 5,
T_F3 = 1 << 6,
T_F2 = 1 << 7,
T_66 = 1 << 5, // pp = 1
T_F3 = 1 << 6, // pp = 2
T_F2 = T_66 | T_F3, // pp = 3
T_ER_R = 1 << 7, // reg{er}
T_0F = 1 << 8,
T_0F38 = 1 << 9,
T_0F3A = 1 << 10,
@ -1658,11 +1708,17 @@ private:
T_MUST_EVEX = 1 << 25, // contains T_EVEX
T_B32 = 1 << 26, // m32bcst
T_B64 = 1 << 27, // m64bcst
T_B16 = T_B32 | T_B64, // m16bcst (Be careful)
T_M_K = 1 << 28, // mem{k}
T_VSIB = 1 << 29,
T_MEM_EVEX = 1 << 30, // use evex if mem
T_FP16 = 1 << 31, // avx512-fp16
T_MAP5 = T_FP16 | T_0F,
T_MAP6 = T_FP16 | T_0F38,
T_XXX
};
// T_66 = 1, T_F3 = 2, T_F2 = 3
uint32_t getPP(int type) const { return (type >> 5) & 3; }
void vex(const Reg& reg, const Reg& base, const Operand *v, int type, int code, bool x = false)
{
int w = (type & T_W1) ? 1 : 0;
@ -1671,7 +1727,7 @@ private:
bool b = base.isExtIdx();
int idx = v ? v->getIdx() : 0;
if ((idx | reg.getIdx() | base.getIdx()) >= 16) XBYAK_THROW(ERR_BAD_COMBINATION)
uint32_t pp = (type & T_66) ? 1 : (type & T_F3) ? 2 : (type & T_F2) ? 3 : 0;
uint32_t pp = getPP(type);
uint32_t vvvv = (((~idx) & 15) << 3) | (is256 ? 4 : 0) | pp;
if (!b && !x && !w && (type & T_0F)) {
db(0xC5); db((r ? 0 : 0x80) | vvvv);
@ -1688,6 +1744,7 @@ private:
}
void verifyER(const Reg& r, int type) const
{
if ((type & T_ER_R) && r.isREG(32|64)) return;
if (((type & T_ER_X) && r.isXMM()) || ((type & T_ER_Y) && r.isYMM()) || ((type & T_ER_Z) && r.isZMM())) return;
XBYAK_THROW(ERR_ER_IS_INVALID)
}
@ -1702,9 +1759,9 @@ private:
{
if (!(type & (T_EVEX | T_MUST_EVEX))) XBYAK_THROW_RET(ERR_EVEX_IS_INVALID, 0)
int w = (type & T_EW1) ? 1 : 0;
uint32_t mm = (type & T_0F) ? 1 : (type & T_0F38) ? 2 : (type & T_0F3A) ? 3 : 0;
uint32_t pp = (type & T_66) ? 1 : (type & T_F3) ? 2 : (type & T_F2) ? 3 : 0;
uint32_t mmm = (type & T_0F) ? 1 : (type & T_0F38) ? 2 : (type & T_0F3A) ? 3 : 0;
if (type & T_FP16) mmm |= 4;
uint32_t pp = getPP(type);
int idx = v ? v->getIdx() : 0;
uint32_t vvvv = ~idx;
@ -1727,7 +1784,7 @@ private:
VL = (std::max)((std::max)(reg.getBit(), base.getBit()), VL);
LL = (VL == 512) ? 2 : (VL == 256) ? 1 : 0;
if (b) {
disp8N = (type & T_B32) ? 4 : 8;
disp8N = ((type & T_B16) == T_B16) ? 2 : (type & T_B32) ? 4 : 8;
} else if (type & T_DUP) {
disp8N = VL == 128 ? 8 : VL == 256 ? 32 : 64;
} else {
@ -1746,7 +1803,7 @@ private:
if (aaa == 0) aaa = verifyDuplicate(base.getOpmaskIdx(), reg.getOpmaskIdx(), (v ? v->getOpmaskIdx() : 0), ERR_OPMASK_IS_ALREADY_SET);
if (aaa == 0) z = 0; // clear T_z if mask is not set
db(0x62);
db((R ? 0x80 : 0) | (X ? 0x40 : 0) | (B ? 0x20 : 0) | (Rp ? 0x10 : 0) | (mm & 3));
db((R ? 0x80 : 0) | (X ? 0x40 : 0) | (B ? 0x20 : 0) | (Rp ? 0x10 : 0) | mmm);
db((w == 1 ? 0x80 : 0) | ((vvvv & 15) << 3) | 4 | (pp & 3));
db((z ? 0x80 : 0) | ((LL & 3) << 5) | (b ? 0x10 : 0) | (Vp ? 8 : 0) | (aaa & 7));
db(code);
@ -1760,8 +1817,15 @@ private:
{
uint64_t disp64 = e.getDisp();
#ifdef XBYAK64
#ifdef XBYAK_OLD_DISP_CHECK
// treat 0xffffffff as 0xffffffffffffffff
uint64_t high = disp64 >> 32;
if (high != 0 && high != 0xFFFFFFFF) XBYAK_THROW(ERR_OFFSET_IS_TOO_BIG)
#else
// displacement should be a signed 32-bit value, so also check sign bit
uint64_t high = disp64 >> 31;
if (high != 0 && high != 0x1FFFFFFFF) XBYAK_THROW(ERR_OFFSET_IS_TOO_BIG)
#endif
#endif
uint32_t disp = static_cast<uint32_t>(disp64);
const Reg& base = e.getBase();
@ -1862,6 +1926,7 @@ private:
template<class T>
void opJmp(T& label, LabelType type, uint8_t shortCode, uint8_t longCode, uint8_t longPref)
{
if (type == T_FAR) XBYAK_THROW(ERR_NOT_SUPPORTED)
if (isAutoGrow() && size_ + 16 >= maxSize_) growMemory(); /* avoid splitting code of jmp */
size_t offset = 0;
if (labelMgr_.getOffset(&offset, label)) { /* label exists */
@ -1882,6 +1947,7 @@ private:
}
void opJmpAbs(const void *addr, LabelType type, uint8_t shortCode, uint8_t longCode, uint8_t longPref = 0)
{
if (type == T_FAR) XBYAK_THROW(ERR_NOT_SUPPORTED)
if (isAutoGrow()) {
if (!isNEAR(type)) XBYAK_THROW(ERR_ONLY_T_NEAR_IS_SUPPORTED_IN_AUTO_GROW)
if (size_ + 16 >= maxSize_) growMemory();
@ -1894,6 +1960,16 @@ private:
}
}
void opJmpOp(const Operand& op, LabelType type, int ext)
{
const int bit = 16|i32e;
if (type == T_FAR) {
if (!op.isMEM(bit)) XBYAK_THROW(ERR_NOT_SUPPORTED)
opR_ModM(op, bit, ext + 1, 0xFF, NONE, NONE, false);
} else {
opR_ModM(op, bit, ext, 0xFF, NONE, NONE, true);
}
}
// reg is reg field of ModRM
// immSize is the size for immediate value
// disp8N = 0(normal), disp8N = 1(force disp32), disp8N = {2, 4, 8} ; compressed displacement
@ -1920,6 +1996,7 @@ private:
void opGen(const Operand& reg, const Operand& op, int code, int pref, bool isValid(const Operand&, const Operand&), int imm8 = NONE, int preCode = NONE)
{
if (isValid && !isValid(reg, op)) XBYAK_THROW(ERR_BAD_COMBINATION)
if (!isValidSSE(reg) || !isValidSSE(op)) XBYAK_THROW(ERR_NOT_SUPPORTED)
if (pref != NONE) db(pref);
if (op.isMEM()) {
opModM(op.getAddress(), reg.getReg(), 0x0F, preCode, code, (imm8 != NONE) ? 1 : 0);
@ -1930,6 +2007,7 @@ private:
}
void opMMX_IMM(const Mmx& mmx, int imm8, int code, int ext)
{
if (!isValidSSE(mmx)) XBYAK_THROW(ERR_NOT_SUPPORTED)
if (mmx.isXMM()) db(0x66);
opModR(Reg32(ext), mmx, 0x0F, code);
db(imm8);
@ -1940,6 +2018,7 @@ private:
}
void opMovXMM(const Operand& op1, const Operand& op2, int code, int pref)
{
if (!isValidSSE(op1) || !isValidSSE(op2)) XBYAK_THROW(ERR_NOT_SUPPORTED)
if (pref != NONE) db(pref);
if (op1.isXMM() && op2.isMEM()) {
opModM(op2.getAddress(), op1.getReg(), 0x0F, code);
@ -1951,6 +2030,7 @@ private:
}
void opExt(const Operand& op, const Mmx& mmx, int code, int imm, bool hasMMX2 = false)
{
if (!isValidSSE(op) || !isValidSSE(mmx)) XBYAK_THROW(ERR_NOT_SUPPORTED)
if (hasMMX2 && op.isREG(i32e)) { /* pextrw is special */
if (mmx.isXMM()) db(0x66);
opModR(op.getReg(), mmx, 0x0F, 0xC5); db(imm);
@ -2211,11 +2291,15 @@ private:
{
if (!(x.isXMM() && op.is(Operand::XMM | Operand::YMM | Operand::MEM)) && !(x.isYMM() && op.is(Operand::ZMM | Operand::MEM))) XBYAK_THROW(ERR_BAD_COMBINATION)
}
void opCvt(const Xmm& x, const Operand& op, int type, int code)
{
Operand::Kind kind = x.isXMM() ? (op.isBit(256) ? Operand::YMM : Operand::XMM) : Operand::ZMM;
opVex(x.copyAndSetKind(kind), &xm0, op, type, code);
}
void opCvt2(const Xmm& x, const Operand& op, int type, int code)
{
checkCvt2(x, op);
Operand::Kind kind = x.isXMM() ? (op.isBit(256) ? Operand::YMM : Operand::XMM) : Operand::ZMM;
opVex(x.copyAndSetKind(kind), &xm0, op, type, code);
opCvt(x, op, type, code);
}
void opCvt3(const Xmm& x1, const Xmm& x2, const Operand& op, int type, int type64, int type32, uint8_t code)
{
@ -2224,6 +2308,18 @@ private:
const Operand *p = op.isREG() ? &x : &op;
opVex(x1, &x2, *p, type | (op.isBit(64) ? type64 : type32), code);
}
// (x, x/y/xword/yword), (y, z/m)
void checkCvt4(const Xmm& x, const Operand& op) const
{
if (!(x.isXMM() && op.is(Operand::XMM | Operand::YMM | Operand::MEM) && op.isBit(128|256)) && !(x.isYMM() && op.is(Operand::ZMM | Operand::MEM))) XBYAK_THROW(ERR_BAD_COMBINATION)
}
// (x, x/y/z/xword/yword/zword)
void opCvt5(const Xmm& x, const Operand& op, int type, int code)
{
if (!(x.isXMM() && op.isBit(128|256|512))) XBYAK_THROW(ERR_BAD_COMBINATION)
Operand::Kind kind = op.isBit(128) ? Operand::XMM : op.isBit(256) ? Operand::YMM : Operand::ZMM;
opVex(x.copyAndSetKind(kind), &xm0, op, type, code);
}
const Xmm& cvtIdx0(const Operand& x) const
{
return x.isZMM() ? zm0 : x.isYMM() ? ym0 : xm0;
@ -2261,7 +2357,11 @@ private:
}
if (!isOK) XBYAK_THROW(ERR_BAD_VSIB_ADDRESSING)
}
opAVX_X_X_XM(isAddrYMM ? Ymm(x1.getIdx()) : x1, isAddrYMM ? Ymm(x2.getIdx()) : x2, addr, type, code);
int i1 = x1.getIdx();
int i2 = regExp.getIndex().getIdx();
int i3 = x2.getIdx();
if (i1 == i2 || i1 == i3 || i2 == i3) XBYAK_THROW(ERR_SAME_REGS_ARE_INVALID);
opAVX_X_X_XM(isAddrYMM ? Ymm(i1) : x1, isAddrYMM ? Ymm(i3) : x2, addr, type, code);
}
enum {
xx_yy_zz = 0,
@ -2284,7 +2384,12 @@ private:
void opGather2(const Xmm& x, const Address& addr, int type, uint8_t code, int mode)
{
if (x.hasZero()) XBYAK_THROW(ERR_INVALID_ZERO)
checkGather2(x, addr.getRegExp().getIndex(), mode);
const RegExp& regExp = addr.getRegExp();
checkGather2(x, regExp.getIndex(), mode);
int maskIdx = x.getOpmaskIdx();
if ((type & T_M_K) && addr.getOpmaskIdx()) maskIdx = addr.getOpmaskIdx();
if (maskIdx == 0) XBYAK_THROW(ERR_K0_IS_INVALID);
if (!(type & T_M_K) && x.getIdx() == regExp.getIndex().getIdx()) XBYAK_THROW(ERR_SAME_REGS_ARE_INVALID);
opVex(x, 0, addr, type, code);
}
/*
@ -2424,13 +2529,13 @@ public:
// set default type of `jmp` of undefined label to T_NEAR
void setDefaultJmpNEAR(bool isNear) { isDefaultJmpNEAR_ = isNear; }
void jmp(const Operand& op) { opR_ModM(op, BIT, 4, 0xFF, NONE, NONE, true); }
void jmp(const Operand& op, LabelType type = T_AUTO) { opJmpOp(op, type, 4); }
void jmp(std::string label, LabelType type = T_AUTO) { opJmp(label, type, 0xEB, 0xE9, 0); }
void jmp(const char *label, LabelType type = T_AUTO) { jmp(std::string(label), type); }
void jmp(const Label& label, LabelType type = T_AUTO) { opJmp(label, type, 0xEB, 0xE9, 0); }
void jmp(const void *addr, LabelType type = T_AUTO) { opJmpAbs(addr, type, 0xEB, 0xE9); }
void call(const Operand& op) { opR_ModM(op, 16 | i32e, 2, 0xFF, NONE, NONE, true); }
void call(const Operand& op, LabelType type = T_AUTO) { opJmpOp(op, type, 2); }
// call(string label), not const std::string&
void call(std::string label) { opJmp(label, T_NEAR, 0, 0xE8, 0); }
void call(const char *label) { call(std::string(label)); }

307
externals/dynarmic/externals/xbyak/xbyak/xbyak_mnemonic.h vendored
View File

@ -1,4 +1,4 @@
const char *getVersionString() const { return "5.991"; }
const char *getVersionString() const { return "6.60.1"; }
void adc(const Operand& op, uint32_t imm) { opRM_I(op, imm, 0x10, 2); }
void adc(const Operand& op1, const Operand& op2) { opRM_RM(op1, op2, 0x10); }
void adcx(const Reg32e& reg, const Operand& op) { opGen(reg, op, 0xF6, 0x66, isREG32_REG32orMEM, NONE, 0x38); }
@ -57,9 +57,11 @@ void cbw() { db(0x66); db(0x98); }
void cdq() { db(0x99); }
void clc() { db(0xF8); }
void cld() { db(0xFC); }
void cldemote(const Address& addr) { opMIB(addr, eax, 0x0F, 0x1C); }
void clflush(const Address& addr) { opModM(addr, Reg32(7), 0x0F, 0xAE); }
void clflushopt(const Address& addr) { db(0x66); opModM(addr, Reg32(7), 0x0F, 0xAE); }
void cli() { db(0xFA); }
void clwb(const Address& addr) { db(0x66); opMIB(addr, esi, 0x0F, 0xAE); }
void clzero() { db(0x0F); db(0x01); db(0xFC); }
void cmc() { db(0xF5); }
void cmova(const Reg& reg, const Operand& op) { opModRM(reg, op, op.isREG(16 | i32e), op.isMEM(), 0x0F, 0x40 | 7); }//-V524
@ -172,6 +174,8 @@ void divss(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x5E, 0xF3, isXMM
void dppd(const Xmm& xmm, const Operand& op, int imm) { opGen(xmm, op, 0x41, 0x66, isXMM_XMMorMEM, static_cast<uint8_t>(imm), 0x3A); }
void dpps(const Xmm& xmm, const Operand& op, int imm) { opGen(xmm, op, 0x40, 0x66, isXMM_XMMorMEM, static_cast<uint8_t>(imm), 0x3A); }
void emms() { db(0x0F); db(0x77); }
void endbr32() { db(0xF3); db(0x0F); db(0x1E); db(0xFB); }
void endbr64() { db(0xF3); db(0x0F); db(0x1E); db(0xFA); }
void enter(uint16_t x, uint8_t y) { db(0xC8); dw(x); db(y); }
void extractps(const Operand& op, const Xmm& xmm, uint8_t imm) { opExt(op, xmm, 0x17, imm); }
void f2xm1() { db(0xD9); db(0xF0); }
@ -321,6 +325,7 @@ void gf2p8affineqb(const Xmm& xmm, const Operand& op, int imm) { opGen(xmm, op,
void gf2p8mulb(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0xCF, 0x66, isXMM_XMMorMEM, NONE, 0x38); }
void haddpd(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x7C, 0x66, isXMM_XMMorMEM); }
void haddps(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x7C, 0xF2, isXMM_XMMorMEM); }
void hlt() { db(0xF4); }
void hsubpd(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x7D, 0x66, isXMM_XMMorMEM); }
void hsubps(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x7D, 0xF2, isXMM_XMMorMEM); }
void idiv(const Operand& op) { opR_ModM(op, 0, 7, 0xF6); }
@ -498,6 +503,8 @@ void movd(const Mmx& mmx, const Address& addr) { if (mmx.isXMM()) db(0x66); opMo
void movd(const Mmx& mmx, const Reg32& reg) { if (mmx.isXMM()) db(0x66); opModR(mmx, reg, 0x0F, 0x6E); }
void movd(const Reg32& reg, const Mmx& mmx) { if (mmx.isXMM()) db(0x66); opModR(mmx, reg, 0x0F, 0x7E); }
void movddup(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x12, 0xF2, isXMM_XMMorMEM, NONE, NONE); }
void movdir64b(const Reg& reg, const Address& addr) { db(0x66); opModM(addr, reg.cvt32(), 0x0F, 0x38, 0xF8); }
void movdiri(const Address& addr, const Reg32e& reg) { opModM(addr, reg, 0x0F, 0x38, 0xF9); }
void movdq2q(const Mmx& mmx, const Xmm& xmm) { db(0xF2); opModR(mmx, xmm, 0x0F, 0xD6); }
void movdqa(const Address& addr, const Xmm& xmm) { db(0x66); opModM(addr, xmm, 0x0F, 0x7F); }
void movdqa(const Xmm& xmm, const Operand& op) { opMMX(xmm, op, 0x6F, 0x66); }
@ -717,6 +724,7 @@ void repne() { db(0xF2); }
void repnz() { db(0xF2); }
void repz() { db(0xF3); }
void ret(int imm = 0) { if (imm) { db(0xC2); dw(imm); } else { db(0xC3); } }
void retf(int imm = 0) { if (imm) { db(0xCA); dw(imm); } else { db(0xCB); } }
void rol(const Operand& op, const Reg8& _cl) { opShift(op, _cl, 0); }
void rol(const Operand& op, int imm) { opShift(op, imm, 0); }
void ror(const Operand& op, const Reg8& _cl) { opShift(op, _cl, 1); }
@ -809,18 +817,21 @@ void subsd(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x5C, 0xF2, isXMM
void subss(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x5C, 0xF3, isXMM_XMMorMEM); }
void sysenter() { db(0x0F); db(0x34); }
void sysexit() { db(0x0F); db(0x35); }
void tpause(const Reg32& r) { int idx = r.getIdx(); if (idx > 7) XBYAK_THROW(ERR_BAD_PARAMETER) db(0x66); db(0x0F); db(0xAE); setModRM(3, 6, idx); }
void tzcnt(const Reg&reg, const Operand& op) { opSp1(reg, op, 0xF3, 0x0F, 0xBC); }
void ucomisd(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x2E, 0x66, isXMM_XMMorMEM); }
void ucomiss(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x2E, 0x100, isXMM_XMMorMEM); }
void ud2() { db(0x0F); db(0x0B); }
void umonitor(const Reg& r) { int idx = r.getIdx(); if (idx > 7) XBYAK_THROW(ERR_BAD_PARAMETER) int bit = r.getBit(); if (BIT != bit) { if ((BIT == 32 && bit == 16) || (BIT == 64 && bit == 32)) { db(0x67); } else { XBYAK_THROW(ERR_BAD_SIZE_OF_REGISTER) } } db(0xF3); db(0x0F); db(0xAE); setModRM(3, 6, idx); }
void umwait(const Reg32& r) { int idx = r.getIdx(); if (idx > 7) XBYAK_THROW(ERR_BAD_PARAMETER) db(0xF2); db(0x0F); db(0xAE); setModRM(3, 6, idx); }
void unpckhpd(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x15, 0x66, isXMM_XMMorMEM); }
void unpckhps(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x15, 0x100, isXMM_XMMorMEM); }
void unpcklpd(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x14, 0x66, isXMM_XMMorMEM); }
void unpcklps(const Xmm& xmm, const Operand& op) { opGen(xmm, op, 0x14, 0x100, isXMM_XMMorMEM); }
void vaddpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x58); }
void vaddps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x58); }
void vaddsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_Z | T_N8, 0x58); }
void vaddss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_Z | T_N4, 0x58); }
void vaddsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_X | T_N8, 0x58); }
void vaddss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_X | T_N4, 0x58); }
void vaddsubpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_66 | T_0F | T_YMM, 0xD0); }
void vaddsubps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_F2 | T_0F | T_YMM, 0xD0); }
void vaesdec(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_66 | T_0F38 | T_YMM | T_EVEX, 0xDE); }
@ -982,7 +993,7 @@ void vcvtpd2ps(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_66 | T_
void vcvtph2ps(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_0F38 | T_66 | T_W0 | T_EVEX | T_EW0 | T_N8 | T_N_VL | T_SAE_Y, 0x13); }
void vcvtps2dq(const Xmm& xm, const Operand& op) { opAVX_X_XM_IMM(xm, op, T_66 | T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x5B); }
void vcvtps2pd(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_0F | T_YMM | T_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_SAE_Y, 0x5A); }
void vcvtps2ph(const Operand& op, const Xmm& x, uint8_t imm) { checkCvt1(x, op); opVex(x, 0, op, T_0F3A | T_66 | T_W0 | T_EVEX | T_EW0 | T_N8 | T_N_VL | T_SAE_Y, 0x1D, imm); }
void vcvtps2ph(const Operand& op, const Xmm& x, uint8_t imm) { checkCvt1(x, op); opVex(x, 0, op, T_0F3A | T_66 | T_W0 | T_EVEX | T_EW0 | T_N8 | T_N_VL | T_SAE_Y | T_M_K, 0x1D, imm); }
void vcvtsd2si(const Reg32& r, const Operand& op) { opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, T_0F | T_F2 | T_W0 | T_EVEX | T_EW0 | T_N4 | T_ER_X, 0x2D); }
void vcvtsd2ss(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_F2 | T_0F | T_EW1 | T_EVEX | T_ER_X, 0x5A); }
void vcvtsi2sd(const Xmm& x1, const Xmm& x2, const Operand& op) { opCvt3(x1, x2, op, T_0F | T_F2 | T_EVEX, T_W1 | T_EW1 | T_ER_X | T_N8, T_W0 | T_EW0 | T_N4, 0x2A); }
@ -995,8 +1006,8 @@ void vcvttsd2si(const Reg32& r, const Operand& op) { opAVX_X_X_XM(Xmm(r.getIdx()
void vcvttss2si(const Reg32& r, const Operand& op) { opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, T_0F | T_F3 | T_W0 | T_EVEX | T_EW0 | T_SAE_X | T_N8, 0x2C); }
void vdivpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x5E); }
void vdivps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x5E); }
void vdivsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_Z | T_N8, 0x5E); }
void vdivss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_Z | T_N4, 0x5E); }
void vdivsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_X | T_N8, 0x5E); }
void vdivss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_X | T_N4, 0x5E); }
void vdppd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_W0, 0x41, imm); }
void vdpps(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_W0 | T_YMM, 0x40, imm); }
void vextractf128(const Operand& op, const Ymm& y, uint8_t imm) { if (!(op.isXMEM() && y.isYMM())) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(y, 0, op, T_0F3A | T_66 | T_W0 | T_YMM, 0x19, imm); }
@ -1085,12 +1096,12 @@ void vmaskmovps(const Address& addr, const Xmm& x1, const Xmm& x2) { opAVX_X_X_X
void vmaskmovps(const Xmm& x1, const Xmm& x2, const Address& addr) { opAVX_X_X_XM(x1, x2, addr, T_0F38 | T_66 | T_W0 | T_YMM, 0x2C); }
void vmaxpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x5F); }
void vmaxps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x5F); }
void vmaxsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_Z | T_N8, 0x5F); }
void vmaxss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_Z | T_N4, 0x5F); }
void vmaxsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_X | T_N8, 0x5F); }
void vmaxss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_X | T_N4, 0x5F); }
void vminpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x5D); }
void vminps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x5D); }
void vminsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_Z | T_N8, 0x5D); }
void vminss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_Z | T_N4, 0x5D); }
void vminsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_X | T_N8, 0x5D); }
void vminss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_X | T_N4, 0x5D); }
void vmovapd(const Address& addr, const Xmm& xmm) { opAVX_X_XM_IMM(xmm, addr, T_66 | T_0F | T_EW1 | T_YMM | T_EVEX | T_M_K, 0x29); }
void vmovapd(const Xmm& xm, const Operand& op) { opAVX_X_XM_IMM(xm, op, T_66 | T_0F | T_EW1 | T_YMM | T_EVEX, 0x28); }
void vmovaps(const Address& addr, const Xmm& xmm) { opAVX_X_XM_IMM(xmm, addr, T_0F | T_EW0 | T_YMM | T_EVEX | T_M_K, 0x29); }
@ -1136,8 +1147,8 @@ void vmovups(const Xmm& xm, const Operand& op) { opAVX_X_XM_IMM(xm, op, T_0F | T
void vmpsadbw(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_W0 | T_YMM, 0x42, imm); }
void vmulpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x59); }
void vmulps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x59); }
void vmulsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_Z | T_N8, 0x59); }
void vmulss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_Z | T_N4, 0x59); }
void vmulsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_X | T_N8, 0x59); }
void vmulss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_X | T_N4, 0x59); }
void vorpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x56); }
void vorps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x56); }
void vpabsb(const Xmm& xm, const Operand& op) { opAVX_X_XM_IMM(xm, op, T_66 | T_0F38 | T_YMM | T_EVEX, 0x1C); }
@ -1320,8 +1331,8 @@ void vsqrtss(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1,
void vstmxcsr(const Address& addr) { opAVX_X_X_XM(xm3, xm0, addr, T_0F, 0xAE); }
void vsubpd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_66 | T_EW1 | T_YMM | T_EVEX | T_ER_Z | T_B64, 0x5C); }
void vsubps(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_EW0 | T_YMM | T_EVEX | T_ER_Z | T_B32, 0x5C); }
void vsubsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_Z | T_N8, 0x5C); }
void vsubss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_Z | T_N4, 0x5C); }
void vsubsd(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F2 | T_EW1 | T_EVEX | T_ER_X | T_N8, 0x5C); }
void vsubss(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_0F | T_F3 | T_EW0 | T_EVEX | T_ER_X | T_N4, 0x5C); }
void vtestpd(const Xmm& xm, const Operand& op) { opAVX_X_XM_IMM(xm, op, T_66 | T_0F38 | T_YMM, 0x0F); }
void vtestps(const Xmm& xm, const Operand& op) { opAVX_X_XM_IMM(xm, op, T_66 | T_0F38 | T_YMM, 0x0E); }
void vucomisd(const Xmm& xm, const Operand& op) { opAVX_X_XM_IMM(xm, op, T_N8 | T_66 | T_0F | T_EW1 | T_EVEX | T_SAE_X, 0x2E); }
@ -1739,6 +1750,8 @@ void v4fmaddps(const Zmm& z1, const Zmm& z2, const Address& addr) { opAVX_X_X_XM
void v4fmaddss(const Xmm& x1, const Xmm& x2, const Address& addr) { opAVX_X_X_XM(x1, x2, addr, T_0F38 | T_F2 | T_EW0 | T_MUST_EVEX | T_N16, 0x9B); }
void v4fnmaddps(const Zmm& z1, const Zmm& z2, const Address& addr) { opAVX_X_X_XM(z1, z2, addr, T_0F38 | T_F2 | T_EW0 | T_YMM | T_MUST_EVEX | T_N16, 0xAA); }
void v4fnmaddss(const Xmm& x1, const Xmm& x2, const Address& addr) { opAVX_X_X_XM(x1, x2, addr, T_0F38 | T_F2 | T_EW0 | T_MUST_EVEX | T_N16, 0xAB); }
void vaddph(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_EW0 | T_YMM | T_MUST_EVEX | T_ER_Z | T_B16, 0x58); }
void vaddsh(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_F3 | T_EW0 | T_MUST_EVEX | T_ER_X | T_N2, 0x58); }
void valignd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_EW0 | T_YMM | T_MUST_EVEX, 0x03, imm); }
void valignq(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_EW1 | T_YMM | T_MUST_EVEX, 0x03, imm); }
void vblendmpd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX | T_B64, 0x65); }
@ -1753,41 +1766,206 @@ void vbroadcasti32x4(const Ymm& y, const Operand& op) { opAVX_X_XM_IMM(y, op, T_
void vbroadcasti32x8(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW0 | T_N32, 0x5B); }
void vbroadcasti64x2(const Ymm& y, const Operand& op) { opAVX_X_XM_IMM(y, op, T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_N16, 0x5A); }
void vbroadcasti64x4(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 | T_0F38 | T_YMM | T_MUST_EVEX | T_EW1 | T_N32, 0x5B); }
void vcmpeq_ospd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 16); }
void vcmpeq_osps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 16); }
void vcmpeq_ossd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 16); }
void vcmpeq_osss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 16); }
void vcmpeq_uqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 8); }
void vcmpeq_uqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 8); }
void vcmpeq_uqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 8); }
void vcmpeq_uqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 8); }
void vcmpeq_uspd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 24); }
void vcmpeq_usps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 24); }
void vcmpeq_ussd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 24); }
void vcmpeq_usss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 24); }
void vcmpeqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 0); }
void vcmpeqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 0); }
void vcmpeqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 0); }
void vcmpeqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 0); }
void vcmpfalse_ospd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 27); }
void vcmpfalse_osps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 27); }
void vcmpfalse_ossd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 27); }
void vcmpfalse_osss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 27); }
void vcmpfalsepd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 11); }
void vcmpfalseps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 11); }
void vcmpfalsesd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 11); }
void vcmpfalsess(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 11); }
void vcmpge_oqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 29); }
void vcmpge_oqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 29); }
void vcmpge_oqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 29); }
void vcmpge_oqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 29); }
void vcmpgepd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 13); }
void vcmpgeps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 13); }
void vcmpgesd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 13); }
void vcmpgess(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 13); }
void vcmpgt_oqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 30); }
void vcmpgt_oqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 30); }
void vcmpgt_oqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 30); }
void vcmpgt_oqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 30); }
void vcmpgtpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 14); }
void vcmpgtps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 14); }
void vcmpgtsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 14); }
void vcmpgtss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 14); }
void vcmple_oqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 18); }
void vcmple_oqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 18); }
void vcmple_oqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 18); }
void vcmple_oqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 18); }
void vcmplepd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 2); }
void vcmpleps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 2); }
void vcmplesd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 2); }
void vcmpless(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 2); }
void vcmplt_oqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 17); }
void vcmplt_oqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 17); }
void vcmplt_oqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 17); }
void vcmplt_oqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 17); }
void vcmpltpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 1); }
void vcmpltps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 1); }
void vcmpltsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 1); }
void vcmpltss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 1); }
void vcmpneq_oqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 12); }
void vcmpneq_oqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 12); }
void vcmpneq_oqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 12); }
void vcmpneq_oqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 12); }
void vcmpneq_ospd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 28); }
void vcmpneq_osps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 28); }
void vcmpneq_ossd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 28); }
void vcmpneq_osss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 28); }
void vcmpneq_uspd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 20); }
void vcmpneq_usps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 20); }
void vcmpneq_ussd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 20); }
void vcmpneq_usss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 20); }
void vcmpneqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 4); }
void vcmpneqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 4); }
void vcmpneqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 4); }
void vcmpneqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 4); }
void vcmpnge_uqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 25); }
void vcmpnge_uqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 25); }
void vcmpnge_uqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 25); }
void vcmpnge_uqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 25); }
void vcmpngepd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 9); }
void vcmpngeps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 9); }
void vcmpngesd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 9); }
void vcmpngess(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 9); }
void vcmpngt_uqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 26); }
void vcmpngt_uqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 26); }
void vcmpngt_uqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 26); }
void vcmpngt_uqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 26); }
void vcmpngtpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 10); }
void vcmpngtps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 10); }
void vcmpngtsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 10); }
void vcmpngtss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 10); }
void vcmpnle_uqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 22); }
void vcmpnle_uqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 22); }
void vcmpnle_uqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 22); }
void vcmpnle_uqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 22); }
void vcmpnlepd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 6); }
void vcmpnleps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 6); }
void vcmpnlesd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 6); }
void vcmpnless(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 6); }
void vcmpnlt_uqpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 21); }
void vcmpnlt_uqps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 21); }
void vcmpnlt_uqsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 21); }
void vcmpnlt_uqss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 21); }
void vcmpnltpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 5); }
void vcmpnltps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 5); }
void vcmpnltsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 5); }
void vcmpnltss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 5); }
void vcmpord_spd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 23); }
void vcmpord_sps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 23); }
void vcmpord_ssd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 23); }
void vcmpord_sss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 23); }
void vcmpordpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 7); }
void vcmpordps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 7); }
void vcmpordsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 7); }
void vcmpordss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 7); }
void vcmppd(const Opmask& k, const Xmm& x, const Operand& op, uint8_t imm) { opAVX_K_X_XM(k, x, op, T_66 | T_0F | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0xC2, imm); }
void vcmpph(const Opmask& k, const Xmm& x, const Operand& op, uint8_t imm) { opAVX_K_X_XM(k, x, op, T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B16, 0xC2, imm); }
void vcmpps(const Opmask& k, const Xmm& x, const Operand& op, uint8_t imm) { opAVX_K_X_XM(k, x, op, T_0F | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0xC2, imm); }
void vcmpsd(const Opmask& k, const Xmm& x, const Operand& op, uint8_t imm) { opAVX_K_X_XM(k, x, op, T_N8 | T_F2 | T_0F | T_EW1 | T_SAE_Z | T_MUST_EVEX, 0xC2, imm); }
void vcmpsh(const Opmask& k, const Xmm& x, const Operand& op, uint8_t imm) { opAVX_K_X_XM(k, x, op, T_N2 | T_F3 | T_0F3A | T_EW0 | T_SAE_X | T_MUST_EVEX, 0xC2, imm); }
void vcmpss(const Opmask& k, const Xmm& x, const Operand& op, uint8_t imm) { opAVX_K_X_XM(k, x, op, T_N4 | T_F3 | T_0F | T_EW0 | T_SAE_Z | T_MUST_EVEX, 0xC2, imm); }
void vcmptrue_uspd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 31); }
void vcmptrue_usps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 31); }
void vcmptrue_ussd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 31); }
void vcmptrue_usss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 31); }
void vcmptruepd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 15); }
void vcmptrueps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 15); }
void vcmptruesd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 15); }
void vcmptruess(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 15); }
void vcmpunord_spd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 19); }
void vcmpunord_sps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 19); }
void vcmpunord_ssd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 19); }
void vcmpunord_sss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 19); }
void vcmpunordpd(const Opmask& k, const Xmm& x, const Operand& op) { vcmppd(k, x, op, 3); }
void vcmpunordps(const Opmask& k, const Xmm& x, const Operand& op) { vcmpps(k, x, op, 3); }
void vcmpunordsd(const Opmask& k, const Xmm& x, const Operand& op) { vcmpsd(k, x, op, 3); }
void vcmpunordss(const Opmask& k, const Xmm& x, const Operand& op) { vcmpss(k, x, op, 3); }
void vcomish(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_MAP5 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, 0x2F); }
void vcompressb(const Operand& op, const Xmm& x) { opAVX_X_XM_IMM(x, op, T_N1 | T_66 | T_0F38 | T_EW0 | T_YMM | T_MUST_EVEX, 0x63); }
void vcompresspd(const Operand& op, const Xmm& x) { opAVX_X_XM_IMM(x, op, T_N8 | T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX, 0x8A); }
void vcompressps(const Operand& op, const Xmm& x) { opAVX_X_XM_IMM(x, op, T_N4 | T_66 | T_0F38 | T_EW0 | T_YMM | T_MUST_EVEX, 0x8A); }
void vcompressw(const Operand& op, const Xmm& x) { opAVX_X_XM_IMM(x, op, T_N2 | T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX, 0x63); }
void vcvtdq2ph(const Xmm& x, const Operand& op) { checkCvt4(x, op); opCvt(x, op, T_N16 | T_N_VL | T_MAP5 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0x5B); }
void vcvtne2ps2bf16(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_F2 | T_0F38 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x72); }
void vcvtneps2bf16(const Xmm& x, const Operand& op) { opCvt2(x, op, T_F3 | T_0F38 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x72); }
void vcvtpd2ph(const Xmm& x, const Operand& op) { opCvt5(x, op, T_N16 | T_N_VL | T_66 | T_MAP5 | T_EW1 | T_ER_Z | T_MUST_EVEX | T_B64, 0x5A); }
void vcvtpd2qq(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0x7B); }
void vcvtpd2udq(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 0x79); }
void vcvtpd2udq(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0x79); }
void vcvtpd2uqq(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0x79); }
void vcvtps2qq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_ER_Y, 0x7B); }
void vcvtph2dq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_66 | T_MAP5 | T_EW0 | T_YMM | T_ER_Y | T_MUST_EVEX | T_B16, 0x5B); }
void vcvtph2pd(const Xmm& x, const Operand& op) { if (!op.isXMM() && !op.isMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(x, 0, op, T_N4 | T_N_VL | T_MAP5 | T_EW0 | T_YMM | T_SAE_X | T_MUST_EVEX | T_B16, 0x5A); }
void vcvtph2psx(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_66 | T_MAP6 | T_EW0 | T_YMM | T_SAE_Y | T_MUST_EVEX | T_B16, 0x13); }
void vcvtph2qq(const Xmm& x, const Operand& op) { if (!op.isXMM() && !op.isMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(x, 0, op, T_N4 | T_N_VL | T_66 | T_MAP5 | T_EW0 | T_YMM | T_ER_X | T_MUST_EVEX | T_B16, 0x7B); }
void vcvtph2udq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_MAP5 | T_EW0 | T_YMM | T_ER_Y | T_MUST_EVEX | T_B16, 0x79); }
void vcvtph2uqq(const Xmm& x, const Operand& op) { if (!op.isXMM() && !op.isMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(x, 0, op, T_N4 | T_N_VL | T_66 | T_MAP5 | T_EW0 | T_YMM | T_ER_X | T_MUST_EVEX | T_B16, 0x79); }
void vcvtph2uw(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_MAP5 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x7D); }
void vcvtph2w(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_MAP5 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x7D); }
void vcvtps2phx(const Xmm& x, const Operand& op) { checkCvt4(x, op); opCvt(x, op, T_N16 | T_N_VL | T_66 | T_MAP5 | T_EW0 | T_ER_Z | T_MUST_EVEX | T_B32, 0x1D); }
void vcvtps2qq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_66 | T_0F | T_EW0 | T_YMM | T_ER_Y | T_MUST_EVEX | T_B32, 0x7B); }
void vcvtps2udq(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_0F | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0x79); }
void vcvtps2uqq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_ER_Y, 0x79); }
void vcvtps2uqq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_66 | T_0F | T_EW0 | T_YMM | T_ER_Y | T_MUST_EVEX | T_B32, 0x79); }
void vcvtqq2pd(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_F3 | T_0F | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0xE6); }
void vcvtqq2ps(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 0x5B); }
void vcvtsd2usi(const Reg32e& r, const Operand& op) { int type = (T_F2 | T_0F | T_MUST_EVEX | T_N8 | T_ER_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x79); }
void vcvtss2usi(const Reg32e& r, const Operand& op) { int type = (T_F3 | T_0F | T_MUST_EVEX | T_N4 | T_ER_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x79); }
void vcvtqq2ph(const Xmm& x, const Operand& op) { opCvt5(x, op, T_N16 | T_N_VL | T_MAP5 | T_EW1 | T_ER_Z | T_MUST_EVEX | T_B64, 0x5B); }
void vcvtqq2ps(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0x5B); }
void vcvtsd2sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_F2 | T_MAP5 | T_EW1 | T_ER_X | T_MUST_EVEX, 0x5A); }
void vcvtsd2usi(const Reg32e& r, const Operand& op) { int type = (T_N8 | T_F2 | T_0F | T_ER_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x79); }
void vcvtsh2sd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_F3 | T_MAP5 | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x5A); }
void vcvtsh2si(const Reg32e& r, const Operand& op) { int type = (T_N2 | T_F3 | T_MAP5 | T_ER_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x2D); }
void vcvtsh2ss(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_MAP6 | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x13); }
void vcvtsh2usi(const Reg32e& r, const Operand& op) { int type = (T_N2 | T_F3 | T_MAP5 | T_ER_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x79); }
void vcvtsi2sh(const Xmm& x1, const Xmm& x2, const Operand& op) { if (!(x1.isXMM() && x2.isXMM() && op.isBit(32|64))) XBYAK_THROW(ERR_BAD_COMBINATION) int type = (T_F3 | T_MAP5 | T_ER_R | T_MUST_EVEX | T_M_K) | (op.isBit(32) ? (T_EW0 | T_N4) : (T_EW1 | T_N8)); opVex(x1, &x2, op, type, 0x2A); }
void vcvtss2sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_MAP5 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x1D); }
void vcvtss2usi(const Reg32e& r, const Operand& op) { int type = (T_N4 | T_F3 | T_0F | T_ER_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x79); }
void vcvttpd2qq(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x7A); }
void vcvttpd2udq(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_SAE_Z, 0x78); }
void vcvttpd2udq(const Xmm& x, const Operand& op) { opCvt2(x, op, T_0F | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x78); }
void vcvttpd2uqq(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x78); }
void vcvttps2qq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_SAE_Y, 0x7A); }
void vcvttph2dq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_F3 | T_MAP5 | T_EW0 | T_YMM | T_SAE_Y | T_MUST_EVEX | T_B16, 0x5B); }
void vcvttph2qq(const Xmm& x, const Operand& op) { if (!op.isXMM() && !op.isMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(x, 0, op, T_N4 | T_N_VL | T_66 | T_MAP5 | T_EW0 | T_YMM | T_SAE_X | T_MUST_EVEX | T_B16, 0x7A); }
void vcvttph2udq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_MAP5 | T_EW0 | T_YMM | T_SAE_Y | T_MUST_EVEX | T_B16, 0x78); }
void vcvttph2uqq(const Xmm& x, const Operand& op) { if (!op.isXMM() && !op.isMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(x, 0, op, T_N4 | T_N_VL | T_66 | T_MAP5 | T_EW0 | T_YMM | T_SAE_X | T_MUST_EVEX | T_B16, 0x78); }
void vcvttph2uw(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_MAP5 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B16, 0x7C); }
void vcvttph2w(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_MAP5 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B16, 0x7C); }
void vcvttps2qq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_66 | T_0F | T_EW0 | T_YMM | T_SAE_Y | T_MUST_EVEX | T_B32, 0x7A); }
void vcvttps2udq(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_0F | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x78); }
void vcvttps2uqq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_66 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL | T_SAE_Y, 0x78); }
void vcvttsd2usi(const Reg32e& r, const Operand& op) { int type = (T_F2 | T_0F | T_MUST_EVEX | T_N8 | T_SAE_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x78); }
void vcvttss2usi(const Reg32e& r, const Operand& op) { int type = (T_F3 | T_0F | T_MUST_EVEX | T_N4 | T_SAE_X) | (r.isREG(64) ? T_EW1 : T_EW0); opAVX_X_X_XM(Xmm(r.getIdx()), xm0, op, type, 0x78); }
void vcvtudq2pd(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_F3 | T_0F | T_YMM | T_MUST_EVEX | T_EW0 | T_B32 | T_N8 | T_N_VL, 0x7A); }
void vcvttps2uqq(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_66 | T_0F | T_EW0 | T_YMM | T_SAE_Y | T_MUST_EVEX | T_B32, 0x78); }
void vcvttsd2usi(const Reg32e& r, const Operand& op) { int type = (T_N8 | T_F2 | T_0F | T_SAE_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x78); }
void vcvttsh2si(const Reg32e& r, const Operand& op) { int type = (T_N2 | T_F3 | T_MAP5 | T_EW0 | T_SAE_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x2C); }
void vcvttsh2usi(const Reg32e& r, const Operand& op) { int type = (T_N2 | T_F3 | T_MAP5 | T_EW0 | T_SAE_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x78); }
void vcvttss2usi(const Reg32e& r, const Operand& op) { int type = (T_N4 | T_F3 | T_0F | T_SAE_X | T_MUST_EVEX) | (r.isREG(64) ? T_EW1 : T_EW0); opVex(r, &xm0, op, type, 0x78); }
void vcvtudq2pd(const Xmm& x, const Operand& op) { checkCvt1(x, op); opVex(x, 0, op, T_N8 | T_N_VL | T_F3 | T_0F | T_EW0 | T_YMM | T_MUST_EVEX | T_B32, 0x7A); }
void vcvtudq2ph(const Xmm& x, const Operand& op) { checkCvt4(x, op); opCvt(x, op, T_N16 | T_N_VL | T_F2 | T_MAP5 | T_EW0 | T_ER_Z | T_MUST_EVEX | T_B32, 0x7A); }
void vcvtudq2ps(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_F2 | T_0F | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0x7A); }
void vcvtuqq2pd(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_F3 | T_0F | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0x7A); }
void vcvtuqq2ps(const Xmm& x, const Operand& op) { opCvt2(x, op, T_F2 | T_0F | T_YMM | T_MUST_EVEX | T_EW1 | T_B64 | T_ER_Z, 0x7A); }
void vcvtuqq2ph(const Xmm& x, const Operand& op) { opCvt5(x, op, T_N16 | T_N_VL | T_F2 | T_MAP5 | T_EW1 | T_ER_Z | T_MUST_EVEX | T_B64, 0x7A); }
void vcvtuqq2ps(const Xmm& x, const Operand& op) { opCvt2(x, op, T_F2 | T_0F | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0x7A); }
void vcvtusi2sd(const Xmm& x1, const Xmm& x2, const Operand& op) { opCvt3(x1, x2, op, T_F2 | T_0F | T_MUST_EVEX, T_W1 | T_EW1 | T_ER_X | T_N8, T_W0 | T_EW0 | T_N4, 0x7B); }
void vcvtusi2sh(const Xmm& x1, const Xmm& x2, const Operand& op) { if (!(x1.isXMM() && x2.isXMM() && op.isBit(32|64))) XBYAK_THROW(ERR_BAD_COMBINATION) int type = (T_F3 | T_MAP5 | T_ER_R | T_MUST_EVEX | T_M_K) | (op.isBit(32) ? (T_EW0 | T_N4) : (T_EW1 | T_N8)); opVex(x1, &x2, op, type, 0x7B); }
void vcvtusi2ss(const Xmm& x1, const Xmm& x2, const Operand& op) { opCvt3(x1, x2, op, T_F3 | T_0F | T_MUST_EVEX | T_ER_X, T_W1 | T_EW1 | T_N8, T_W0 | T_EW0 | T_N4, 0x7B); }
void vcvtuw2ph(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_F2 | T_MAP5 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x7D); }
void vcvtw2ph(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_F3 | T_MAP5 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x7D); }
void vdbpsadbw(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_EW0 | T_YMM | T_MUST_EVEX, 0x42, imm); }
void vdivph(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_EW0 | T_YMM | T_MUST_EVEX | T_ER_Z | T_B16, 0x5E); }
void vdivsh(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_F3 | T_EW0 | T_MUST_EVEX | T_ER_X | T_N2, 0x5E); }
void vdpbf16ps(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_F3 | T_0F38 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x52); }
void vexp2pd(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 | T_0F38 | T_MUST_EVEX | T_YMM | T_EW1 | T_B64 | T_SAE_Z, 0xC8); }
void vexp2ps(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 | T_0F38 | T_MUST_EVEX | T_YMM | T_EW0 | T_B32 | T_SAE_Z, 0xC8); }
@ -1801,13 +1979,49 @@ void vextracti32x4(const Operand& op, const Ymm& r, uint8_t imm) { if (!op.is(Op
void vextracti32x8(const Operand& op, const Zmm& r, uint8_t imm) { if (!op.is(Operand::MEM | Operand::YMM)) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r, 0, op, T_N32 | T_66 | T_0F3A | T_EW0 | T_YMM | T_MUST_EVEX, 0x3B, imm); }
void vextracti64x2(const Operand& op, const Ymm& r, uint8_t imm) { if (!op.is(Operand::MEM | Operand::XMM)) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r, 0, op, T_N16 | T_66 | T_0F3A | T_EW1 | T_YMM | T_MUST_EVEX, 0x39, imm); }
void vextracti64x4(const Operand& op, const Zmm& r, uint8_t imm) { if (!op.is(Operand::MEM | Operand::YMM)) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r, 0, op, T_N32 | T_66 | T_0F3A | T_EW1 | T_YMM | T_MUST_EVEX, 0x3B, imm); }
void vfcmaddcph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_F2 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0x56); }
void vfcmulcph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_F2 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0xD6); }
void vfixupimmpd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x54, imm); }
void vfixupimmps(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x54, imm); }
void vfixupimmsd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F3A | T_EW1 | T_SAE_Z | T_MUST_EVEX, 0x55, imm); }
void vfixupimmss(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F3A | T_EW0 | T_SAE_Z | T_MUST_EVEX, 0x55, imm); }
void vfmadd132ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x98); }
void vfmadd132sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x99); }
void vfmadd213ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xA8); }
void vfmadd213sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xA9); }
void vfmadd231ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xB8); }
void vfmadd231sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xB9); }
void vfmaddcph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_F3 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0x56); }
void vfmaddsub132ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x96); }
void vfmaddsub213ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xA6); }
void vfmaddsub231ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xB6); }
void vfmsub132ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x9A); }
void vfmsub132sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x9B); }
void vfmsub213ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xAA); }
void vfmsub213sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xAB); }
void vfmsub231ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xBA); }
void vfmsub231sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xBB); }
void vfmsubadd132ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x97); }
void vfmsubadd213ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xA7); }
void vfmsubadd231ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xB7); }
void vfmulcph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_F3 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0xD6); }
void vfnmadd132ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x9C); }
void vfnmadd132sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x9D); }
void vfnmadd213ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xAC); }
void vfnmadd213sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xAD); }
void vfnmadd231ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xBC); }
void vfnmadd231sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xBD); }
void vfnmsub132ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x9E); }
void vfnmsub132sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x9F); }
void vfnmsub213ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xAE); }
void vfnmsub213sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xAF); }
void vfnmsub231ph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0xBE); }
void vfnmsub231sh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0xBF); }
void vfpclasspd(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isBit(128|256|512)) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k.changeBit(op.getBit()), 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_YMM | T_EW1 | T_B64, 0x66, imm); }
void vfpclassph(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isBit(128|256|512)) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k.changeBit(op.getBit()), 0, op, T_0F3A | T_MUST_EVEX | T_YMM | T_EW0 | T_B16, 0x66, imm); }
void vfpclassps(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isBit(128|256|512)) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k.changeBit(op.getBit()), 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_YMM | T_EW0 | T_B32, 0x66, imm); }
void vfpclasssd(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isXMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k, 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_EW1 | T_N8, 0x67, imm); }
void vfpclasssh(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isXMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k, 0, op, T_0F3A | T_MUST_EVEX | T_EW0 | T_N2, 0x67, imm); }
void vfpclassss(const Opmask& k, const Operand& op, uint8_t imm) { if (!op.isXMEM()) XBYAK_THROW(ERR_BAD_MEM_SIZE) opVex(k, 0, op, T_66 | T_0F3A | T_MUST_EVEX | T_EW0 | T_N4, 0x67, imm); }
void vgatherdpd(const Xmm& x, const Address& addr) { opGather2(x, addr, T_N8 | T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX | T_VSIB, 0x92, 1); }
void vgatherdps(const Xmm& x, const Address& addr) { opGather2(x, addr, T_N4 | T_66 | T_0F38 | T_EW0 | T_YMM | T_MUST_EVEX | T_VSIB, 0x92, 0); }
@ -1822,12 +2036,16 @@ void vgatherpf1qps(const Address& addr) { opGatherFetch(addr, zm2, T_N4 | T_66 |
void vgatherqpd(const Xmm& x, const Address& addr) { opGather2(x, addr, T_N8 | T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX | T_VSIB, 0x93, 0); }
void vgatherqps(const Xmm& x, const Address& addr) { opGather2(x, addr, T_N4 | T_66 | T_0F38 | T_EW0 | T_YMM | T_MUST_EVEX | T_VSIB, 0x93, 2); }
void vgetexppd(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F38 | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x42); }
void vgetexpph(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B16, 0x42); }
void vgetexpps(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F38 | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x42); }
void vgetexpsd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F38 | T_EW1 | T_SAE_X | T_MUST_EVEX, 0x43); }
void vgetexpsh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x43); }
void vgetexpss(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F38 | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x43); }
void vgetmantpd(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x26, imm); }
void vgetmantph(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B16, 0x26, imm); }
void vgetmantps(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x26, imm); }
void vgetmantsd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F3A | T_EW1 | T_SAE_X | T_MUST_EVEX, 0x27, imm); }
void vgetmantsh(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_0F3A | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x27, imm); }
void vgetmantss(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F3A | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x27, imm); }
void vinsertf32x4(const Ymm& r1, const Ymm& r2, const Operand& op, uint8_t imm) {if (!(r1.getKind() == r2.getKind() && op.is(Operand::MEM | Operand::XMM))) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r1, &r2, op, T_N16 | T_66 | T_0F3A | T_EW0 | T_YMM | T_MUST_EVEX, 0x18, imm); }
void vinsertf32x8(const Zmm& r1, const Zmm& r2, const Operand& op, uint8_t imm) {if (!op.is(Operand::MEM | Operand::YMM)) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r1, &r2, op, T_N32 | T_66 | T_0F3A | T_EW0 | T_YMM | T_MUST_EVEX, 0x1A, imm); }
@ -1837,6 +2055,10 @@ void vinserti32x4(const Ymm& r1, const Ymm& r2, const Operand& op, uint8_t imm)
void vinserti32x8(const Zmm& r1, const Zmm& r2, const Operand& op, uint8_t imm) {if (!op.is(Operand::MEM | Operand::YMM)) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r1, &r2, op, T_N32 | T_66 | T_0F3A | T_EW0 | T_YMM | T_MUST_EVEX, 0x3A, imm); }
void vinserti64x2(const Ymm& r1, const Ymm& r2, const Operand& op, uint8_t imm) {if (!(r1.getKind() == r2.getKind() && op.is(Operand::MEM | Operand::XMM))) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r1, &r2, op, T_N16 | T_66 | T_0F3A | T_EW1 | T_YMM | T_MUST_EVEX, 0x38, imm); }
void vinserti64x4(const Zmm& r1, const Zmm& r2, const Operand& op, uint8_t imm) {if (!op.is(Operand::MEM | Operand::YMM)) XBYAK_THROW(ERR_BAD_COMBINATION) opVex(r1, &r2, op, T_N32 | T_66 | T_0F3A | T_EW1 | T_YMM | T_MUST_EVEX, 0x3A, imm); }
void vmaxph(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_EW0 | T_YMM | T_MUST_EVEX | T_ER_Z | T_B16, 0x5F); }
void vmaxsh(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_F3 | T_EW0 | T_MUST_EVEX | T_ER_X | T_N2, 0x5F); }
void vminph(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_EW0 | T_YMM | T_MUST_EVEX | T_ER_Z | T_B16, 0x5D); }
void vminsh(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_F3 | T_EW0 | T_MUST_EVEX | T_ER_X | T_N2, 0x5D); }
void vmovdqa32(const Address& addr, const Xmm& x) { opAVX_X_XM_IMM(x, addr, T_66 | T_0F | T_EW0 | T_YMM | T_ER_X | T_ER_Y | T_ER_Z | T_MUST_EVEX | T_M_K, 0x7F); }
void vmovdqa32(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F | T_EW0 | T_YMM | T_ER_X | T_ER_Y | T_ER_Z | T_MUST_EVEX, 0x6F); }
void vmovdqa64(const Address& addr, const Xmm& x) { opAVX_X_XM_IMM(x, addr, T_66 | T_0F | T_EW1 | T_YMM | T_ER_X | T_ER_Y | T_ER_Z | T_MUST_EVEX | T_M_K, 0x7F); }
@ -1849,6 +2071,14 @@ void vmovdqu64(const Address& addr, const Xmm& x) { opAVX_X_XM_IMM(x, addr, T_F3
void vmovdqu64(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_F3 | T_0F | T_EW1 | T_YMM | T_ER_X | T_ER_Y | T_ER_Z | T_MUST_EVEX, 0x6F); }
void vmovdqu8(const Address& addr, const Xmm& x) { opAVX_X_XM_IMM(x, addr, T_F2 | T_0F | T_EW0 | T_YMM | T_ER_X | T_ER_Y | T_ER_Z | T_MUST_EVEX | T_M_K, 0x7F); }
void vmovdqu8(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_F2 | T_0F | T_EW0 | T_YMM | T_ER_X | T_ER_Y | T_ER_Z | T_MUST_EVEX, 0x6F); }
void vmovsh(const Address& addr, const Xmm& x) { opAVX_X_XM_IMM(x, addr, T_N2 | T_F3 | T_MAP5 | T_EW0 | T_MUST_EVEX | T_M_K, 0x11); }
void vmovsh(const Xmm& x, const Address& addr) { opAVX_X_X_XM(x, xm0, addr, T_N2 | T_F3 | T_MAP5 | T_EW0 | T_MUST_EVEX, 0x10); }
void vmovsh(const Xmm& x1, const Xmm& x2, const Xmm& x3) { opAVX_X_X_XM(x1, x2, x3, T_N2 | T_F3 | T_MAP5 | T_EW0 | T_MUST_EVEX, 0x10); }
void vmovw(const Address& addr, const Xmm& x) { opAVX_X_XM_IMM(x, addr, T_N2 | T_66 | T_MAP5 | T_MUST_EVEX, 0x7E); }
void vmovw(const Reg32e& r, const Xmm& x) { opAVX_X_X_XM(x, xm0, r, T_N2 | T_66 | T_MAP5 | T_MUST_EVEX, 0x7E); }
void vmovw(const Xmm& x, const Operand& op) { if (!op.isREG(32|64) && !op.isMEM()) XBYAK_THROW(ERR_BAD_COMBINATION) opAVX_X_X_XM(x, xm0, op, T_N2 | T_66 | T_MAP5 | T_MUST_EVEX, 0x6E); }
void vmulph(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_EW0 | T_YMM | T_MUST_EVEX | T_ER_Z | T_B16, 0x59); }
void vmulsh(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_F3 | T_EW0 | T_MUST_EVEX | T_ER_X | T_N2, 0x59); }
void vp2intersectd(const Opmask& k, const Xmm& x, const Operand& op) { if (k.getOpmaskIdx() != 0) XBYAK_THROW(ERR_OPMASK_IS_ALREADY_SET) opAVX_K_X_XM(k, x, op, T_F2 | T_0F38 | T_YMM | T_EVEX | T_EW0 | T_B32, 0x68); }
void vp2intersectq(const Opmask& k, const Xmm& x, const Operand& op) { if (k.getOpmaskIdx() != 0) XBYAK_THROW(ERR_OPMASK_IS_ALREADY_SET) opAVX_K_X_XM(k, x, op, T_F2 | T_0F38 | T_YMM | T_EVEX | T_EW1 | T_B64, 0x68); }
void vp4dpwssd(const Zmm& z1, const Zmm& z2, const Address& addr) { opAVX_X_X_XM(z1, z2, addr, T_0F38 | T_F2 | T_EW0 | T_YMM | T_MUST_EVEX | T_N16, 0x52); }
@ -2006,14 +2236,20 @@ void vrcp28pd(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 | T_
void vrcp28ps(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 | T_0F38 | T_MUST_EVEX | T_YMM | T_EW0 | T_B32 | T_SAE_Z, 0xCA); }
void vrcp28sd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F38 | T_EW1 | T_SAE_X | T_MUST_EVEX, 0xCB); }
void vrcp28ss(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F38 | T_EW0 | T_SAE_X | T_MUST_EVEX, 0xCB); }
void vrcpph(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_MUST_EVEX | T_B16, 0x4C); }
void vrcpsh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_MUST_EVEX, 0x4D); }
void vreducepd(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x56, imm); }
void vreduceph(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B16, 0x56, imm); }
void vreduceps(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x56, imm); }
void vreducesd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F3A | T_EW1 | T_SAE_X | T_MUST_EVEX, 0x57, imm); }
void vreducesh(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_0F3A | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x57, imm); }
void vreducess(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F3A | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x57, imm); }
void vrndscalepd(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW1 | T_YMM | T_MUST_EVEX | T_B64, 0x09, imm); }
void vrndscaleps(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW0 | T_YMM | T_MUST_EVEX | T_B32, 0x08, imm); }
void vrndscalesd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F3A | T_EW1 | T_MUST_EVEX, 0x0B, imm); }
void vrndscaless(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F3A | T_EW0 | T_MUST_EVEX, 0x0A, imm); }
void vrndscalepd(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW1 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B64, 0x09, imm); }
void vrndscaleph(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B16, 0x08, imm); }
void vrndscaleps(const Xmm& x, const Operand& op, uint8_t imm) { opAVX_X_XM_IMM(x, op, T_66 | T_0F3A | T_EW0 | T_YMM | T_SAE_Z | T_MUST_EVEX | T_B32, 0x08, imm); }
void vrndscalesd(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F3A | T_EW1 | T_SAE_X | T_MUST_EVEX, 0x0B, imm); }
void vrndscalesh(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_0F3A | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x0A, imm); }
void vrndscaless(const Xmm& x1, const Xmm& x2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F3A | T_EW0 | T_SAE_X | T_MUST_EVEX, 0x0A, imm); }
void vrsqrt14pd(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX | T_B64, 0x4E); }
void vrsqrt14ps(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_0F38 | T_EW0 | T_YMM | T_MUST_EVEX | T_B32, 0x4E); }
void vrsqrt14sd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX, 0x4F); }
@ -2022,9 +2258,13 @@ void vrsqrt28pd(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 |
void vrsqrt28ps(const Zmm& z, const Operand& op) { opAVX_X_XM_IMM(z, op, T_66 | T_0F38 | T_MUST_EVEX | T_YMM | T_EW0 | T_B32 | T_SAE_Z, 0xCC); }
void vrsqrt28sd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F38 | T_EW1 | T_SAE_X | T_MUST_EVEX, 0xCD); }
void vrsqrt28ss(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F38 | T_EW0 | T_SAE_X | T_MUST_EVEX, 0xCD); }
void vrsqrtph(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_MUST_EVEX | T_B16, 0x4E); }
void vrsqrtsh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_MUST_EVEX, 0x4F); }
void vscalefpd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F38 | T_EW1 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B64, 0x2C); }
void vscalefph(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_MAP6 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x2C); }
void vscalefps(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_66 | T_0F38 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B32, 0x2C); }
void vscalefsd(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N8 | T_66 | T_0F38 | T_EW1 | T_ER_X | T_MUST_EVEX, 0x2D); }
void vscalefsh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_66 | T_MAP6 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x2D); }
void vscalefss(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N4 | T_66 | T_0F38 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x2D); }
void vscatterdpd(const Address& addr, const Xmm& x) { opGather2(x, addr, T_N8 | T_66 | T_0F38 | T_EW1 | T_YMM | T_MUST_EVEX | T_M_K | T_VSIB, 0xA2, 1); }
void vscatterdps(const Address& addr, const Xmm& x) { opGather2(x, addr, T_N4 | T_66 | T_0F38 | T_EW0 | T_YMM | T_MUST_EVEX | T_M_K | T_VSIB, 0xA2, 0); }
@ -2042,6 +2282,11 @@ void vshuff32x4(const Ymm& y1, const Ymm& y2, const Operand& op, uint8_t imm) {
void vshuff64x2(const Ymm& y1, const Ymm& y2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(y1, y2, op, T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, 0x23, imm); }
void vshufi32x4(const Ymm& y1, const Ymm& y2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(y1, y2, op, T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW0 | T_B32, 0x43, imm); }
void vshufi64x2(const Ymm& y1, const Ymm& y2, const Operand& op, uint8_t imm) { opAVX_X_X_XM(y1, y2, op, T_66 | T_0F3A | T_YMM | T_MUST_EVEX | T_EW1 | T_B64, 0x43, imm); }
void vsqrtph(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_MAP5 | T_EW0 | T_YMM | T_ER_Z | T_MUST_EVEX | T_B16, 0x51); }
void vsqrtsh(const Xmm& x1, const Xmm& x2, const Operand& op) { opAVX_X_X_XM(x1, x2, op, T_N2 | T_F3 | T_MAP5 | T_EW0 | T_ER_X | T_MUST_EVEX, 0x51); }
void vsubph(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_EW0 | T_YMM | T_MUST_EVEX | T_ER_Z | T_B16, 0x5C); }
void vsubsh(const Xmm& xmm, const Operand& op1, const Operand& op2 = Operand()) { opAVX_X_X_XM(xmm, op1, op2, T_MAP5 | T_F3 | T_EW0 | T_MUST_EVEX | T_ER_X | T_N2, 0x5C); }
void vucomish(const Xmm& x, const Operand& op) { opAVX_X_XM_IMM(x, op, T_MAP5 | T_MUST_EVEX | T_EW0 | T_SAE_X | T_N2, 0x2E); }
#ifdef XBYAK64
void kmovq(const Opmask& k, const Reg64& r) { opVex(k, 0, r, T_L0 | T_0F | T_F2 | T_W1, 0x92); }
void kmovq(const Reg64& r, const Opmask& k) { opVex(r, 0, k, T_L0 | T_0F | T_F2 | T_W1, 0x93); }

314
externals/dynarmic/externals/xbyak/xbyak/xbyak_util.h vendored
View File

@ -17,7 +17,6 @@
utility class and functions for Xbyak
Xbyak::util::Clock ; rdtsc timer
Xbyak::util::Cpu ; detect CPU
@note this header is UNDER CONSTRUCTION!
*/
#include "xbyak.h"
#endif // XBYAK_ONLY_CLASS_CPU
@ -27,8 +26,8 @@
#endif
#ifdef XBYAK_INTEL_CPU_SPECIFIC
#ifdef _MSC_VER
#if (_MSC_VER < 1400) && defined(XBYAK32)
#ifdef _WIN32
#if defined(_MSC_VER) && (_MSC_VER < 1400) && defined(XBYAK32)
static inline __declspec(naked) void __cpuid(int[4], int)
{
__asm {
@ -88,32 +87,64 @@ typedef enum {
CoreLevel = 2
} IntelCpuTopologyLevel;
namespace local {
template<uint64_t L, uint64_t H = 0>
struct TypeT {
};
template<uint64_t L1, uint64_t H1, uint64_t L2, uint64_t H2>
TypeT<L1 | L2, H1 | H2> operator|(TypeT<L1, H1>, TypeT<L2, H2>) { return TypeT<L1 | L2, H1 | H2>(); }
} // local
/**
CPU detection class
@note static inline const member is supported by c++17 or later, so use template hack
*/
class Cpu {
uint64_t type_;
public:
class Type {
uint64_t L;
uint64_t H;
public:
Type(uint64_t L = 0, uint64_t H = 0) : L(L), H(H) { }
template<uint64_t L_, uint64_t H_>
Type(local::TypeT<L_, H_>) : L(L_), H(H_) {}
Type& operator&=(const Type& rhs) { L &= rhs.L; H &= rhs.H; return *this; }
Type& operator|=(const Type& rhs) { L |= rhs.L; H |= rhs.H; return *this; }
Type operator&(const Type& rhs) const { Type t = *this; t &= rhs; return t; }
Type operator|(const Type& rhs) const { Type t = *this; t |= rhs; return t; }
bool operator==(const Type& rhs) const { return H == rhs.H && L == rhs.L; }
bool operator!=(const Type& rhs) const { return !operator==(rhs); }
// without explicit because backward compatilibity
operator bool() const { return (H | L) != 0; }
uint64_t getL() const { return L; }
uint64_t getH() const { return H; }
};
private:
Type type_;
//system topology
bool x2APIC_supported_;
static const size_t maxTopologyLevels = 2;
unsigned int numCores_[maxTopologyLevels];
uint32_t numCores_[maxTopologyLevels];
static const unsigned int maxNumberCacheLevels = 10;
unsigned int dataCacheSize_[maxNumberCacheLevels];
unsigned int coresSharignDataCache_[maxNumberCacheLevels];
unsigned int dataCacheLevels_;
static const uint32_t maxNumberCacheLevels = 10;
uint32_t dataCacheSize_[maxNumberCacheLevels];
uint32_t coresSharignDataCache_[maxNumberCacheLevels];
uint32_t dataCacheLevels_;
unsigned int get32bitAsBE(const char *x) const
uint32_t get32bitAsBE(const char *x) const
{
return x[0] | (x[1] << 8) | (x[2] << 16) | (x[3] << 24);
}
unsigned int mask(int n) const
uint32_t mask(int n) const
{
return (1U << n) - 1;
}
void setFamily()
{
unsigned int data[4] = {};
uint32_t data[4] = {};
getCpuid(1, data);
stepping = data[0] & mask(4);
model = (data[0] >> 4) & mask(4);
@ -132,15 +163,15 @@ class Cpu {
displayModel = model;
}
}
unsigned int extractBit(unsigned int val, unsigned int base, unsigned int end)
uint32_t extractBit(uint32_t val, uint32_t base, uint32_t end)
{
return (val >> base) & ((1u << (end - base)) - 1);
}
void setNumCores()
{
if ((type_ & tINTEL) == 0) return;
if (!has(tINTEL)) return;
unsigned int data[4] = {};
uint32_t data[4] = {};
/* CAUTION: These numbers are configuration as shipped by Intel. */
getCpuidEx(0x0, 0, data);
@ -152,7 +183,7 @@ class Cpu {
leaf 0xB can be zeroed-out by a hypervisor
*/
x2APIC_supported_ = true;
for (unsigned int i = 0; i < maxTopologyLevels; i++) {
for (uint32_t i = 0; i < maxTopologyLevels; i++) {
getCpuidEx(0xB, i, data);
IntelCpuTopologyLevel level = (IntelCpuTopologyLevel)extractBit(data[2], 8, 15);
if (level == SmtLevel || level == CoreLevel) {
@ -176,14 +207,14 @@ class Cpu {
}
void setCacheHierarchy()
{
if ((type_ & tINTEL) == 0) return;
const unsigned int NO_CACHE = 0;
const unsigned int DATA_CACHE = 1;
// const unsigned int INSTRUCTION_CACHE = 2;
const unsigned int UNIFIED_CACHE = 3;
unsigned int smt_width = 0;
unsigned int logical_cores = 0;
unsigned int data[4] = {};
if (!has(tINTEL)) return;
const uint32_t NO_CACHE = 0;
const uint32_t DATA_CACHE = 1;
// const uint32_t INSTRUCTION_CACHE = 2;
const uint32_t UNIFIED_CACHE = 3;
uint32_t smt_width = 0;
uint32_t logical_cores = 0;
uint32_t data[4] = {};
if (x2APIC_supported_) {
smt_width = numCores_[0];
@ -201,10 +232,10 @@ class Cpu {
*/
for (int i = 0; dataCacheLevels_ < maxNumberCacheLevels; i++) {
getCpuidEx(0x4, i, data);
unsigned int cacheType = extractBit(data[0], 0, 4);
uint32_t cacheType = extractBit(data[0], 0, 4);
if (cacheType == NO_CACHE) break;
if (cacheType == DATA_CACHE || cacheType == UNIFIED_CACHE) {
unsigned int actual_logical_cores = extractBit(data[0], 14, 25) + 1;
uint32_t actual_logical_cores = extractBit(data[0], 14, 25) + 1;
if (logical_cores != 0) { // true only if leaf 0xB is supported and valid
actual_logical_cores = (std::min)(actual_logical_cores, logical_cores);
}
@ -231,7 +262,7 @@ public:
int displayFamily; // family + extFamily
int displayModel; // model + extModel
unsigned int getNumCores(IntelCpuTopologyLevel level) const {
uint32_t getNumCores(IntelCpuTopologyLevel level) const {
if (!x2APIC_supported_) XBYAK_THROW_RET(ERR_X2APIC_IS_NOT_SUPPORTED, 0)
switch (level) {
case SmtLevel: return numCores_[level - 1];
@ -240,13 +271,13 @@ public:
}
}
unsigned int getDataCacheLevels() const { return dataCacheLevels_; }
unsigned int getCoresSharingDataCache(unsigned int i) const
uint32_t getDataCacheLevels() const { return dataCacheLevels_; }
uint32_t getCoresSharingDataCache(uint32_t i) const
{
if (i >= dataCacheLevels_) XBYAK_THROW_RET(ERR_BAD_PARAMETER, 0)
return coresSharignDataCache_[i];
}
unsigned int getDataCacheSize(unsigned int i) const
uint32_t getDataCacheSize(uint32_t i) const
{
if (i >= dataCacheLevels_) XBYAK_THROW_RET(ERR_BAD_PARAMETER, 0)
return dataCacheSize_[i];
@ -255,10 +286,10 @@ public:
/*
data[] = { eax, ebx, ecx, edx }
*/
static inline void getCpuid(unsigned int eaxIn, unsigned int data[4])
static inline void getCpuid(uint32_t eaxIn, uint32_t data[4])
{
#ifdef XBYAK_INTEL_CPU_SPECIFIC
#ifdef _MSC_VER
#ifdef _WIN32
__cpuid(reinterpret_cast<int*>(data), eaxIn);
#else
__cpuid(eaxIn, data[0], data[1], data[2], data[3]);
@ -268,7 +299,7 @@ public:
(void)data;
#endif
}
static inline void getCpuidEx(unsigned int eaxIn, unsigned int ecxIn, unsigned int data[4])
static inline void getCpuidEx(uint32_t eaxIn, uint32_t ecxIn, uint32_t data[4])
{
#ifdef XBYAK_INTEL_CPU_SPECIFIC
#ifdef _MSC_VER
@ -288,7 +319,7 @@ public:
#ifdef _MSC_VER
return _xgetbv(0);
#else
unsigned int eax, edx;
uint32_t eax, edx;
// xgetvb is not support on gcc 4.2
// __asm__ volatile("xgetbv" : "=a"(eax), "=d"(edx) : "c"(0));
__asm__ volatile(".byte 0x0f, 0x01, 0xd0" : "=a"(eax), "=d"(edx) : "c"(0));
@ -298,93 +329,102 @@ public:
return 0;
#endif
}
typedef uint64_t Type;
static const Type NONE = 0;
static const Type tMMX = 1 << 0;
static const Type tMMX2 = 1 << 1;
static const Type tCMOV = 1 << 2;
static const Type tSSE = 1 << 3;
static const Type tSSE2 = 1 << 4;
static const Type tSSE3 = 1 << 5;
static const Type tSSSE3 = 1 << 6;
static const Type tSSE41 = 1 << 7;
static const Type tSSE42 = 1 << 8;
static const Type tPOPCNT = 1 << 9;
static const Type tAESNI = 1 << 10;
static const Type tSSE5 = 1 << 11;
static const Type tOSXSAVE = 1 << 12;
static const Type tPCLMULQDQ = 1 << 13;
static const Type tAVX = 1 << 14;
static const Type tFMA = 1 << 15;
#define XBYAK_SPLIT_ID(id) ((0 <= id && id < 64) ? (1ull << (id % 64)) : 0), (id >= 64 ? (1ull << (id % 64)) : 0)
#if (__cplusplus >= 201103) || (defined(_MSC_VER) && (_MSC_VER >= 1700)) /* VS2012 */
#define XBYAK_DEFINE_TYPE(id, NAME) static const constexpr local::TypeT<XBYAK_SPLIT_ID(id)> NAME{}
#else
#define XBYAK_DEFINE_TYPE(id, NAME) static const local::TypeT<XBYAK_SPLIT_ID(id)> NAME
#endif
XBYAK_DEFINE_TYPE(0, tMMX);
XBYAK_DEFINE_TYPE(1, tMMX2);
XBYAK_DEFINE_TYPE(2, tCMOV);
XBYAK_DEFINE_TYPE(3, tSSE);
XBYAK_DEFINE_TYPE(4, tSSE2);
XBYAK_DEFINE_TYPE(5, tSSE3);
XBYAK_DEFINE_TYPE(6, tSSSE3);
XBYAK_DEFINE_TYPE(7, tSSE41);
XBYAK_DEFINE_TYPE(8, tSSE42);
XBYAK_DEFINE_TYPE(9, tPOPCNT);
XBYAK_DEFINE_TYPE(10, tAESNI);
XBYAK_DEFINE_TYPE(11, tAVX512_FP16);
XBYAK_DEFINE_TYPE(12, tOSXSAVE);
XBYAK_DEFINE_TYPE(13, tPCLMULQDQ);
XBYAK_DEFINE_TYPE(14, tAVX);
XBYAK_DEFINE_TYPE(15, tFMA);
XBYAK_DEFINE_TYPE(16, t3DN);
XBYAK_DEFINE_TYPE(17, tE3DN);
XBYAK_DEFINE_TYPE(18, tWAITPKG);
XBYAK_DEFINE_TYPE(19, tRDTSCP);
XBYAK_DEFINE_TYPE(20, tAVX2);
XBYAK_DEFINE_TYPE(21, tBMI1); // andn, bextr, blsi, blsmsk, blsr, tzcnt
XBYAK_DEFINE_TYPE(22, tBMI2); // bzhi, mulx, pdep, pext, rorx, sarx, shlx, shrx
XBYAK_DEFINE_TYPE(23, tLZCNT);
XBYAK_DEFINE_TYPE(24, tINTEL);
XBYAK_DEFINE_TYPE(25, tAMD);
XBYAK_DEFINE_TYPE(26, tENHANCED_REP); // enhanced rep movsb/stosb
XBYAK_DEFINE_TYPE(27, tRDRAND);
XBYAK_DEFINE_TYPE(28, tADX); // adcx, adox
XBYAK_DEFINE_TYPE(29, tRDSEED); // rdseed
XBYAK_DEFINE_TYPE(30, tSMAP); // stac
XBYAK_DEFINE_TYPE(31, tHLE); // xacquire, xrelease, xtest
XBYAK_DEFINE_TYPE(32, tRTM); // xbegin, xend, xabort
XBYAK_DEFINE_TYPE(33, tF16C); // vcvtph2ps, vcvtps2ph
XBYAK_DEFINE_TYPE(34, tMOVBE); // mobve
XBYAK_DEFINE_TYPE(35, tAVX512F);
XBYAK_DEFINE_TYPE(36, tAVX512DQ);
XBYAK_DEFINE_TYPE(37, tAVX512_IFMA);
XBYAK_DEFINE_TYPE(37, tAVX512IFMA);// = tAVX512_IFMA;
XBYAK_DEFINE_TYPE(38, tAVX512PF);
XBYAK_DEFINE_TYPE(39, tAVX512ER);
XBYAK_DEFINE_TYPE(40, tAVX512CD);
XBYAK_DEFINE_TYPE(41, tAVX512BW);
XBYAK_DEFINE_TYPE(42, tAVX512VL);
XBYAK_DEFINE_TYPE(43, tAVX512_VBMI);
XBYAK_DEFINE_TYPE(43, tAVX512VBMI); // = tAVX512_VBMI; // changed by Intel's manual
XBYAK_DEFINE_TYPE(44, tAVX512_4VNNIW);
XBYAK_DEFINE_TYPE(45, tAVX512_4FMAPS);
XBYAK_DEFINE_TYPE(46, tPREFETCHWT1);
XBYAK_DEFINE_TYPE(47, tPREFETCHW);
XBYAK_DEFINE_TYPE(48, tSHA);
XBYAK_DEFINE_TYPE(49, tMPX);
XBYAK_DEFINE_TYPE(50, tAVX512_VBMI2);
XBYAK_DEFINE_TYPE(51, tGFNI);
XBYAK_DEFINE_TYPE(52, tVAES);
XBYAK_DEFINE_TYPE(53, tVPCLMULQDQ);
XBYAK_DEFINE_TYPE(54, tAVX512_VNNI);
XBYAK_DEFINE_TYPE(55, tAVX512_BITALG);
XBYAK_DEFINE_TYPE(56, tAVX512_VPOPCNTDQ);
XBYAK_DEFINE_TYPE(57, tAVX512_BF16);
XBYAK_DEFINE_TYPE(58, tAVX512_VP2INTERSECT);
XBYAK_DEFINE_TYPE(59, tAMX_TILE);
XBYAK_DEFINE_TYPE(60, tAMX_INT8);
XBYAK_DEFINE_TYPE(61, tAMX_BF16);
XBYAK_DEFINE_TYPE(62, tAVX_VNNI);
XBYAK_DEFINE_TYPE(63, tCLFLUSHOPT);
XBYAK_DEFINE_TYPE(64, tCLDEMOTE);
XBYAK_DEFINE_TYPE(65, tMOVDIRI);
XBYAK_DEFINE_TYPE(66, tMOVDIR64B);
XBYAK_DEFINE_TYPE(67, tCLZERO); // AMD Zen
static const Type t3DN = 1 << 16;
static const Type tE3DN = 1 << 17;
static const Type tSSE4a = 1 << 18;
static const Type tRDTSCP = 1 << 19;
static const Type tAVX2 = 1 << 20;
static const Type tBMI1 = 1 << 21; // andn, bextr, blsi, blsmsk, blsr, tzcnt
static const Type tBMI2 = 1 << 22; // bzhi, mulx, pdep, pext, rorx, sarx, shlx, shrx
static const Type tLZCNT = 1 << 23;
static const Type tINTEL = 1 << 24;
static const Type tAMD = 1 << 25;
static const Type tENHANCED_REP = 1 << 26; // enhanced rep movsb/stosb
static const Type tRDRAND = 1 << 27;
static const Type tADX = 1 << 28; // adcx, adox
static const Type tRDSEED = 1 << 29; // rdseed
static const Type tSMAP = 1 << 30; // stac
static const Type tHLE = uint64_t(1) << 31; // xacquire, xrelease, xtest
static const Type tRTM = uint64_t(1) << 32; // xbegin, xend, xabort
static const Type tF16C = uint64_t(1) << 33; // vcvtph2ps, vcvtps2ph
static const Type tMOVBE = uint64_t(1) << 34; // mobve
static const Type tAVX512F = uint64_t(1) << 35;
static const Type tAVX512DQ = uint64_t(1) << 36;
static const Type tAVX512_IFMA = uint64_t(1) << 37;
static const Type tAVX512IFMA = tAVX512_IFMA;
static const Type tAVX512PF = uint64_t(1) << 38;
static const Type tAVX512ER = uint64_t(1) << 39;
static const Type tAVX512CD = uint64_t(1) << 40;
static const Type tAVX512BW = uint64_t(1) << 41;
static const Type tAVX512VL = uint64_t(1) << 42;
static const Type tAVX512_VBMI = uint64_t(1) << 43;
static const Type tAVX512VBMI = tAVX512_VBMI; // changed by Intel's manual
static const Type tAVX512_4VNNIW = uint64_t(1) << 44;
static const Type tAVX512_4FMAPS = uint64_t(1) << 45;
static const Type tPREFETCHWT1 = uint64_t(1) << 46;
static const Type tPREFETCHW = uint64_t(1) << 47;
static const Type tSHA = uint64_t(1) << 48;
static const Type tMPX = uint64_t(1) << 49;
static const Type tAVX512_VBMI2 = uint64_t(1) << 50;
static const Type tGFNI = uint64_t(1) << 51;
static const Type tVAES = uint64_t(1) << 52;
static const Type tVPCLMULQDQ = uint64_t(1) << 53;
static const Type tAVX512_VNNI = uint64_t(1) << 54;
static const Type tAVX512_BITALG = uint64_t(1) << 55;
static const Type tAVX512_VPOPCNTDQ = uint64_t(1) << 56;
static const Type tAVX512_BF16 = uint64_t(1) << 57;
static const Type tAVX512_VP2INTERSECT = uint64_t(1) << 58;
static const Type tAMX_TILE = uint64_t(1) << 59;
static const Type tAMX_INT8 = uint64_t(1) << 60;
static const Type tAMX_BF16 = uint64_t(1) << 61;
static const Type tAVX_VNNI = uint64_t(1) << 62;
#undef XBYAK_SPLIT_ID
#undef XBYAK_DEFINE_TYPE
Cpu()
: type_(NONE)
: type_()
, x2APIC_supported_(false)
, numCores_()
, dataCacheSize_()
, coresSharignDataCache_()
, dataCacheLevels_(0)
{
unsigned int data[4] = {};
const unsigned int& EAX = data[0];
const unsigned int& EBX = data[1];
const unsigned int& ECX = data[2];
const unsigned int& EDX = data[3];
uint32_t data[4] = {};
const uint32_t& EAX = data[0];
const uint32_t& EBX = data[1];
const uint32_t& ECX = data[2];
const uint32_t& EDX = data[3];
getCpuid(0, data);
const unsigned int maxNum = EAX;
const uint32_t maxNum = EAX;
static const char intel[] = "ntel";
static const char amd[] = "cAMD";
if (ECX == get32bitAsBE(amd)) {
@ -407,7 +447,8 @@ public:
// Extended flags information
getCpuid(0x80000000, data);
if (EAX >= 0x80000001) {
const uint32_t maxExtendedNum = EAX;
if (maxExtendedNum >= 0x80000001) {
getCpuid(0x80000001, data);
if (EDX & (1U << 31)) type_ |= t3DN;
@ -419,6 +460,11 @@ public:
if (ECX & (1U << 8)) type_ |= tPREFETCHW;
}
if (maxExtendedNum >= 0x80000008) {
getCpuid(0x80000008, data);
if (EBX & (1U << 0)) type_ |= tCLZERO;
}
getCpuid(1, data);
if (ECX & (1U << 0)) type_ |= tSSE3;
if (ECX & (1U << 9)) type_ |= tSSSE3;
@ -469,6 +515,7 @@ public:
if (EDX & (1U << 2)) type_ |= tAVX512_4VNNIW;
if (EDX & (1U << 3)) type_ |= tAVX512_4FMAPS;
if (EDX & (1U << 8)) type_ |= tAVX512_VP2INTERSECT;
if ((type_ & tAVX512BW) && (EDX & (1U << 23))) type_ |= tAVX512_FP16;
}
}
}
@ -483,11 +530,16 @@ public:
if (EBX & (1U << 18)) type_ |= tRDSEED;
if (EBX & (1U << 19)) type_ |= tADX;
if (EBX & (1U << 20)) type_ |= tSMAP;
if (EBX & (1U << 23)) type_ |= tCLFLUSHOPT;
if (EBX & (1U << 4)) type_ |= tHLE;
if (EBX & (1U << 11)) type_ |= tRTM;
if (EBX & (1U << 14)) type_ |= tMPX;
if (EBX & (1U << 29)) type_ |= tSHA;
if (ECX & (1U << 0)) type_ |= tPREFETCHWT1;
if (ECX & (1U << 5)) type_ |= tWAITPKG;
if (ECX & (1U << 25)) type_ |= tCLDEMOTE;
if (ECX & (1U << 27)) type_ |= tMOVDIRI;
if (ECX & (1U << 28)) type_ |= tMOVDIR64B;
if (EDX & (1U << 24)) type_ |= tAMX_TILE;
if (EDX & (1U << 25)) type_ |= tAMX_INT8;
if (EDX & (1U << 22)) type_ |= tAMX_BF16;
@ -511,9 +563,9 @@ public:
printf("display:family=%X, model=%X\n", displayFamily, displayModel);
#endif
}
bool has(Type type) const
bool has(const Type& type) const
{
return (type & type_) != 0;
return (type & type_) == type;
}
};
@ -526,7 +578,7 @@ public:
#ifdef _MSC_VER
return __rdtsc();
#else
unsigned int eax, edx;
uint32_t eax, edx;
__asm__ volatile("rdtsc" : "=a"(eax), "=d"(edx));
return ((uint64_t)edx << 32) | eax;
#endif
@ -563,7 +615,7 @@ const int UseRDX = 1 << 7;
class Pack {
static const size_t maxTblNum = 15;
const Xbyak::Reg64 *tbl_[maxTblNum];
Xbyak::Reg64 tbl_[maxTblNum];
size_t n_;
public:
Pack() : tbl_(), n_(0) {}
@ -580,32 +632,36 @@ public:
return *this;
}
Pack(const Xbyak::Reg64& t0)
{ n_ = 1; tbl_[0] = &t0; }
{ n_ = 1; tbl_[0] = t0; }
Pack(const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 2; tbl_[0] = &t0; tbl_[1] = &t1; }
{ n_ = 2; tbl_[0] = t0; tbl_[1] = t1; }
Pack(const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 3; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; }
{ n_ = 3; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; }
Pack(const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 4; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; tbl_[3] = &t3; }
{ n_ = 4; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; }
Pack(const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 5; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; tbl_[3] = &t3; tbl_[4] = &t4; }
{ n_ = 5; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; }
Pack(const Xbyak::Reg64& t5, const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 6; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; tbl_[3] = &t3; tbl_[4] = &t4; tbl_[5] = &t5; }
{ n_ = 6; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; tbl_[5] = t5; }
Pack(const Xbyak::Reg64& t6, const Xbyak::Reg64& t5, const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 7; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; tbl_[3] = &t3; tbl_[4] = &t4; tbl_[5] = &t5; tbl_[6] = &t6; }
{ n_ = 7; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; tbl_[5] = t5; tbl_[6] = t6; }
Pack(const Xbyak::Reg64& t7, const Xbyak::Reg64& t6, const Xbyak::Reg64& t5, const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 8; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; tbl_[3] = &t3; tbl_[4] = &t4; tbl_[5] = &t5; tbl_[6] = &t6; tbl_[7] = &t7; }
{ n_ = 8; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; tbl_[5] = t5; tbl_[6] = t6; tbl_[7] = t7; }
Pack(const Xbyak::Reg64& t8, const Xbyak::Reg64& t7, const Xbyak::Reg64& t6, const Xbyak::Reg64& t5, const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 9; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; tbl_[3] = &t3; tbl_[4] = &t4; tbl_[5] = &t5; tbl_[6] = &t6; tbl_[7] = &t7; tbl_[8] = &t8; }
{ n_ = 9; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; tbl_[5] = t5; tbl_[6] = t6; tbl_[7] = t7; tbl_[8] = t8; }
Pack(const Xbyak::Reg64& t9, const Xbyak::Reg64& t8, const Xbyak::Reg64& t7, const Xbyak::Reg64& t6, const Xbyak::Reg64& t5, const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 10; tbl_[0] = &t0; tbl_[1] = &t1; tbl_[2] = &t2; tbl_[3] = &t3; tbl_[4] = &t4; tbl_[5] = &t5; tbl_[6] = &t6; tbl_[7] = &t7; tbl_[8] = &t8; tbl_[9] = &t9; }
{ n_ = 10; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; tbl_[5] = t5; tbl_[6] = t6; tbl_[7] = t7; tbl_[8] = t8; tbl_[9] = t9; }
Pack(const Xbyak::Reg64& ta, const Xbyak::Reg64& t9, const Xbyak::Reg64& t8, const Xbyak::Reg64& t7, const Xbyak::Reg64& t6, const Xbyak::Reg64& t5, const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 11; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; tbl_[5] = t5; tbl_[6] = t6; tbl_[7] = t7; tbl_[8] = t8; tbl_[9] = t9; tbl_[10] = ta; }
Pack(const Xbyak::Reg64& tb, const Xbyak::Reg64& ta, const Xbyak::Reg64& t9, const Xbyak::Reg64& t8, const Xbyak::Reg64& t7, const Xbyak::Reg64& t6, const Xbyak::Reg64& t5, const Xbyak::Reg64& t4, const Xbyak::Reg64& t3, const Xbyak::Reg64& t2, const Xbyak::Reg64& t1, const Xbyak::Reg64& t0)
{ n_ = 12; tbl_[0] = t0; tbl_[1] = t1; tbl_[2] = t2; tbl_[3] = t3; tbl_[4] = t4; tbl_[5] = t5; tbl_[6] = t6; tbl_[7] = t7; tbl_[8] = t8; tbl_[9] = t9; tbl_[10] = ta; tbl_[11] = tb; }
Pack& append(const Xbyak::Reg64& t)
{
if (n_ == maxTblNum) {
fprintf(stderr, "ERR Pack::can't append\n");
XBYAK_THROW_RET(ERR_BAD_PARAMETER, *this)
}
tbl_[n_++] = &t;
tbl_[n_++] = t;
return *this;
}
void init(const Xbyak::Reg64 *tbl, size_t n)
@ -616,7 +672,7 @@ public:
}
n_ = n;
for (size_t i = 0; i < n; i++) {
tbl_[i] = &tbl[i];
tbl_[i] = tbl[i];
}
}
const Xbyak::Reg64& operator[](size_t n) const
@ -625,7 +681,7 @@ public:
fprintf(stderr, "ERR Pack bad n=%d(%d)\n", (int)n, (int)n_);
XBYAK_THROW_RET(ERR_BAD_PARAMETER, rax)
}
return *tbl_[n];
return tbl_[n];
}
size_t size() const { return n_; }
/*
@ -648,7 +704,7 @@ public:
void put() const
{
for (size_t i = 0; i < n_; i++) {
printf("%s ", tbl_[i]->toString());
printf("%s ", tbl_[i].toString());
}
printf("\n");
}

12
externals/dynarmic/src/dynarmic/CMakeLists.txt vendored
View File

@ -55,8 +55,6 @@ add_library(dynarmic
common/u128.cpp
common/u128.h
common/variant_util.h
common/x64_disassemble.cpp
common/x64_disassemble.h
frontend/A32/a32_types.cpp
frontend/A32/a32_types.h
frontend/A64/a64_types.cpp
@ -257,6 +255,12 @@ if ("A64" IN_LIST DYNARMIC_FRONTENDS)
endif()
if (ARCHITECTURE STREQUAL "x86_64")
target_link_libraries(dynarmic
PRIVATE
$<BUILD_INTERFACE:xbyak>
$<BUILD_INTERFACE:Zydis>
)
target_sources(dynarmic PRIVATE
backend/x64/abi.cpp
backend/x64/abi.h
@ -300,6 +304,8 @@ if (ARCHITECTURE STREQUAL "x86_64")
backend/x64/stack_layout.h
common/spin_lock_x64.cpp
common/spin_lock_x64.h
common/x64_disassemble.cpp
common/x64_disassemble.h
)
if ("A32" IN_LIST DYNARMIC_FRONTENDS)
@ -383,8 +389,6 @@ target_link_libraries(dynarmic
$<BUILD_INTERFACE:boost>
$<BUILD_INTERFACE:fmt::fmt>
tsl::robin_map
$<BUILD_INTERFACE:xbyak>
$<BUILD_INTERFACE:Zydis>
"$<$<BOOL:DYNARMIC_USE_LLVM>:${llvm_libs}>"
)
if (DYNARMIC_ENABLE_CPU_FEATURE_DETECTION)

3
externals/dynarmic/src/dynarmic/backend/x64/a32_interface.cpp vendored
View File

@ -167,7 +167,8 @@ private:
PerformCacheInvalidation();
}
IR::Block ir_block = A32::Translate(A32::LocationDescriptor{descriptor}, conf.callbacks, {conf.arch_version, conf.define_unpredictable_behaviour, conf.hook_hint_instructions});
IR::Block ir_block = A32::Translate(A32::LocationDescriptor{descriptor}, conf.callbacks,
{conf.arch_version, conf.define_unpredictable_behaviour, conf.hook_hint_instructions, conf.check_halt_on_memory_access});
Optimization::PolyfillPass(ir_block, polyfill_options);
if (conf.HasOptimization(OptimizationFlag::GetSetElimination)) {
Optimization::A32GetSetElimination(ir_block);

2
externals/dynarmic/src/dynarmic/backend/x64/a64_interface.cpp vendored
View File

@ -265,7 +265,7 @@ private:
// JIT Compile
const auto get_code = [this](u64 vaddr) { return conf.callbacks->MemoryReadCode(vaddr); };
IR::Block ir_block = A64::Translate(A64::LocationDescriptor{current_location}, get_code,
{conf.define_unpredictable_behaviour, conf.wall_clock_cntpct});
{conf.define_unpredictable_behaviour, conf.wall_clock_cntpct, conf.hook_hint_instructions, conf.check_halt_on_memory_access});
Optimization::PolyfillPass(ir_block, polyfill_options);
Optimization::A64CallbackConfigPass(ir_block, conf);
if (conf.HasOptimization(OptimizationFlag::GetSetElimination)) {

21
externals/dynarmic/src/dynarmic/backend/x64/emit_x64_floating_point.cpp vendored
View File

@ -10,6 +10,7 @@
#include <mcl/assert.hpp>
#include <mcl/mp/metavalue/lift_value.hpp>
#include <mcl/mp/typelist/cartesian_product.hpp>
#include <mcl/mp/typelist/get.hpp>
#include <mcl/mp/typelist/lift_sequence.hpp>
#include <mcl/mp/typelist/list.hpp>
#include <mcl/mp/typelist/lower_to_tuple.hpp>
@ -941,15 +942,14 @@ static void EmitFPRound(BlockOfCode& code, EmitContext& ctx, IR::Inst* inst, siz
using exact_list = mp::list<std::true_type, std::false_type>;
static const auto lut = Common::GenerateLookupTableFromList(
[](auto args) {
[]<typename I>(I) {
return std::pair{
mp::lower_to_tuple_v<decltype(args)>,
mp::lower_to_tuple_v<I>,
Common::FptrCast(
[](u64 input, FP::FPSR& fpsr, FP::FPCR fpcr) {
constexpr auto t = mp::lower_to_tuple_v<decltype(args)>;
constexpr size_t fsize = std::get<0>(t);
constexpr FP::RoundingMode rounding_mode = std::get<1>(t);
constexpr bool exact = std::get<2>(t);
constexpr size_t fsize = mp::get<0, I>::value;
constexpr FP::RoundingMode rounding_mode = mp::get<1, I>::value;
constexpr bool exact = mp::get<2, I>::value;
using InputSize = mcl::unsigned_integer_of_size<fsize>;
return FP::FPRoundInt<InputSize>(static_cast<InputSize>(input), fpcr, rounding_mode, exact, fpsr);
@ -1582,14 +1582,13 @@ static void EmitFPToFixed(BlockOfCode& code, EmitContext& ctx, IR::Inst* inst) {
mp::lift_value<FP::RoundingMode::ToNearest_TieAwayFromZero>>;
static const auto lut = Common::GenerateLookupTableFromList(
[](auto args) {
[]<typename I>(I) {
return std::pair{
mp::lower_to_tuple_v<decltype(args)>,
mp::lower_to_tuple_v<I>,
Common::FptrCast(
[](u64 input, FP::FPSR& fpsr, FP::FPCR fpcr) {
constexpr auto t = mp::lower_to_tuple_v<decltype(args)>;
constexpr size_t fbits = std::get<0>(t);
constexpr FP::RoundingMode rounding_mode = std::get<1>(t);
constexpr size_t fbits = mp::get<0, I>::value;
constexpr FP::RoundingMode rounding_mode = mp::get<1, I>::value;
using FPT = mcl::unsigned_integer_of_size<fsize>;
return FP::FPToFixed<FPT>(isize, static_cast<FPT>(input), fbits, unsigned_, fpcr, rounding_mode, fpsr);

48
externals/dynarmic/src/dynarmic/backend/x64/emit_x64_packed.cpp vendored
View File

@ -47,15 +47,13 @@ void EmitX64::EmitPackedAddS8(EmitContext& ctx, IR::Inst* inst) {
const Xbyak::Xmm xmm_b = ctx.reg_alloc.UseXmm(args[1]);
if (ge_inst) {
const Xbyak::Xmm saturated_sum = ctx.reg_alloc.ScratchXmm();
const Xbyak::Xmm xmm_ge = ctx.reg_alloc.ScratchXmm();
code.pxor(xmm_ge, xmm_ge);
code.movdqa(saturated_sum, xmm_a);
code.paddsb(saturated_sum, xmm_b);
code.pcmpgtb(xmm_ge, saturated_sum);
code.pcmpeqb(saturated_sum, saturated_sum);
code.pxor(xmm_ge, saturated_sum);
code.pcmpeqb(xmm0, xmm0);
code.movdqa(xmm_ge, xmm_a);
code.paddsb(xmm_ge, xmm_b);
code.pcmpgtb(xmm_ge, xmm0);
ctx.reg_alloc.DefineValue(ge_inst, xmm_ge);
ctx.EraseInstruction(ge_inst);
@ -116,15 +114,13 @@ void EmitX64::EmitPackedAddS16(EmitContext& ctx, IR::Inst* inst) {
const Xbyak::Xmm xmm_b = ctx.reg_alloc.UseXmm(args[1]);
if (ge_inst) {
const Xbyak::Xmm saturated_sum = ctx.reg_alloc.ScratchXmm();
const Xbyak::Xmm xmm_ge = ctx.reg_alloc.ScratchXmm();
code.pxor(xmm_ge, xmm_ge);
code.movdqa(saturated_sum, xmm_a);
code.paddsw(saturated_sum, xmm_b);
code.pcmpgtw(xmm_ge, saturated_sum);
code.pcmpeqw(saturated_sum, saturated_sum);
code.pxor(xmm_ge, saturated_sum);
code.pcmpeqw(xmm0, xmm0);
code.movdqa(xmm_ge, xmm_a);
code.paddsw(xmm_ge, xmm_b);
code.pcmpgtw(xmm_ge, xmm0);
ctx.reg_alloc.DefineValue(ge_inst, xmm_ge);
ctx.EraseInstruction(ge_inst);
@ -166,15 +162,13 @@ void EmitX64::EmitPackedSubS8(EmitContext& ctx, IR::Inst* inst) {
const Xbyak::Xmm xmm_b = ctx.reg_alloc.UseXmm(args[1]);
if (ge_inst) {
const Xbyak::Xmm saturated_sum = ctx.reg_alloc.ScratchXmm();
const Xbyak::Xmm xmm_ge = ctx.reg_alloc.ScratchXmm();
code.pxor(xmm_ge, xmm_ge);
code.movdqa(saturated_sum, xmm_a);
code.psubsb(saturated_sum, xmm_b);
code.pcmpgtb(xmm_ge, saturated_sum);
code.pcmpeqb(saturated_sum, saturated_sum);
code.pxor(xmm_ge, saturated_sum);
code.pcmpeqb(xmm0, xmm0);
code.movdqa(xmm_ge, xmm_a);
code.psubsb(xmm_ge, xmm_b);
code.pcmpgtb(xmm_ge, xmm0);
ctx.reg_alloc.DefineValue(ge_inst, xmm_ge);
ctx.EraseInstruction(ge_inst);
@ -244,15 +238,13 @@ void EmitX64::EmitPackedSubS16(EmitContext& ctx, IR::Inst* inst) {
const Xbyak::Xmm xmm_b = ctx.reg_alloc.UseXmm(args[1]);
if (ge_inst) {
const Xbyak::Xmm saturated_diff = ctx.reg_alloc.ScratchXmm();
const Xbyak::Xmm xmm_ge = ctx.reg_alloc.ScratchXmm();
code.pxor(xmm_ge, xmm_ge);
code.movdqa(saturated_diff, xmm_a);
code.psubsw(saturated_diff, xmm_b);
code.pcmpgtw(xmm_ge, saturated_diff);
code.pcmpeqw(saturated_diff, saturated_diff);
code.pxor(xmm_ge, saturated_diff);
code.pcmpeqw(xmm0, xmm0);
code.movdqa(xmm_ge, xmm_a);
code.psubsw(xmm_ge, xmm_b);
code.pcmpgtw(xmm_ge, xmm0);
ctx.reg_alloc.DefineValue(ge_inst, xmm_ge);
ctx.EraseInstruction(ge_inst);

40
externals/dynarmic/src/dynarmic/backend/x64/emit_x64_vector_floating_point.cpp vendored
View File

@ -12,6 +12,7 @@
#include <mcl/assert.hpp>
#include <mcl/mp/metavalue/lift_value.hpp>
#include <mcl/mp/typelist/cartesian_product.hpp>
#include <mcl/mp/typelist/get.hpp>
#include <mcl/mp/typelist/lift_sequence.hpp>
#include <mcl/mp/typelist/list.hpp>
#include <mcl/mp/typelist/lower_to_tuple.hpp>
@ -663,13 +664,12 @@ void EmitX64::EmitFPVectorFromHalf32(EmitContext& ctx, IR::Inst* inst) {
mp::lift_value<FP::RoundingMode::ToNearest_TieAwayFromZero>>;
static const auto lut = Common::GenerateLookupTableFromList(
[](auto arg) {
[]<typename I>(I) {
return std::pair{
mp::lower_to_tuple_v<decltype(arg)>,
mp::lower_to_tuple_v<I>,
Common::FptrCast(
[](VectorArray<u32>& output, const VectorArray<u16>& input, FP::FPCR fpcr, FP::FPSR& fpsr) {
constexpr auto t = mp::lower_to_tuple_v<decltype(arg)>;
constexpr FP::RoundingMode rounding_mode = std::get<0>(t);
constexpr FP::RoundingMode rounding_mode = mp::get<0, I>::value;
for (size_t i = 0; i < output.size(); ++i) {
output[i] = FP::FPConvert<u32, u16>(input[i], fpcr, rounding_mode, fpsr);
@ -1421,8 +1421,6 @@ void EmitX64::EmitFPVectorRecipStepFused64(EmitContext& ctx, IR::Inst* inst) {
template<size_t fsize>
void EmitFPVectorRoundInt(BlockOfCode& code, EmitContext& ctx, IR::Inst* inst) {
using FPT = mcl::unsigned_integer_of_size<fsize>;
const auto rounding = static_cast<FP::RoundingMode>(inst->GetArg(1).GetU8());
const bool exact = inst->GetArg(2).GetU1();
@ -1460,14 +1458,14 @@ void EmitFPVectorRoundInt(BlockOfCode& code, EmitContext& ctx, IR::Inst* inst) {
using exact_list = mp::list<std::true_type, std::false_type>;
static const auto lut = Common::GenerateLookupTableFromList(
[](auto arg) {
[]<typename I>(I) {
using FPT = mcl::unsigned_integer_of_size<fsize>; // WORKAROUND: For issue 678 on MSVC
return std::pair{
mp::lower_to_tuple_v<decltype(arg)>,
mp::lower_to_tuple_v<I>,
Common::FptrCast(
[](VectorArray<FPT>& output, const VectorArray<FPT>& input, FP::FPCR fpcr, FP::FPSR& fpsr) {
constexpr auto t = mp::lower_to_tuple_v<decltype(arg)>;
constexpr FP::RoundingMode rounding_mode = std::get<0>(t);
constexpr bool exact = std::get<1>(t);
constexpr FP::RoundingMode rounding_mode = mp::get<0, I>::value;
constexpr bool exact = mp::get<1, I>::value;
for (size_t i = 0; i < output.size(); ++i) {
output[i] = static_cast<FPT>(FP::FPRoundInt<FPT>(input[i], fpcr, rounding_mode, exact, fpsr));
@ -1686,13 +1684,12 @@ void EmitX64::EmitFPVectorToHalf32(EmitContext& ctx, IR::Inst* inst) {
mp::lift_value<FP::RoundingMode::ToNearest_TieAwayFromZero>>;
static const auto lut = Common::GenerateLookupTableFromList(
[](auto arg) {
[]<typename I>(I) {
return std::pair{
mp::lower_to_tuple_v<decltype(arg)>,
mp::lower_to_tuple_v<I>,
Common::FptrCast(
[](VectorArray<u16>& output, const VectorArray<u32>& input, FP::FPCR fpcr, FP::FPSR& fpsr) {
constexpr auto t = mp::lower_to_tuple_v<decltype(arg)>;
constexpr FP::RoundingMode rounding_mode = std::get<0>(t);
constexpr FP::RoundingMode rounding_mode = mp::get<0, I>::value;
for (size_t i = 0; i < output.size(); ++i) {
if (i < input.size()) {
@ -1710,8 +1707,6 @@ void EmitX64::EmitFPVectorToHalf32(EmitContext& ctx, IR::Inst* inst) {
template<size_t fsize, bool unsigned_>
void EmitFPVectorToFixed(BlockOfCode& code, EmitContext& ctx, IR::Inst* inst) {
using FPT = mcl::unsigned_integer_of_size<fsize>;
const size_t fbits = inst->GetArg(1).GetU8();
const auto rounding = static_cast<FP::RoundingMode>(inst->GetArg(2).GetU8());
[[maybe_unused]] const bool fpcr_controlled = inst->GetArg(3).GetU1();
@ -1814,6 +1809,7 @@ void EmitFPVectorToFixed(BlockOfCode& code, EmitContext& ctx, IR::Inst* inst) {
FCODE(orp)(src, exceed_unsigned);
}
} else {
using FPT = mcl::unsigned_integer_of_size<fsize>; // WORKAROUND: For issue 678 on MSVC
constexpr u64 integer_max = static_cast<FPT>(std::numeric_limits<std::conditional_t<unsigned_, FPT, std::make_signed_t<FPT>>>::max());
code.movaps(xmm0, GetVectorOf<fsize, float_upper_limit_signed>(code));
@ -1837,14 +1833,14 @@ void EmitFPVectorToFixed(BlockOfCode& code, EmitContext& ctx, IR::Inst* inst) {
mp::lift_value<FP::RoundingMode::ToNearest_TieAwayFromZero>>;
static const auto lut = Common::GenerateLookupTableFromList(
[](auto arg) {
[]<typename I>(I) {
using FPT = mcl::unsigned_integer_of_size<fsize>; // WORKAROUND: For issue 678 on MSVC
return std::pair{
mp::lower_to_tuple_v<decltype(arg)>,
mp::lower_to_tuple_v<I>,
Common::FptrCast(
[](VectorArray<FPT>& output, const VectorArray<FPT>& input, FP::FPCR fpcr, FP::FPSR& fpsr) {
constexpr auto t = mp::lower_to_tuple_v<decltype(arg)>;
constexpr size_t fbits = std::get<0>(t);
constexpr FP::RoundingMode rounding_mode = std::get<1>(t);
constexpr size_t fbits = mp::get<0, I>::value;
constexpr FP::RoundingMode rounding_mode = mp::get<1, I>::value;
for (size_t i = 0; i < output.size(); ++i) {
output[i] = static_cast<FPT>(FP::FPToFixed<FPT>(fsize, input[i], fbits, unsigned_, fpcr, rounding_mode, fpsr));

4
externals/dynarmic/src/dynarmic/backend/x64/exception_handler_macos.cpp vendored
View File

@ -76,11 +76,11 @@ MachHandler::MachHandler() {
#undef KCHECK
thread = std::thread(&MachHandler::MessagePump, this);
thread.detach();
}
MachHandler::~MachHandler() {
mach_port_destroy(mach_task_self(), server_port);
thread.join();
mach_port_deallocate(mach_task_self(), server_port);
}
void MachHandler::MessagePump() {

6
externals/dynarmic/src/dynarmic/frontend/A32/translate/a32_translate.h vendored
View File

@ -29,6 +29,12 @@ struct TranslationOptions {
/// If this is false, we treat the instruction as a NOP.
/// If this is true, we emit an ExceptionRaised instruction.
bool hook_hint_instructions = true;
/// This changes what IR we emit when we translate a memory instruction.
/// If this is false, memory accesses are not considered terminal.
/// If this is true, memory access are considered terminal. This allows
/// accurately emulating protection fault handlers.
bool check_halt_on_memory_access = false;
};
/**

9
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/a32_translate_impl.cpp vendored
View File

@ -53,6 +53,15 @@ bool TranslatorVisitor::RaiseException(Exception exception) {
return false;
}
bool TranslatorVisitor::MemoryInstructionContinues() {
if (options.check_halt_on_memory_access) {
ir.SetTerm(IR::Term::LinkBlock{ir.current_location.AdvancePC(static_cast<s32>(current_instruction_size))});
return false;
}
return true;
}
IR::UAny TranslatorVisitor::I(size_t bitsize, u64 value) {
switch (bitsize) {
case 8:

1
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/a32_translate_impl.h vendored
View File

@ -41,6 +41,7 @@ struct TranslatorVisitor final {
bool UndefinedInstruction();
bool DecodeError();
bool RaiseException(Exception exception);
bool MemoryInstructionContinues();
struct ImmAndCarry {
u32 imm32;

10
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/asimd_load_store_structures.cpp vendored
View File

@ -119,7 +119,7 @@ bool TranslatorVisitor::v8_VST_multiple(bool D, Reg n, size_t Vd, Imm<4> type, s
}
}
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::v8_VLD_multiple(bool D, Reg n, size_t Vd, Imm<4> type, size_t size, size_t align, Reg m) {
@ -176,7 +176,7 @@ bool TranslatorVisitor::v8_VLD_multiple(bool D, Reg n, size_t Vd, Imm<4> type, s
}
}
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::v8_VLD_all_lanes(bool D, Reg n, size_t Vd, size_t nn, size_t sz, bool T, bool a, Reg m) {
@ -241,7 +241,7 @@ bool TranslatorVisitor::v8_VLD_all_lanes(bool D, Reg n, size_t Vd, size_t nn, si
}
}
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::v8_VST_single(bool D, Reg n, size_t Vd, size_t sz, size_t nn, size_t index_align, Reg m) {
@ -305,7 +305,7 @@ bool TranslatorVisitor::v8_VST_single(bool D, Reg n, size_t Vd, size_t sz, size_
}
}
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::v8_VLD_single(bool D, Reg n, size_t Vd, size_t sz, size_t nn, size_t index_align, Reg m) {
@ -370,6 +370,6 @@ bool TranslatorVisitor::v8_VLD_single(bool D, Reg n, size_t Vd, size_t sz, size_
}
}
return true;
return MemoryInstructionContinues();
}
} // namespace Dynarmic::A32

5
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/asimd_one_reg_modified_immediate.cpp vendored
View File

@ -30,7 +30,8 @@ bool TranslatorVisitor::asimd_VMOV_imm(Imm<1> a, bool D, Imm<1> b, Imm<1> c, Imm
};
// VMVN
const auto mvn = [&] {
// mvn is a predefined macro in arm64 MSVC
const auto mvn_ = [&] {
const auto imm64 = ir.Imm64(~imm);
if (Q) {
ir.SetVector(d_reg, ir.VectorBroadcast(64, imm64));
@ -89,7 +90,7 @@ bool TranslatorVisitor::asimd_VMOV_imm(Imm<1> a, bool D, Imm<1> b, Imm<1> c, Imm
case 0b10101:
case 0b11001:
case 0b11011:
return mvn();
return mvn_();
case 0b00010:
case 0b00110:
case 0b01010:

100
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/load_store.cpp vendored
View File

@ -83,7 +83,7 @@ bool TranslatorVisitor::arm_LDR_lit(Cond cond, bool U, Reg t, Imm<12> imm12) {
}
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDR <Rt>, [<Rn>, #+/-<imm>]{!}
@ -120,7 +120,7 @@ bool TranslatorVisitor::arm_LDR_imm(Cond cond, bool P, bool U, bool W, Reg n, Re
}
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDR <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -150,7 +150,7 @@ bool TranslatorVisitor::arm_LDR_reg(Cond cond, bool P, bool U, bool W, Reg n, Re
}
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRB <Rt>, [PC, #+/-<imm>]
@ -170,7 +170,7 @@ bool TranslatorVisitor::arm_LDRB_lit(Cond cond, bool U, Reg t, Imm<12> imm12) {
const auto data = ir.ZeroExtendByteToWord(ir.ReadMemory8(ir.Imm32(address), IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRB <Rt>, [<Rn>, #+/-<imm>]{!}
@ -199,7 +199,7 @@ bool TranslatorVisitor::arm_LDRB_imm(Cond cond, bool P, bool U, bool W, Reg n, R
const auto data = ir.ZeroExtendByteToWord(ir.ReadMemory8(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRB <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -223,7 +223,7 @@ bool TranslatorVisitor::arm_LDRB_reg(Cond cond, bool P, bool U, bool W, Reg n, R
const auto data = ir.ZeroExtendByteToWord(ir.ReadMemory8(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRD <Rt>, <Rt2>, [PC, #+/-<imm>]
@ -257,7 +257,7 @@ bool TranslatorVisitor::arm_LDRD_lit(Cond cond, bool U, Reg t, Imm<4> imm8a, Imm
ir.SetRegister(t, ir.LeastSignificantWord(data));
ir.SetRegister(t2, ir.MostSignificantWord(data).result);
}
return true;
return MemoryInstructionContinues();
}
// LDRD <Rt>, [<Rn>, #+/-<imm>]{!}
@ -303,7 +303,7 @@ bool TranslatorVisitor::arm_LDRD_imm(Cond cond, bool P, bool U, bool W, Reg n, R
ir.SetRegister(t, ir.LeastSignificantWord(data));
ir.SetRegister(t2, ir.MostSignificantWord(data).result);
}
return true;
return MemoryInstructionContinues();
}
// LDRD <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -343,7 +343,7 @@ bool TranslatorVisitor::arm_LDRD_reg(Cond cond, bool P, bool U, bool W, Reg n, R
ir.SetRegister(t, ir.LeastSignificantWord(data));
ir.SetRegister(t2, ir.MostSignificantWord(data).result);
}
return true;
return MemoryInstructionContinues();
}
// LDRH <Rt>, [PC, #-/+<imm>]
@ -368,7 +368,7 @@ bool TranslatorVisitor::arm_LDRH_lit(Cond cond, bool P, bool U, bool W, Reg t, I
const auto data = ir.ZeroExtendHalfToWord(ir.ReadMemory16(ir.Imm32(address), IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRH <Rt>, [<Rn>, #+/-<imm>]{!}
@ -397,7 +397,7 @@ bool TranslatorVisitor::arm_LDRH_imm(Cond cond, bool P, bool U, bool W, Reg n, R
const auto data = ir.ZeroExtendHalfToWord(ir.ReadMemory16(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRH <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -421,7 +421,7 @@ bool TranslatorVisitor::arm_LDRH_reg(Cond cond, bool P, bool U, bool W, Reg n, R
const auto data = ir.ZeroExtendHalfToWord(ir.ReadMemory16(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRSB <Rt>, [PC, #+/-<imm>]
@ -442,7 +442,7 @@ bool TranslatorVisitor::arm_LDRSB_lit(Cond cond, bool U, Reg t, Imm<4> imm8a, Im
const auto data = ir.SignExtendByteToWord(ir.ReadMemory8(ir.Imm32(address), IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRSB <Rt>, [<Rn>, #+/-<imm>]{!}
@ -471,7 +471,7 @@ bool TranslatorVisitor::arm_LDRSB_imm(Cond cond, bool P, bool U, bool W, Reg n,
const auto data = ir.SignExtendByteToWord(ir.ReadMemory8(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRSB <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -495,7 +495,7 @@ bool TranslatorVisitor::arm_LDRSB_reg(Cond cond, bool P, bool U, bool W, Reg n,
const auto data = ir.SignExtendByteToWord(ir.ReadMemory8(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRSH <Rt>, [PC, #-/+<imm>]
@ -515,7 +515,7 @@ bool TranslatorVisitor::arm_LDRSH_lit(Cond cond, bool U, Reg t, Imm<4> imm8a, Im
const auto data = ir.SignExtendHalfToWord(ir.ReadMemory16(ir.Imm32(address), IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRSH <Rt>, [<Rn>, #+/-<imm>]{!}
@ -544,7 +544,7 @@ bool TranslatorVisitor::arm_LDRSH_imm(Cond cond, bool P, bool U, bool W, Reg n,
const auto data = ir.SignExtendHalfToWord(ir.ReadMemory16(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRSH <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -568,7 +568,7 @@ bool TranslatorVisitor::arm_LDRSH_reg(Cond cond, bool P, bool U, bool W, Reg n,
const auto data = ir.SignExtendHalfToWord(ir.ReadMemory16(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// STR <Rt>, [<Rn>, #+/-<imm>]{!}
@ -585,7 +585,7 @@ bool TranslatorVisitor::arm_STR_imm(Cond cond, bool P, bool U, bool W, Reg n, Re
const auto offset = ir.Imm32(imm12.ZeroExtend());
const auto address = GetAddress(ir, P, U, W, n, offset);
ir.WriteMemory32(address, ir.GetRegister(t), IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// STR <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -606,7 +606,7 @@ bool TranslatorVisitor::arm_STR_reg(Cond cond, bool P, bool U, bool W, Reg n, Re
const auto offset = EmitImmShift(ir.GetRegister(m), shift, imm5, ir.GetCFlag()).result;
const auto address = GetAddress(ir, P, U, W, n, offset);
ir.WriteMemory32(address, ir.GetRegister(t), IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// STRB <Rt>, [<Rn>, #+/-<imm>]{!}
@ -627,7 +627,7 @@ bool TranslatorVisitor::arm_STRB_imm(Cond cond, bool P, bool U, bool W, Reg n, R
const auto offset = ir.Imm32(imm12.ZeroExtend());
const auto address = GetAddress(ir, P, U, W, n, offset);
ir.WriteMemory8(address, ir.LeastSignificantByte(ir.GetRegister(t)), IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// STRB <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -648,7 +648,7 @@ bool TranslatorVisitor::arm_STRB_reg(Cond cond, bool P, bool U, bool W, Reg n, R
const auto offset = EmitImmShift(ir.GetRegister(m), shift, imm5, ir.GetCFlag()).result;
const auto address = GetAddress(ir, P, U, W, n, offset);
ir.WriteMemory8(address, ir.LeastSignificantByte(ir.GetRegister(t)), IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// STRD <Rt>, [<Rn>, #+/-<imm>]{!}
@ -686,7 +686,7 @@ bool TranslatorVisitor::arm_STRD_imm(Cond cond, bool P, bool U, bool W, Reg n, R
// NOTE: If alignment is exactly off by 4, each word is an atomic access.
ir.WriteMemory64(address, data, IR::AccType::ATOMIC);
return true;
return MemoryInstructionContinues();
}
// STRD <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -723,7 +723,7 @@ bool TranslatorVisitor::arm_STRD_reg(Cond cond, bool P, bool U, bool W, Reg n, R
// NOTE: If alignment is exactly off by 4, each word is an atomic access.
ir.WriteMemory64(address, data, IR::AccType::ATOMIC);
return true;
return MemoryInstructionContinues();
}
// STRH <Rt>, [<Rn>, #+/-<imm>]{!}
@ -746,7 +746,7 @@ bool TranslatorVisitor::arm_STRH_imm(Cond cond, bool P, bool U, bool W, Reg n, R
const auto address = GetAddress(ir, P, U, W, n, offset);
ir.WriteMemory16(address, ir.LeastSignificantHalf(ir.GetRegister(t)), IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// STRH <Rt>, [<Rn>, #+/-<Rm>]{!}
@ -768,29 +768,31 @@ bool TranslatorVisitor::arm_STRH_reg(Cond cond, bool P, bool U, bool W, Reg n, R
const auto address = GetAddress(ir, P, U, W, n, offset);
ir.WriteMemory16(address, ir.LeastSignificantHalf(ir.GetRegister(t)), IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
static bool LDMHelper(A32::IREmitter& ir, bool W, Reg n, RegList list, IR::U32 start_address, IR::U32 writeback_address) {
static bool LDMHelper(TranslatorVisitor& v, bool W, Reg n, RegList list, IR::U32 start_address, IR::U32 writeback_address) {
auto address = start_address;
for (size_t i = 0; i <= 14; i++) {
if (mcl::bit::get_bit(i, list)) {
ir.SetRegister(static_cast<Reg>(i), ir.ReadMemory32(address, IR::AccType::ATOMIC));
address = ir.Add(address, ir.Imm32(4));
v.ir.SetRegister(static_cast<Reg>(i), v.ir.ReadMemory32(address, IR::AccType::ATOMIC));
address = v.ir.Add(address, v.ir.Imm32(4));
}
}
if (W && !mcl::bit::get_bit(RegNumber(n), list)) {
ir.SetRegister(n, writeback_address);
v.ir.SetRegister(n, writeback_address);
}
if (mcl::bit::get_bit<15>(list)) {
ir.LoadWritePC(ir.ReadMemory32(address, IR::AccType::ATOMIC));
if (n == Reg::R13)
ir.SetTerm(IR::Term::PopRSBHint{});
v.ir.LoadWritePC(v.ir.ReadMemory32(address, IR::AccType::ATOMIC));
if (v.options.check_halt_on_memory_access)
v.ir.SetTerm(IR::Term::CheckHalt{IR::Term::ReturnToDispatch{}});
else if (n == Reg::R13)
v.ir.SetTerm(IR::Term::PopRSBHint{});
else
ir.SetTerm(IR::Term::FastDispatchHint{});
v.ir.SetTerm(IR::Term::FastDispatchHint{});
return false;
}
return true;
return v.MemoryInstructionContinues();
}
// LDM <Rn>{!}, <reg_list>
@ -808,7 +810,7 @@ bool TranslatorVisitor::arm_LDM(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.GetRegister(n);
const auto writeback_address = ir.Add(start_address, ir.Imm32(u32(mcl::bit::count_ones(list) * 4)));
return LDMHelper(ir, W, n, list, start_address, writeback_address);
return LDMHelper(*this, W, n, list, start_address, writeback_address);
}
// LDMDA <Rn>{!}, <reg_list>
@ -826,7 +828,7 @@ bool TranslatorVisitor::arm_LDMDA(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.Sub(ir.GetRegister(n), ir.Imm32(u32(4 * mcl::bit::count_ones(list) - 4)));
const auto writeback_address = ir.Sub(start_address, ir.Imm32(4));
return LDMHelper(ir, W, n, list, start_address, writeback_address);
return LDMHelper(*this, W, n, list, start_address, writeback_address);
}
// LDMDB <Rn>{!}, <reg_list>
@ -844,7 +846,7 @@ bool TranslatorVisitor::arm_LDMDB(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.Sub(ir.GetRegister(n), ir.Imm32(u32(4 * mcl::bit::count_ones(list))));
const auto writeback_address = start_address;
return LDMHelper(ir, W, n, list, start_address, writeback_address);
return LDMHelper(*this, W, n, list, start_address, writeback_address);
}
// LDMIB <Rn>{!}, <reg_list>
@ -862,7 +864,7 @@ bool TranslatorVisitor::arm_LDMIB(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.Add(ir.GetRegister(n), ir.Imm32(4));
const auto writeback_address = ir.Add(ir.GetRegister(n), ir.Imm32(u32(4 * mcl::bit::count_ones(list))));
return LDMHelper(ir, W, n, list, start_address, writeback_address);
return LDMHelper(*this, W, n, list, start_address, writeback_address);
}
bool TranslatorVisitor::arm_LDM_usr() {
@ -873,21 +875,21 @@ bool TranslatorVisitor::arm_LDM_eret() {
return InterpretThisInstruction();
}
static bool STMHelper(A32::IREmitter& ir, bool W, Reg n, RegList list, IR::U32 start_address, IR::U32 writeback_address) {
static bool STMHelper(TranslatorVisitor& v, bool W, Reg n, RegList list, IR::U32 start_address, IR::U32 writeback_address) {
auto address = start_address;
for (size_t i = 0; i <= 14; i++) {
if (mcl::bit::get_bit(i, list)) {
ir.WriteMemory32(address, ir.GetRegister(static_cast<Reg>(i)), IR::AccType::ATOMIC);
address = ir.Add(address, ir.Imm32(4));
v.ir.WriteMemory32(address, v.ir.GetRegister(static_cast<Reg>(i)), IR::AccType::ATOMIC);
address = v.ir.Add(address, v.ir.Imm32(4));
}
}
if (W) {
ir.SetRegister(n, writeback_address);
v.ir.SetRegister(n, writeback_address);
}
if (mcl::bit::get_bit<15>(list)) {
ir.WriteMemory32(address, ir.Imm32(ir.PC()), IR::AccType::ATOMIC);
v.ir.WriteMemory32(address, v.ir.Imm32(v.ir.PC()), IR::AccType::ATOMIC);
}
return true;
return v.MemoryInstructionContinues();
}
// STM <Rn>{!}, <reg_list>
@ -902,7 +904,7 @@ bool TranslatorVisitor::arm_STM(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.GetRegister(n);
const auto writeback_address = ir.Add(start_address, ir.Imm32(u32(mcl::bit::count_ones(list) * 4)));
return STMHelper(ir, W, n, list, start_address, writeback_address);
return STMHelper(*this, W, n, list, start_address, writeback_address);
}
// STMDA <Rn>{!}, <reg_list>
@ -917,7 +919,7 @@ bool TranslatorVisitor::arm_STMDA(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.Sub(ir.GetRegister(n), ir.Imm32(u32(4 * mcl::bit::count_ones(list) - 4)));
const auto writeback_address = ir.Sub(start_address, ir.Imm32(4));
return STMHelper(ir, W, n, list, start_address, writeback_address);
return STMHelper(*this, W, n, list, start_address, writeback_address);
}
// STMDB <Rn>{!}, <reg_list>
@ -932,7 +934,7 @@ bool TranslatorVisitor::arm_STMDB(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.Sub(ir.GetRegister(n), ir.Imm32(u32(4 * mcl::bit::count_ones(list))));
const auto writeback_address = start_address;
return STMHelper(ir, W, n, list, start_address, writeback_address);
return STMHelper(*this, W, n, list, start_address, writeback_address);
}
// STMIB <Rn>{!}, <reg_list>
@ -947,7 +949,7 @@ bool TranslatorVisitor::arm_STMIB(Cond cond, bool W, Reg n, RegList list) {
const auto start_address = ir.Add(ir.GetRegister(n), ir.Imm32(4));
const auto writeback_address = ir.Add(ir.GetRegister(n), ir.Imm32(u32(4 * mcl::bit::count_ones(list))));
return STMHelper(ir, W, n, list, start_address, writeback_address);
return STMHelper(*this, W, n, list, start_address, writeback_address);
}
bool TranslatorVisitor::arm_STM_usr() {

48
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/synchronization.cpp vendored
View File

@ -29,7 +29,7 @@ bool TranslatorVisitor::arm_SWP(Cond cond, Reg n, Reg t, Reg t2) {
ir.WriteMemory32(ir.GetRegister(n), ir.GetRegister(t2), IR::AccType::SWAP);
// TODO: Alignment check
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// SWPB<c> <Rt>, <Rt2>, [<Rn>]
@ -48,7 +48,7 @@ bool TranslatorVisitor::arm_SWPB(Cond cond, Reg n, Reg t, Reg t2) {
ir.WriteMemory8(ir.GetRegister(n), ir.LeastSignificantByte(ir.GetRegister(t2)), IR::AccType::SWAP);
// TODO: Alignment check
ir.SetRegister(t, ir.ZeroExtendByteToWord(data));
return true;
return MemoryInstructionContinues();
}
// LDA<c> <Rt>, [<Rn>]
@ -63,7 +63,7 @@ bool TranslatorVisitor::arm_LDA(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ReadMemory32(address, IR::AccType::ORDERED));
return true;
return MemoryInstructionContinues();
}
// LDAB<c> <Rt>, [<Rn>]
bool TranslatorVisitor::arm_LDAB(Cond cond, Reg n, Reg t) {
@ -77,7 +77,7 @@ bool TranslatorVisitor::arm_LDAB(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ZeroExtendToWord(ir.ReadMemory8(address, IR::AccType::ORDERED)));
return true;
return MemoryInstructionContinues();
}
// LDAH<c> <Rt>, [<Rn>]
bool TranslatorVisitor::arm_LDAH(Cond cond, Reg n, Reg t) {
@ -91,7 +91,7 @@ bool TranslatorVisitor::arm_LDAH(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ZeroExtendToWord(ir.ReadMemory16(address, IR::AccType::ORDERED)));
return true;
return MemoryInstructionContinues();
}
// LDAEX<c> <Rt>, [<Rn>]
@ -106,7 +106,7 @@ bool TranslatorVisitor::arm_LDAEX(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ExclusiveReadMemory32(address, IR::AccType::ORDERED));
return true;
return MemoryInstructionContinues();
}
// LDAEXB<c> <Rt>, [<Rn>]
@ -121,7 +121,7 @@ bool TranslatorVisitor::arm_LDAEXB(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ZeroExtendByteToWord(ir.ExclusiveReadMemory8(address, IR::AccType::ORDERED)));
return true;
return MemoryInstructionContinues();
}
// LDAEXD<c> <Rt>, <Rt2>, [<Rn>]
@ -139,7 +139,7 @@ bool TranslatorVisitor::arm_LDAEXD(Cond cond, Reg n, Reg t) {
// DO NOT SWAP hi AND lo IN BIG ENDIAN MODE, THIS IS CORRECT BEHAVIOUR
ir.SetRegister(t, lo);
ir.SetRegister(t + 1, hi);
return true;
return MemoryInstructionContinues();
}
// LDAEXH<c> <Rt>, [<Rn>]
@ -154,7 +154,7 @@ bool TranslatorVisitor::arm_LDAEXH(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ZeroExtendHalfToWord(ir.ExclusiveReadMemory16(address, IR::AccType::ORDERED)));
return true;
return MemoryInstructionContinues();
}
// STL<c> <Rt>, [<Rn>]
@ -169,7 +169,7 @@ bool TranslatorVisitor::arm_STL(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.WriteMemory32(address, ir.GetRegister(t), IR::AccType::ORDERED);
return true;
return MemoryInstructionContinues();
}
// STLB<c> <Rt>, [<Rn>]
@ -184,7 +184,7 @@ bool TranslatorVisitor::arm_STLB(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.WriteMemory8(address, ir.LeastSignificantByte(ir.GetRegister(t)), IR::AccType::ORDERED);
return true;
return MemoryInstructionContinues();
}
// STLH<c> <Rd>, <Rt>, [<Rn>]
@ -199,7 +199,7 @@ bool TranslatorVisitor::arm_STLH(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.WriteMemory16(address, ir.LeastSignificantHalf(ir.GetRegister(t)), IR::AccType::ORDERED);
return true;
return MemoryInstructionContinues();
}
// STLEXB<c> <Rd>, <Rt>, [<Rn>]
@ -220,7 +220,7 @@ bool TranslatorVisitor::arm_STLEXB(Cond cond, Reg n, Reg d, Reg t) {
const auto value = ir.LeastSignificantByte(ir.GetRegister(t));
const auto passed = ir.ExclusiveWriteMemory8(address, value, IR::AccType::ORDERED);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
// STLEXD<c> <Rd>, <Rt>, <Rt2>, [<Rn>]
bool TranslatorVisitor::arm_STLEXD(Cond cond, Reg n, Reg d, Reg t) {
@ -242,7 +242,7 @@ bool TranslatorVisitor::arm_STLEXD(Cond cond, Reg n, Reg d, Reg t) {
const auto value_hi = ir.GetRegister(t2);
const auto passed = ir.ExclusiveWriteMemory64(address, value_lo, value_hi, IR::AccType::ORDERED);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
// STLEXH<c> <Rd>, <Rt>, [<Rn>]
@ -263,7 +263,7 @@ bool TranslatorVisitor::arm_STLEXH(Cond cond, Reg n, Reg d, Reg t) {
const auto value = ir.LeastSignificantHalf(ir.GetRegister(t));
const auto passed = ir.ExclusiveWriteMemory16(address, value, IR::AccType::ORDERED);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
// STLEX<c> <Rd>, <Rt>, [<Rn>]
@ -284,7 +284,7 @@ bool TranslatorVisitor::arm_STLEX(Cond cond, Reg n, Reg d, Reg t) {
const auto value = ir.GetRegister(t);
const auto passed = ir.ExclusiveWriteMemory32(address, value, IR::AccType::ORDERED);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
// LDREX<c> <Rt>, [<Rn>]
@ -299,7 +299,7 @@ bool TranslatorVisitor::arm_LDREX(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ExclusiveReadMemory32(address, IR::AccType::ATOMIC));
return true;
return MemoryInstructionContinues();
}
// LDREXB<c> <Rt>, [<Rn>]
@ -314,7 +314,7 @@ bool TranslatorVisitor::arm_LDREXB(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ZeroExtendByteToWord(ir.ExclusiveReadMemory8(address, IR::AccType::ATOMIC)));
return true;
return MemoryInstructionContinues();
}
// LDREXD<c> <Rt>, <Rt2>, [<Rn>]
@ -332,7 +332,7 @@ bool TranslatorVisitor::arm_LDREXD(Cond cond, Reg n, Reg t) {
// DO NOT SWAP hi AND lo IN BIG ENDIAN MODE, THIS IS CORRECT BEHAVIOUR
ir.SetRegister(t, lo);
ir.SetRegister(t + 1, hi);
return true;
return MemoryInstructionContinues();
}
// LDREXH<c> <Rt>, [<Rn>]
@ -347,7 +347,7 @@ bool TranslatorVisitor::arm_LDREXH(Cond cond, Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.SetRegister(t, ir.ZeroExtendHalfToWord(ir.ExclusiveReadMemory16(address, IR::AccType::ATOMIC)));
return true;
return MemoryInstructionContinues();
}
// STREX<c> <Rd>, <Rt>, [<Rn>]
@ -368,7 +368,7 @@ bool TranslatorVisitor::arm_STREX(Cond cond, Reg n, Reg d, Reg t) {
const auto value = ir.GetRegister(t);
const auto passed = ir.ExclusiveWriteMemory32(address, value, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
// STREXB<c> <Rd>, <Rt>, [<Rn>]
@ -389,7 +389,7 @@ bool TranslatorVisitor::arm_STREXB(Cond cond, Reg n, Reg d, Reg t) {
const auto value = ir.LeastSignificantByte(ir.GetRegister(t));
const auto passed = ir.ExclusiveWriteMemory8(address, value, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
// STREXD<c> <Rd>, <Rt>, <Rt2>, [<Rn>]
@ -412,7 +412,7 @@ bool TranslatorVisitor::arm_STREXD(Cond cond, Reg n, Reg d, Reg t) {
const auto value_hi = ir.GetRegister(t2);
const auto passed = ir.ExclusiveWriteMemory64(address, value_lo, value_hi, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
// STREXH<c> <Rd>, <Rt>, [<Rn>]
@ -433,7 +433,7 @@ bool TranslatorVisitor::arm_STREXH(Cond cond, Reg n, Reg d, Reg t) {
const auto value = ir.LeastSignificantHalf(ir.GetRegister(t));
const auto passed = ir.ExclusiveWriteMemory16(address, value, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
} // namespace Dynarmic::A32

46
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/thumb16.cpp vendored
View File

@ -449,7 +449,7 @@ bool TranslatorVisitor::thumb16_LDR_literal(Reg t, Imm<8> imm8) {
const auto data = ir.ReadMemory32(ir.Imm32(address), IR::AccType::NORMAL);
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// STR <Rt>, [<Rn>, <Rm>]
@ -459,7 +459,7 @@ bool TranslatorVisitor::thumb16_STR_reg(Reg m, Reg n, Reg t) {
const auto data = ir.GetRegister(t);
ir.WriteMemory32(address, data, IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// STRH <Rt>, [<Rn>, <Rm>]
@ -469,7 +469,7 @@ bool TranslatorVisitor::thumb16_STRH_reg(Reg m, Reg n, Reg t) {
const auto data = ir.LeastSignificantHalf(ir.GetRegister(t));
ir.WriteMemory16(address, data, IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// STRB <Rt>, [<Rn>, <Rm>]
@ -479,7 +479,7 @@ bool TranslatorVisitor::thumb16_STRB_reg(Reg m, Reg n, Reg t) {
const auto data = ir.LeastSignificantByte(ir.GetRegister(t));
ir.WriteMemory8(address, data, IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// LDRSB <Rt>, [<Rn>, <Rm>]
@ -489,7 +489,7 @@ bool TranslatorVisitor::thumb16_LDRSB_reg(Reg m, Reg n, Reg t) {
const auto data = ir.SignExtendByteToWord(ir.ReadMemory8(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDR <Rt>, [<Rn>, <Rm>]
@ -499,7 +499,7 @@ bool TranslatorVisitor::thumb16_LDR_reg(Reg m, Reg n, Reg t) {
const auto data = ir.ReadMemory32(address, IR::AccType::NORMAL);
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRH <Rt>, [<Rn>, <Rm>]
@ -509,7 +509,7 @@ bool TranslatorVisitor::thumb16_LDRH_reg(Reg m, Reg n, Reg t) {
const auto data = ir.ZeroExtendHalfToWord(ir.ReadMemory16(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRB <Rt>, [<Rn>, <Rm>]
@ -519,7 +519,7 @@ bool TranslatorVisitor::thumb16_LDRB_reg(Reg m, Reg n, Reg t) {
const auto data = ir.ZeroExtendByteToWord(ir.ReadMemory8(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// LDRH <Rt>, [<Rn>, <Rm>]
@ -529,7 +529,7 @@ bool TranslatorVisitor::thumb16_LDRSH_reg(Reg m, Reg n, Reg t) {
const auto data = ir.SignExtendHalfToWord(ir.ReadMemory16(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// STR <Rt>, [<Rn>, #<imm>]
@ -540,7 +540,7 @@ bool TranslatorVisitor::thumb16_STR_imm_t1(Imm<5> imm5, Reg n, Reg t) {
const auto data = ir.GetRegister(t);
ir.WriteMemory32(address, data, IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// LDR <Rt>, [<Rn>, #<imm>]
@ -551,7 +551,7 @@ bool TranslatorVisitor::thumb16_LDR_imm_t1(Imm<5> imm5, Reg n, Reg t) {
const auto data = ir.ReadMemory32(address, IR::AccType::NORMAL);
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// STRB <Rt>, [<Rn>, #<imm>]
@ -573,7 +573,7 @@ bool TranslatorVisitor::thumb16_LDRB_imm(Imm<5> imm5, Reg n, Reg t) {
const auto data = ir.ZeroExtendByteToWord(ir.ReadMemory8(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// STRH <Rt>, [<Rn>, #<imm5>]
@ -583,7 +583,7 @@ bool TranslatorVisitor::thumb16_STRH_imm(Imm<5> imm5, Reg n, Reg t) {
const auto data = ir.LeastSignificantHalf(ir.GetRegister(t));
ir.WriteMemory16(address, data, IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// LDRH <Rt>, [<Rn>, #<imm5>]
@ -593,7 +593,7 @@ bool TranslatorVisitor::thumb16_LDRH_imm(Imm<5> imm5, Reg n, Reg t) {
const auto data = ir.ZeroExtendHalfToWord(ir.ReadMemory16(address, IR::AccType::NORMAL));
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// STR <Rt>, [<Rn>, #<imm>]
@ -605,7 +605,7 @@ bool TranslatorVisitor::thumb16_STR_imm_t2(Reg t, Imm<8> imm8) {
const auto data = ir.GetRegister(t);
ir.WriteMemory32(address, data, IR::AccType::NORMAL);
return true;
return MemoryInstructionContinues();
}
// LDR <Rt>, [<Rn>, #<imm>]
@ -617,7 +617,7 @@ bool TranslatorVisitor::thumb16_LDR_imm_t2(Reg t, Imm<8> imm8) {
const auto data = ir.ReadMemory32(address, IR::AccType::NORMAL);
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
// ADR <Rd>, <label>
@ -775,7 +775,7 @@ bool TranslatorVisitor::thumb16_PUSH(bool M, RegList reg_list) {
ir.SetRegister(Reg::SP, final_address);
// TODO(optimization): Possible location for an RSB push.
return true;
return MemoryInstructionContinues();
}
// POP <reg_list>
@ -804,11 +804,15 @@ bool TranslatorVisitor::thumb16_POP(bool P, RegList reg_list) {
ir.LoadWritePC(data);
address = ir.Add(address, ir.Imm32(4));
ir.SetRegister(Reg::SP, address);
ir.SetTerm(IR::Term::PopRSBHint{});
if (options.check_halt_on_memory_access) {
ir.SetTerm(IR::Term::CheckHalt{IR::Term::PopRSBHint{}});
} else {
ir.SetTerm(IR::Term::PopRSBHint{});
}
return false;
} else {
ir.SetRegister(Reg::SP, address);
return true;
return MemoryInstructionContinues();
}
}
@ -887,7 +891,7 @@ bool TranslatorVisitor::thumb16_STMIA(Reg n, RegList reg_list) {
}
ir.SetRegister(n, address);
return true;
return MemoryInstructionContinues();
}
// LDM <Rn>!, <reg_list>
@ -910,7 +914,7 @@ bool TranslatorVisitor::thumb16_LDMIA(Reg n, RegList reg_list) {
if (write_back) {
ir.SetRegister(n, address);
}
return true;
return MemoryInstructionContinues();
}
// CB{N}Z <Rn>, <label>

6
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/thumb32_load_byte.cpp vendored
View File

@ -34,7 +34,7 @@ static bool LoadByteLiteral(TranslatorVisitor& v, bool U, Reg t, Imm<12> imm12,
const auto data = (v.ir.*ext_fn)(v.ir.ReadMemory8(v.ir.Imm32(address), IR::AccType::NORMAL));
v.ir.SetRegister(t, data);
return true;
return v.MemoryInstructionContinues();
}
static bool LoadByteRegister(TranslatorVisitor& v, Reg n, Reg t, Imm<2> imm2, Reg m, ExtensionFunction ext_fn) {
@ -49,7 +49,7 @@ static bool LoadByteRegister(TranslatorVisitor& v, Reg n, Reg t, Imm<2> imm2, Re
const auto data = (v.ir.*ext_fn)(v.ir.ReadMemory8(address, IR::AccType::NORMAL));
v.ir.SetRegister(t, data);
return true;
return v.MemoryInstructionContinues();
}
static bool LoadByteImmediate(TranslatorVisitor& v, Reg n, Reg t, bool P, bool U, bool W, Imm<12> imm12, ExtensionFunction ext_fn) {
@ -64,7 +64,7 @@ static bool LoadByteImmediate(TranslatorVisitor& v, Reg n, Reg t, bool P, bool U
if (W) {
v.ir.SetRegister(n, offset_address);
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_PLD_lit(bool /*U*/, Imm<12> /*imm12*/) {

6
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/thumb32_load_halfword.cpp vendored
View File

@ -16,7 +16,7 @@ static bool LoadHalfLiteral(TranslatorVisitor& v, bool U, Reg t, Imm<12> imm12,
const auto data = (v.ir.*ext_fn)(v.ir.ReadMemory16(v.ir.Imm32(address), IR::AccType::NORMAL));
v.ir.SetRegister(t, data);
return true;
return v.MemoryInstructionContinues();
}
static bool LoadHalfRegister(TranslatorVisitor& v, Reg n, Reg t, Imm<2> imm2, Reg m, ExtensionFunction ext_fn) {
@ -31,7 +31,7 @@ static bool LoadHalfRegister(TranslatorVisitor& v, Reg n, Reg t, Imm<2> imm2, Re
const IR::U32 data = (v.ir.*ext_fn)(v.ir.ReadMemory16(address, IR::AccType::NORMAL));
v.ir.SetRegister(t, data);
return true;
return v.MemoryInstructionContinues();
}
static bool LoadHalfImmediate(TranslatorVisitor& v, Reg n, Reg t, bool P, bool U, bool W, Imm<12> imm12, ExtensionFunction ext_fn) {
@ -48,7 +48,7 @@ static bool LoadHalfImmediate(TranslatorVisitor& v, Reg n, Reg t, bool P, bool U
}
v.ir.SetRegister(t, data);
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDRH_lit(bool U, Reg t, Imm<12> imm12) {

30
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/thumb32_load_store_dual.cpp vendored
View File

@ -36,7 +36,11 @@ static bool TableBranch(TranslatorVisitor& v, Reg n, Reg m, bool half) {
v.ir.UpdateUpperLocationDescriptor();
v.ir.BranchWritePC(branch_value);
v.ir.SetTerm(IR::Term::FastDispatchHint{});
if (v.options.check_halt_on_memory_access) {
v.ir.SetTerm(IR::Term::CheckHalt{IR::Term::ReturnToDispatch{}});
} else {
v.ir.SetTerm(IR::Term::FastDispatchHint{});
}
return false;
}
@ -68,7 +72,7 @@ static bool LoadDualImmediate(TranslatorVisitor& v, bool P, bool U, bool W, Reg
if (W) {
v.ir.SetRegister(n, offset_address);
}
return true;
return v.MemoryInstructionContinues();
}
static bool LoadDualLiteral(TranslatorVisitor& v, bool U, bool W, Reg t, Reg t2, Imm<8> imm8) {
@ -94,7 +98,7 @@ static bool LoadDualLiteral(TranslatorVisitor& v, bool U, bool W, Reg t, Reg t2,
v.ir.SetRegister(t2, v.ir.MostSignificantWord(data).result);
}
return true;
return v.MemoryInstructionContinues();
}
static bool StoreDual(TranslatorVisitor& v, bool P, bool U, bool W, Reg n, Reg t, Reg t2, Imm<8> imm8) {
@ -123,7 +127,7 @@ static bool StoreDual(TranslatorVisitor& v, bool P, bool U, bool W, Reg n, Reg t
if (W) {
v.ir.SetRegister(n, offset_address);
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDA(Reg n, Reg t) {
@ -169,7 +173,7 @@ bool TranslatorVisitor::thumb32_LDREX(Reg n, Reg t, Imm<8> imm8) {
const auto value = ir.ExclusiveReadMemory32(address, IR::AccType::ATOMIC);
ir.SetRegister(t, value);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDREXB(Reg n, Reg t) {
@ -181,7 +185,7 @@ bool TranslatorVisitor::thumb32_LDREXB(Reg n, Reg t) {
const auto value = ir.ZeroExtendToWord(ir.ExclusiveReadMemory8(address, IR::AccType::ATOMIC));
ir.SetRegister(t, value);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDREXD(Reg n, Reg t, Reg t2) {
@ -195,7 +199,7 @@ bool TranslatorVisitor::thumb32_LDREXD(Reg n, Reg t, Reg t2) {
// DO NOT SWAP hi AND lo IN BIG ENDIAN MODE, THIS IS CORRECT BEHAVIOUR
ir.SetRegister(t, lo);
ir.SetRegister(t2, hi);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDREXH(Reg n, Reg t) {
@ -207,7 +211,7 @@ bool TranslatorVisitor::thumb32_LDREXH(Reg n, Reg t) {
const auto value = ir.ZeroExtendToWord(ir.ExclusiveReadMemory16(address, IR::AccType::ATOMIC));
ir.SetRegister(t, value);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_STL(Reg n, Reg t) {
@ -217,7 +221,7 @@ bool TranslatorVisitor::thumb32_STL(Reg n, Reg t) {
const auto address = ir.GetRegister(n);
ir.WriteMemory32(address, ir.GetRegister(t), IR::AccType::ORDERED);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_STREX(Reg n, Reg t, Reg d, Imm<8> imm8) {
@ -232,7 +236,7 @@ bool TranslatorVisitor::thumb32_STREX(Reg n, Reg t, Reg d, Imm<8> imm8) {
const auto value = ir.GetRegister(t);
const auto passed = ir.ExclusiveWriteMemory32(address, value, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_STREXB(Reg n, Reg t, Reg d) {
@ -247,7 +251,7 @@ bool TranslatorVisitor::thumb32_STREXB(Reg n, Reg t, Reg d) {
const auto value = ir.LeastSignificantByte(ir.GetRegister(t));
const auto passed = ir.ExclusiveWriteMemory8(address, value, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_STREXD(Reg n, Reg t, Reg t2, Reg d) {
@ -263,7 +267,7 @@ bool TranslatorVisitor::thumb32_STREXD(Reg n, Reg t, Reg t2, Reg d) {
const auto value_hi = ir.GetRegister(t2);
const auto passed = ir.ExclusiveWriteMemory64(address, value_lo, value_hi, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_STREXH(Reg n, Reg t, Reg d) {
@ -278,7 +282,7 @@ bool TranslatorVisitor::thumb32_STREXH(Reg n, Reg t, Reg d) {
const auto value = ir.LeastSignificantHalf(ir.GetRegister(t));
const auto passed = ir.ExclusiveWriteMemory16(address, value, IR::AccType::ATOMIC);
ir.SetRegister(d, passed);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_TBB(Reg n, Reg m) {

40
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/thumb32_load_store_multiple.cpp vendored
View File

@ -12,42 +12,44 @@ static bool ITBlockCheck(const A32::IREmitter& ir) {
return ir.current_location.IT().IsInITBlock() && !ir.current_location.IT().IsLastInITBlock();
}
static bool LDMHelper(A32::IREmitter& ir, bool W, Reg n, u32 list, const IR::U32& start_address, const IR::U32& writeback_address) {
static bool LDMHelper(TranslatorVisitor& v, bool W, Reg n, u32 list, const IR::U32& start_address, const IR::U32& writeback_address) {
auto address = start_address;
for (size_t i = 0; i <= 14; i++) {
if (mcl::bit::get_bit(i, list)) {
ir.SetRegister(static_cast<Reg>(i), ir.ReadMemory32(address, IR::AccType::ATOMIC));
address = ir.Add(address, ir.Imm32(4));
v.ir.SetRegister(static_cast<Reg>(i), v.ir.ReadMemory32(address, IR::AccType::ATOMIC));
address = v.ir.Add(address, v.ir.Imm32(4));
}
}
if (W && !mcl::bit::get_bit(RegNumber(n), list)) {
ir.SetRegister(n, writeback_address);
v.ir.SetRegister(n, writeback_address);
}
if (mcl::bit::get_bit<15>(list)) {
ir.UpdateUpperLocationDescriptor();
ir.LoadWritePC(ir.ReadMemory32(address, IR::AccType::ATOMIC));
if (n == Reg::R13) {
ir.SetTerm(IR::Term::PopRSBHint{});
v.ir.UpdateUpperLocationDescriptor();
v.ir.LoadWritePC(v.ir.ReadMemory32(address, IR::AccType::ATOMIC));
if (v.options.check_halt_on_memory_access) {
v.ir.SetTerm(IR::Term::CheckHalt{IR::Term::ReturnToDispatch{}});
} else if (n == Reg::R13) {
v.ir.SetTerm(IR::Term::PopRSBHint{});
} else {
ir.SetTerm(IR::Term::FastDispatchHint{});
v.ir.SetTerm(IR::Term::FastDispatchHint{});
}
return false;
}
return true;
return v.MemoryInstructionContinues();
}
static bool STMHelper(A32::IREmitter& ir, bool W, Reg n, u32 list, const IR::U32& start_address, const IR::U32& writeback_address) {
static bool STMHelper(TranslatorVisitor& v, bool W, Reg n, u32 list, const IR::U32& start_address, const IR::U32& writeback_address) {
auto address = start_address;
for (size_t i = 0; i <= 14; i++) {
if (mcl::bit::get_bit(i, list)) {
ir.WriteMemory32(address, ir.GetRegister(static_cast<Reg>(i)), IR::AccType::ATOMIC);
address = ir.Add(address, ir.Imm32(4));
v.ir.WriteMemory32(address, v.ir.GetRegister(static_cast<Reg>(i)), IR::AccType::ATOMIC);
address = v.ir.Add(address, v.ir.Imm32(4));
}
}
if (W) {
ir.SetRegister(n, writeback_address);
v.ir.SetRegister(n, writeback_address);
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDMDB(bool W, Reg n, Imm<16> reg_list) {
@ -72,7 +74,7 @@ bool TranslatorVisitor::thumb32_LDMDB(bool W, Reg n, Imm<16> reg_list) {
// Start address is the same as the writeback address.
const IR::U32 start_address = ir.Sub(ir.GetRegister(n), ir.Imm32(4 * num_regs));
return LDMHelper(ir, W, n, regs_imm, start_address, start_address);
return LDMHelper(*this, W, n, regs_imm, start_address, start_address);
}
bool TranslatorVisitor::thumb32_LDMIA(bool W, Reg n, Imm<16> reg_list) {
@ -97,7 +99,7 @@ bool TranslatorVisitor::thumb32_LDMIA(bool W, Reg n, Imm<16> reg_list) {
const auto start_address = ir.GetRegister(n);
const auto writeback_address = ir.Add(start_address, ir.Imm32(num_regs * 4));
return LDMHelper(ir, W, n, regs_imm, start_address, writeback_address);
return LDMHelper(*this, W, n, regs_imm, start_address, writeback_address);
}
bool TranslatorVisitor::thumb32_POP(Imm<16> reg_list) {
@ -124,7 +126,7 @@ bool TranslatorVisitor::thumb32_STMIA(bool W, Reg n, Imm<15> reg_list) {
const auto start_address = ir.GetRegister(n);
const auto writeback_address = ir.Add(start_address, ir.Imm32(num_regs * 4));
return STMHelper(ir, W, n, regs_imm, start_address, writeback_address);
return STMHelper(*this, W, n, regs_imm, start_address, writeback_address);
}
bool TranslatorVisitor::thumb32_STMDB(bool W, Reg n, Imm<15> reg_list) {
@ -143,7 +145,7 @@ bool TranslatorVisitor::thumb32_STMDB(bool W, Reg n, Imm<15> reg_list) {
// Start address is the same as the writeback address.
const IR::U32 start_address = ir.Sub(ir.GetRegister(n), ir.Imm32(4 * num_regs));
return STMHelper(ir, W, n, regs_imm, start_address, start_address);
return STMHelper(*this, W, n, regs_imm, start_address, start_address);
}
} // namespace Dynarmic::A32

30
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/thumb32_load_word.cpp vendored
View File

@ -23,12 +23,16 @@ bool TranslatorVisitor::thumb32_LDR_lit(bool U, Reg t, Imm<12> imm12) {
if (t == Reg::PC) {
ir.UpdateUpperLocationDescriptor();
ir.LoadWritePC(data);
ir.SetTerm(IR::Term::FastDispatchHint{});
if (options.check_halt_on_memory_access) {
ir.SetTerm(IR::Term::CheckHalt{IR::Term::ReturnToDispatch{}});
} else {
ir.SetTerm(IR::Term::FastDispatchHint{});
}
return false;
}
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDR_imm8(Reg n, Reg t, bool P, bool U, bool W, Imm<8> imm8) {
@ -58,7 +62,9 @@ bool TranslatorVisitor::thumb32_LDR_imm8(Reg n, Reg t, bool P, bool U, bool W, I
ir.UpdateUpperLocationDescriptor();
ir.LoadWritePC(data);
if (!P && W && n == Reg::R13) {
if (options.check_halt_on_memory_access) {
ir.SetTerm(IR::Term::CheckHalt{IR::Term::ReturnToDispatch{}});
} else if (!P && W && n == Reg::R13) {
ir.SetTerm(IR::Term::PopRSBHint{});
} else {
ir.SetTerm(IR::Term::FastDispatchHint{});
@ -68,7 +74,7 @@ bool TranslatorVisitor::thumb32_LDR_imm8(Reg n, Reg t, bool P, bool U, bool W, I
}
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDR_imm12(Reg n, Reg t, Imm<12> imm12) {
@ -84,12 +90,16 @@ bool TranslatorVisitor::thumb32_LDR_imm12(Reg n, Reg t, Imm<12> imm12) {
if (t == Reg::PC) {
ir.UpdateUpperLocationDescriptor();
ir.LoadWritePC(data);
ir.SetTerm(IR::Term::FastDispatchHint{});
if (options.check_halt_on_memory_access) {
ir.SetTerm(IR::Term::CheckHalt{IR::Term::ReturnToDispatch{}});
} else {
ir.SetTerm(IR::Term::FastDispatchHint{});
}
return false;
}
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDR_reg(Reg n, Reg t, Imm<2> imm2, Reg m) {
@ -109,12 +119,16 @@ bool TranslatorVisitor::thumb32_LDR_reg(Reg n, Reg t, Imm<2> imm2, Reg m) {
if (t == Reg::PC) {
ir.UpdateUpperLocationDescriptor();
ir.LoadWritePC(data);
ir.SetTerm(IR::Term::FastDispatchHint{});
if (options.check_halt_on_memory_access) {
ir.SetTerm(IR::Term::CheckHalt{IR::Term::ReturnToDispatch{}});
} else {
ir.SetTerm(IR::Term::FastDispatchHint{});
}
return false;
}
ir.SetRegister(t, data);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::thumb32_LDRT(Reg n, Reg t, Imm<8> imm8) {

16
externals/dynarmic/src/dynarmic/frontend/A32/translate/impl/vfp.cpp vendored
View File

@ -1201,7 +1201,7 @@ bool TranslatorVisitor::vfp_VPOP(Cond cond, bool D, size_t Vd, bool sz, Imm<8> i
}
}
return true;
return MemoryInstructionContinues();
}
// VPUSH.{F32,F64} <list>
@ -1242,7 +1242,7 @@ bool TranslatorVisitor::vfp_VPUSH(Cond cond, bool D, size_t Vd, bool sz, Imm<8>
}
}
return true;
return MemoryInstructionContinues();
}
// VLDR<c> <Dd>, [<Rn>{, #+/-<imm>}]
@ -1268,7 +1268,7 @@ bool TranslatorVisitor::vfp_VLDR(Cond cond, bool U, bool D, Reg n, size_t Vd, bo
ir.SetExtendedRegister(d, ir.ReadMemory32(address, IR::AccType::ATOMIC));
}
return true;
return MemoryInstructionContinues();
}
// VSTR<c> <Dd>, [<Rn>{, #+/-<imm>}]
@ -1295,7 +1295,7 @@ bool TranslatorVisitor::vfp_VSTR(Cond cond, bool U, bool D, Reg n, size_t Vd, bo
ir.WriteMemory32(address, ir.GetExtendedRegister(d), IR::AccType::ATOMIC);
}
return true;
return MemoryInstructionContinues();
}
// VSTM{mode}<c> <Rn>{!}, <list of double registers>
@ -1347,7 +1347,7 @@ bool TranslatorVisitor::vfp_VSTM_a1(Cond cond, bool p, bool u, bool D, bool w, R
address = ir.Add(address, ir.Imm32(4));
}
return true;
return MemoryInstructionContinues();
}
// VSTM{mode}<c> <Rn>{!}, <list of single registers>
@ -1390,7 +1390,7 @@ bool TranslatorVisitor::vfp_VSTM_a2(Cond cond, bool p, bool u, bool D, bool w, R
address = ir.Add(address, ir.Imm32(4));
}
return true;
return MemoryInstructionContinues();
}
// VLDM{mode}<c> <Rn>{!}, <list of double registers>
@ -1440,7 +1440,7 @@ bool TranslatorVisitor::vfp_VLDM_a1(Cond cond, bool p, bool u, bool D, bool w, R
ir.SetExtendedRegister(d + i, ir.Pack2x32To1x64(word1, word2));
}
return true;
return MemoryInstructionContinues();
}
// VLDM{mode}<c> <Rn>{!}, <list of single registers>
@ -1483,7 +1483,7 @@ bool TranslatorVisitor::vfp_VLDM_a2(Cond cond, bool p, bool u, bool D, bool w, R
ir.SetExtendedRegister(d + i, word);
}
return true;
return MemoryInstructionContinues();
}
} // namespace Dynarmic::A32

6
externals/dynarmic/src/dynarmic/frontend/A64/translate/a64_translate.h vendored
View File

@ -34,6 +34,12 @@ struct TranslationOptions {
/// If this is false, we treat the instruction as a NOP.
/// If this is true, we emit an ExceptionRaised instruction.
bool hook_hint_instructions = true;
/// This changes what IR we emit when we translate a memory instruction.
/// If this is false, memory accesses are not considered terminal.
/// If this is true, memory access are considered terminal. This allows
/// accurately emulating protection fault handlers.
bool check_halt_on_memory_access = false;
};
/**

9
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/impl.cpp vendored
View File

@ -41,6 +41,15 @@ bool TranslatorVisitor::RaiseException(Exception exception) {
return false;
}
bool TranslatorVisitor::MemoryInstructionContinues() {
if (options.check_halt_on_memory_access) {
ir.SetTerm(IR::Term::LinkBlock{ir.current_location->AdvancePC(4)});
return false;
}
return true;
}
std::optional<TranslatorVisitor::BitMasks> TranslatorVisitor::DecodeBitMasks(bool immN, Imm<6> imms, Imm<6> immr, bool immediate) {
const int len = mcl::bit::highest_set_bit((immN ? 1 << 6 : 0) | (imms.ZeroExtend() ^ 0b111111));
if (len < 1) {

1
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/impl.h vendored
View File

@ -30,6 +30,7 @@ struct TranslatorVisitor final {
bool ReservedValue();
bool UnallocatedEncoding();
bool RaiseException(Exception exception);
bool MemoryInstructionContinues();
struct BitMasks {
u64 wmask, tmask;

4
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_exclusive.cpp vendored
View File

@ -72,7 +72,7 @@ static bool ExclusiveSharedDecodeAndOperation(TranslatorVisitor& v, bool pair, s
UNREACHABLE();
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STXR(Imm<2> sz, Reg Rs, Reg Rn, Reg Rt) {
@ -175,7 +175,7 @@ static bool OrderedSharedDecodeAndOperation(TranslatorVisitor& v, size_t size, b
UNREACHABLE();
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STLLR(Imm<2> sz, Reg Rn, Reg Rt) {

6
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_load_literal.cpp vendored
View File

@ -15,7 +15,7 @@ bool TranslatorVisitor::LDR_lit_gen(bool opc_0, Imm<19> imm19, Reg Rt) {
const auto data = Mem(ir.Imm64(address), size, IR::AccType::NORMAL);
X(8 * size, Rt, data);
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::LDR_lit_fpsimd(Imm<2> opc, Imm<19> imm19, Vec Vt) {
@ -33,7 +33,7 @@ bool TranslatorVisitor::LDR_lit_fpsimd(Imm<2> opc, Imm<19> imm19, Vec Vt) {
} else {
V(128, Vt, ir.ZeroExtendToQuad(data));
}
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::LDRSW_lit(Imm<19> imm19, Reg Rt) {
@ -42,7 +42,7 @@ bool TranslatorVisitor::LDRSW_lit(Imm<19> imm19, Reg Rt) {
const auto data = Mem(ir.Imm64(address), 4, IR::AccType::NORMAL);
X(64, Rt, ir.SignExtendWordToLong(data));
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::PRFM_lit(Imm<19> /*imm19*/, Imm<5> /*prfop*/) {

2
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_multiple_structures.cpp vendored
View File

@ -104,7 +104,7 @@ static bool SharedDecodeAndOperation(TranslatorVisitor& v, bool wback, IR::MemOp
}
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STx_mult_1(bool Q, Imm<4> opcode, Imm<2> size, Reg Rn, Vec Vt) {

4
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_register_immediate.cpp vendored
View File

@ -72,7 +72,7 @@ static bool LoadStoreRegisterImmediate(TranslatorVisitor& v, bool wback, bool po
}
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STRx_LDRx_imm_1(Imm<2> size, Imm<2> opc, Imm<9> imm9, bool not_postindex, Reg Rn, Reg Rt) {
@ -165,7 +165,7 @@ static bool LoadStoreSIMD(TranslatorVisitor& v, bool wback, bool postindex, size
}
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STR_imm_fpsimd_1(Imm<2> size, Imm<1> opc_1, Imm<9> imm9, bool not_postindex, Reg Rn, Vec Vt) {

4
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_register_pair.cpp vendored
View File

@ -78,7 +78,7 @@ bool TranslatorVisitor::STP_LDP_gen(Imm<2> opc, bool not_postindex, bool wback,
}
}
return true;
return MemoryInstructionContinues();
}
bool TranslatorVisitor::STP_LDP_fpsimd(Imm<2> opc, bool not_postindex, bool wback, Imm<1> L, Imm<7> imm7, Vec Vt2, Reg Rn, Vec Vt) {
@ -148,7 +148,7 @@ bool TranslatorVisitor::STP_LDP_fpsimd(Imm<2> opc, bool not_postindex, bool wbac
}
}
return true;
return MemoryInstructionContinues();
}
} // namespace Dynarmic::A64

4
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_register_register_offset.cpp vendored
View File

@ -70,7 +70,7 @@ static bool RegSharedDecodeAndOperation(TranslatorVisitor& v, size_t scale, u8 s
UNREACHABLE();
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STRx_reg(Imm<2> size, Imm<1> opc_1, Reg Rm, Imm<3> option, bool S, Reg Rn, Reg Rt) {
@ -128,7 +128,7 @@ static bool VecSharedDecodeAndOperation(TranslatorVisitor& v, size_t scale, u8 s
UNREACHABLE();
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STR_reg_fpsimd(Imm<2> size, Imm<1> opc_1, Reg Rm, Imm<3> option, bool S, Reg Rn, Vec Vt) {

8
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_register_unprivileged.cpp vendored
View File

@ -22,7 +22,7 @@ static bool StoreRegister(TranslatorVisitor& v, const size_t datasize, const Imm
const IR::UAny data = v.X(datasize, Rt);
v.Mem(address, datasize / 8, acctype, data);
return true;
return v.MemoryInstructionContinues();
}
static bool LoadRegister(TranslatorVisitor& v, const size_t datasize, const Imm<9> imm9, const Reg Rn, const Reg Rt) {
@ -42,7 +42,7 @@ static bool LoadRegister(TranslatorVisitor& v, const size_t datasize, const Imm<
// max is used to zeroextend < 32 to 32, and > 32 to 64
const size_t extended_size = std::max<size_t>(32, datasize);
v.X(extended_size, Rt, v.ZeroExtend(data, extended_size));
return true;
return v.MemoryInstructionContinues();
}
static bool LoadRegisterSigned(TranslatorVisitor& v, const size_t datasize, const Imm<2> opc, const Imm<9> imm9, const Reg Rn, const Reg Rt) {
@ -90,7 +90,7 @@ static bool LoadRegisterSigned(TranslatorVisitor& v, const size_t datasize, cons
// Prefetch(address, Rt);
break;
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::STTRB(Imm<9> imm9, Reg Rn, Reg Rt) {
@ -144,6 +144,6 @@ bool TranslatorVisitor::LDTRSW(Imm<9> imm9, Reg Rn, Reg Rt) {
const IR::UAny data = Mem(address, 4, acctype);
X(64, Rt, SignExtend(data, 64));
return true;
return MemoryInstructionContinues();
}
} // namespace Dynarmic::A64

2
externals/dynarmic/src/dynarmic/frontend/A64/translate/impl/load_store_single_structure.cpp vendored
View File

@ -98,7 +98,7 @@ static bool SharedDecodeAndOperation(TranslatorVisitor& v, bool wback, IR::MemOp
}
}
return true;
return v.MemoryInstructionContinues();
}
bool TranslatorVisitor::LD1_sngl_1(bool Q, Imm<2> upper_opcode, bool S, Imm<2> size, Reg Rn, Vec Vt) {

4
externals/dynarmic/src/dynarmic/interface/A32/config.h vendored
View File

@ -208,6 +208,10 @@ struct UserConfig {
/// to avoid writting certain unnecessary code only needed for cycle timers.
bool wall_clock_cntpct = false;
/// This allows accurately emulating protection fault handlers. If true, we check
/// for exit after every data memory access by the emulated program.
bool check_halt_on_memory_access = false;
/// This option allows you to disable cycle counting. If this is set to false,
/// AddTicks and GetTicksRemaining are never called, and no cycle counting is done.
bool enable_cycle_counting = true;

4
externals/dynarmic/src/dynarmic/interface/A64/config.h vendored
View File

@ -273,6 +273,10 @@ struct UserConfig {
/// to avoid writting certain unnecessary code only needed for cycle timers.
bool wall_clock_cntpct = false;
/// This allows accurately emulating protection fault handlers. If true, we check
/// for exit after every data memory access by the emulated program.
bool check_halt_on_memory_access = false;
/// This option allows you to disable cycle counting. If this is set to false,
/// AddTicks and GetTicksRemaining are never called, and no cycle counting is done.
bool enable_cycle_counting = true;

100
externals/dynarmic/tests/CMakeLists.txt vendored
View File

@ -1,16 +1,4 @@
if ((NOT "A32" IN_LIST DYNARMIC_FRONTENDS) OR (NOT "A64" IN_LIST DYNARMIC_FRONTENDS))
return()
endif()
add_executable(dynarmic_tests
A32/test_arm_disassembler.cpp
A32/test_arm_instructions.cpp
A32/test_thumb_instructions.cpp
A32/testenv.h
A64/a64.cpp
A64/testenv.h
cpu_info.cpp
decoder_tests.cpp
fp/FPToFixed.cpp
fp/FPValue.cpp
fp/mantissa_util_tests.cpp
@ -19,46 +7,86 @@ add_executable(dynarmic_tests
rand_int.h
)
if (NOT MSVC)
if ("A32" IN_LIST DYNARMIC_FRONTENDS)
target_sources(dynarmic_tests PRIVATE
rsqrt_test.cpp
rsqrt_test_fn.s
A32/test_arm_disassembler.cpp
A32/test_arm_instructions.cpp
A32/test_thumb_instructions.cpp
A32/testenv.h
decoder_tests.cpp
)
endif()
if ("A64" IN_LIST DYNARMIC_FRONTENDS)
target_sources(dynarmic_tests PRIVATE
A64/a64.cpp
A64/testenv.h
)
endif()
if (DYNARMIC_TESTS_USE_UNICORN)
target_link_libraries(dynarmic_tests PRIVATE Unicorn::Unicorn)
target_sources(dynarmic_tests PRIVATE
A32/fuzz_arm.cpp
A32/fuzz_thumb.cpp
A64/fuzz_with_unicorn.cpp
A64/misaligned_page_table.cpp
A64/verify_unicorn.cpp
fuzz_util.cpp
fuzz_util.h
unicorn_emu/a32_unicorn.cpp
unicorn_emu/a32_unicorn.h
unicorn_emu/a64_unicorn.cpp
unicorn_emu/a64_unicorn.h
)
target_link_libraries(dynarmic_tests PRIVATE Unicorn::Unicorn)
if ("A32" IN_LIST DYNARMIC_FRONTENDS)
target_sources(dynarmic_tests PRIVATE
A32/fuzz_arm.cpp
A32/fuzz_thumb.cpp
unicorn_emu/a32_unicorn.cpp
unicorn_emu/a32_unicorn.h
)
endif()
if ("A64" IN_LIST DYNARMIC_FRONTENDS)
target_sources(dynarmic_tests PRIVATE
A64/fuzz_with_unicorn.cpp
A64/misaligned_page_table.cpp
A64/verify_unicorn.cpp
unicorn_emu/a64_unicorn.cpp
unicorn_emu/a64_unicorn.h
)
endif()
endif()
add_executable(dynarmic_print_info
print_info.cpp
)
if (ARCHITECTURE STREQUAL "x86_64")
target_link_libraries(dynarmic_tests PRIVATE xbyak)
target_sources(dynarmic_tests PRIVATE
x64_cpu_info.cpp
)
if (NOT MSVC)
target_sources(dynarmic_tests PRIVATE
rsqrt_test.cpp
rsqrt_test_fn.s
)
endif()
endif()
include(CreateDirectoryGroups)
create_target_directory_groups(dynarmic_tests)
create_target_directory_groups(dynarmic_print_info)
target_link_libraries(dynarmic_tests PRIVATE dynarmic boost catch fmt xbyak)
if (("A32" IN_LIST DYNARMIC_FRONTENDS) AND ("A64" IN_LIST DYNARMIC_FRONTENDS))
add_executable(dynarmic_print_info
print_info.cpp
)
create_target_directory_groups(dynarmic_print_info)
target_link_libraries(dynarmic_print_info PRIVATE dynarmic boost catch fmt)
target_include_directories(dynarmic_print_info PRIVATE . ../src)
target_compile_options(dynarmic_print_info PRIVATE ${DYNARMIC_CXX_FLAGS})
target_compile_definitions(dynarmic_print_info PRIVATE FMT_USE_USER_DEFINED_LITERALS=1)
endif()
create_target_directory_groups(dynarmic_tests)
target_link_libraries(dynarmic_tests PRIVATE dynarmic boost catch fmt)
target_include_directories(dynarmic_tests PRIVATE . ../src)
target_compile_options(dynarmic_tests PRIVATE ${DYNARMIC_CXX_FLAGS})
target_compile_definitions(dynarmic_tests PRIVATE FMT_USE_USER_DEFINED_LITERALS=1 CATCH_CONFIG_ENABLE_BENCHMARKING=1)
target_link_libraries(dynarmic_print_info PRIVATE dynarmic boost catch fmt)
target_include_directories(dynarmic_print_info PRIVATE . ../src)
target_compile_options(dynarmic_print_info PRIVATE ${DYNARMIC_CXX_FLAGS})
target_compile_definitions(dynarmic_print_info PRIVATE FMT_USE_USER_DEFINED_LITERALS=1)
add_test(dynarmic_tests dynarmic_tests --durations yes)

115
externals/dynarmic/tests/x64_cpu_info.cpp vendored Executable file
View File

@ -0,0 +1,115 @@
/* This file is part of the dynarmic project.
* Copyright (c) 2020 MerryMage
* SPDX-License-Identifier: 0BSD
*/
#include <array>
#include <utility>
#include <catch2/catch.hpp>
#include <xbyak/xbyak_util.h>
TEST_CASE("Host CPU supports", "[a64]") {
using Cpu = Xbyak::util::Cpu;
Cpu cpu_info;
std::array<uint32_t, 4> cpu_name;
for (uint32_t i = 2; i < 5; ++i) {
cpu_info.getCpuid(0x80000000 | i, cpu_name.data());
std::printf("%.16s", reinterpret_cast<const char*>(cpu_name.data()));
}
std::putchar('\n');
cpu_info.putFamily();
const std::array types{
#define X(NAME) std::make_pair(Cpu::Type{Cpu::NAME}, &#NAME[1])
X(t3DN),
X(tADX),
X(tAESNI),
X(tAMD),
X(tAMX_BF16),
X(tAMX_INT8),
X(tAMX_TILE),
X(tAVX),
X(tAVX2),
X(tAVX512_4FMAPS),
X(tAVX512_4VNNIW),
X(tAVX512_BF16),
X(tAVX512_BITALG),
X(tAVX512_FP16),
X(tAVX512_IFMA),
X(tAVX512_VBMI),
X(tAVX512_VBMI2),
X(tAVX512_VNNI),
X(tAVX512_VP2INTERSECT),
X(tAVX512_VPOPCNTDQ),
X(tAVX512BW),
X(tAVX512CD),
X(tAVX512DQ),
X(tAVX512ER),
X(tAVX512F),
X(tAVX512IFMA),
X(tAVX512PF),
X(tAVX512VBMI),
X(tAVX512VL),
X(tAVX_VNNI),
X(tBMI1),
X(tBMI2),
X(tCLDEMOTE),
X(tCLFLUSHOPT),
X(tCLZERO),
X(tCMOV),
X(tE3DN),
X(tENHANCED_REP),
X(tF16C),
X(tFMA),
X(tGFNI),
X(tHLE),
X(tINTEL),
X(tLZCNT),
X(tMMX),
X(tMMX2),
X(tMOVBE),
X(tMOVDIR64B),
X(tMOVDIRI),
X(tMPX),
X(tOSXSAVE),
X(tPCLMULQDQ),
X(tPOPCNT),
X(tPREFETCHW),
X(tPREFETCHWT1),
X(tRDRAND),
X(tRDSEED),
X(tRDTSCP),
X(tRTM),
X(tSHA),
X(tSMAP),
X(tSSE),
X(tSSE2),
X(tSSE3),
X(tSSE41),
X(tSSE42),
X(tSSSE3),
X(tVAES),
X(tVPCLMULQDQ),
X(tWAITPKG),
#undef X
};
constexpr size_t line_max = 80;
size_t line_length = 0;
for (const auto& [type, name] : types) {
if (cpu_info.has(type)) {
const size_t name_length = std::strlen(name) + 1;
if ((line_length + name_length) >= line_max) {
line_length = name_length;
std::putchar('\n');
} else if (line_length) {
std::putchar(' ');
}
std::fputs(name, stdout);
line_length += name_length;
}
}
std::putchar('\n');
}

3
src/common/page_table.h
View File

@ -15,6 +15,9 @@ enum class PageType : u8 {
Unmapped,
/// Page is mapped to regular memory. This is the only type you can get pointers to.
Memory,
/// Page is mapped to regular memory, but inaccessible from CPU fastmem and must use
/// the callbacks.
DebugMemory,
/// Page is mapped to regular memory, but also needs to check for rasterizer cache flushing and
/// invalidation
RasterizerCachedMemory,

41
src/core/arm/arm_interface.cpp
View File

@ -121,8 +121,15 @@ void ARM_Interface::Run() {
// Notify the debugger and go to sleep if a breakpoint was hit.
if (Has(hr, breakpoint)) {
RewindBreakpointInstruction();
system.GetDebugger().NotifyThreadStopped(current_thread);
current_thread->RequestSuspend(Kernel::SuspendType::Debug);
current_thread->RequestSuspend(SuspendType::Debug);
break;
}
if (Has(hr, watchpoint)) {
RewindBreakpointInstruction();
system.GetDebugger().NotifyThreadWatchpoint(current_thread, *HaltedWatchpoint());
current_thread->RequestSuspend(SuspendType::Debug);
break;
}
@ -136,4 +143,36 @@ void ARM_Interface::Run() {
}
}
void ARM_Interface::LoadWatchpointArray(const WatchpointArray& wp) {
watchpoints = &wp;
}
const Kernel::DebugWatchpoint* ARM_Interface::MatchingWatchpoint(
VAddr addr, u64 size, Kernel::DebugWatchpointType access_type) const {
if (!watchpoints) {
return nullptr;
}
const VAddr start_address{addr};
const VAddr end_address{addr + size};
for (size_t i = 0; i < Core::Hardware::NUM_WATCHPOINTS; i++) {
const auto& watch{(*watchpoints)[i]};
if (end_address <= watch.start_address) {
continue;
}
if (start_address >= watch.end_address) {
continue;
}
if ((access_type & watch.type) == Kernel::DebugWatchpointType::None) {
continue;
}
return &watch;
}
return nullptr;
}
} // namespace Core

13
src/core/arm/arm_interface.h
View File

@ -5,6 +5,7 @@
#pragma once
#include <array>
#include <span>
#include <vector>
#include <dynarmic/interface/halt_reason.h>
@ -19,13 +20,16 @@ struct PageTable;
namespace Kernel {
enum class VMAPermission : u8;
}
enum class DebugWatchpointType : u8;
struct DebugWatchpoint;
} // namespace Kernel
namespace Core {
class System;
class CPUInterruptHandler;
using CPUInterrupts = std::array<CPUInterruptHandler, Core::Hardware::NUM_CPU_CORES>;
using WatchpointArray = std::array<Kernel::DebugWatchpoint, Core::Hardware::NUM_WATCHPOINTS>;
/// Generic ARMv8 CPU interface
class ARM_Interface {
@ -170,6 +174,7 @@ public:
virtual void SaveContext(ThreadContext64& ctx) = 0;
virtual void LoadContext(const ThreadContext32& ctx) = 0;
virtual void LoadContext(const ThreadContext64& ctx) = 0;
void LoadWatchpointArray(const WatchpointArray& wp);
/// Clears the exclusive monitor's state.
virtual void ClearExclusiveState() = 0;
@ -198,18 +203,24 @@ public:
static constexpr Dynarmic::HaltReason break_loop = Dynarmic::HaltReason::UserDefined2;
static constexpr Dynarmic::HaltReason svc_call = Dynarmic::HaltReason::UserDefined3;
static constexpr Dynarmic::HaltReason breakpoint = Dynarmic::HaltReason::UserDefined4;
static constexpr Dynarmic::HaltReason watchpoint = Dynarmic::HaltReason::UserDefined5;
protected:
/// System context that this ARM interface is running under.
System& system;
CPUInterrupts& interrupt_handlers;
const WatchpointArray* watchpoints;
bool uses_wall_clock;
static void SymbolicateBacktrace(Core::System& system, std::vector<BacktraceEntry>& out);
const Kernel::DebugWatchpoint* MatchingWatchpoint(
VAddr addr, u64 size, Kernel::DebugWatchpointType access_type) const;
virtual Dynarmic::HaltReason RunJit() = 0;
virtual Dynarmic::HaltReason StepJit() = 0;
virtual u32 GetSvcNumber() const = 0;
virtual const Kernel::DebugWatchpoint* HaltedWatchpoint() const = 0;
virtual void RewindBreakpointInstruction() = 0;
};
} // namespace Core

69
src/core/arm/dynarmic/arm_dynarmic_32.cpp
View File

@ -29,45 +29,62 @@ using namespace Common::Literals;
class DynarmicCallbacks32 : public Dynarmic::A32::UserCallbacks {
public:
explicit DynarmicCallbacks32(ARM_Dynarmic_32& parent_)
: parent{parent_}, memory(parent.system.Memory()) {}
: parent{parent_},
memory(parent.system.Memory()), debugger_enabled{parent.system.DebuggerEnabled()} {}
u8 MemoryRead8(u32 vaddr) override {
CheckMemoryAccess(vaddr, 1, Kernel::DebugWatchpointType::Read);
return memory.Read8(vaddr);
}
u16 MemoryRead16(u32 vaddr) override {
CheckMemoryAccess(vaddr, 2, Kernel::DebugWatchpointType::Read);
return memory.Read16(vaddr);
}
u32 MemoryRead32(u32 vaddr) override {
CheckMemoryAccess(vaddr, 4, Kernel::DebugWatchpointType::Read);
return memory.Read32(vaddr);
}
u64 MemoryRead64(u32 vaddr) override {
CheckMemoryAccess(vaddr, 8, Kernel::DebugWatchpointType::Read);
return memory.Read64(vaddr);
}
void MemoryWrite8(u32 vaddr, u8 value) override {
memory.Write8(vaddr, value);
if (CheckMemoryAccess(vaddr, 1, Kernel::DebugWatchpointType::Write)) {
memory.Write8(vaddr, value);
}
}
void MemoryWrite16(u32 vaddr, u16 value) override {
memory.Write16(vaddr, value);
if (CheckMemoryAccess(vaddr, 2, Kernel::DebugWatchpointType::Write)) {
memory.Write16(vaddr, value);
}
}
void MemoryWrite32(u32 vaddr, u32 value) override {
memory.Write32(vaddr, value);
if (CheckMemoryAccess(vaddr, 4, Kernel::DebugWatchpointType::Write)) {
memory.Write32(vaddr, value);
}
}
void MemoryWrite64(u32 vaddr, u64 value) override {
memory.Write64(vaddr, value);
if (CheckMemoryAccess(vaddr, 8, Kernel::DebugWatchpointType::Write)) {
memory.Write64(vaddr, value);
}
}
bool MemoryWriteExclusive8(u32 vaddr, u8 value, u8 expected) override {
return memory.WriteExclusive8(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 1, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive8(vaddr, value, expected);
}
bool MemoryWriteExclusive16(u32 vaddr, u16 value, u16 expected) override {
return memory.WriteExclusive16(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 2, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive16(vaddr, value, expected);
}
bool MemoryWriteExclusive32(u32 vaddr, u32 value, u32 expected) override {
return memory.WriteExclusive32(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 4, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive32(vaddr, value, expected);
}
bool MemoryWriteExclusive64(u32 vaddr, u64 value, u64 expected) override {
return memory.WriteExclusive64(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 8, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive64(vaddr, value, expected);
}
void InterpreterFallback(u32 pc, std::size_t num_instructions) override {
@ -77,8 +94,8 @@ public:
}
void ExceptionRaised(u32 pc, Dynarmic::A32::Exception exception) override {
if (parent.system.DebuggerEnabled()) {
parent.jit.load()->Regs()[15] = pc;
if (debugger_enabled) {
parent.SaveContext(parent.breakpoint_context);
parent.jit.load()->HaltExecution(ARM_Interface::breakpoint);
return;
}
@ -124,9 +141,26 @@ public:
return std::max<s64>(parent.system.CoreTiming().GetDowncount(), 0);
}
bool CheckMemoryAccess(VAddr addr, u64 size, Kernel::DebugWatchpointType type) {
if (!debugger_enabled) {
return true;
}
const auto match{parent.MatchingWatchpoint(addr, size, type)};
if (match) {
parent.SaveContext(parent.breakpoint_context);
parent.jit.load()->HaltExecution(ARM_Interface::watchpoint);
parent.halted_watchpoint = match;
return false;
}
return true;
}
ARM_Dynarmic_32& parent;
Core::Memory::Memory& memory;
std::size_t num_interpreted_instructions{};
bool debugger_enabled{};
static constexpr u64 minimum_run_cycles = 10000U;
};
@ -161,6 +195,11 @@ std::shared_ptr<Dynarmic::A32::Jit> ARM_Dynarmic_32::MakeJit(Common::PageTable*
config.code_cache_size = 512_MiB;
config.far_code_offset = 400_MiB;
// Allow memory fault handling to work
if (system.DebuggerEnabled()) {
config.check_halt_on_memory_access = true;
}
// null_jit
if (!page_table) {
// Don't waste too much memory on null_jit
@ -255,6 +294,14 @@ u32 ARM_Dynarmic_32::GetSvcNumber() const {
return svc_swi;
}
const Kernel::DebugWatchpoint* ARM_Dynarmic_32::HaltedWatchpoint() const {
return halted_watchpoint;
}
void ARM_Dynarmic_32::RewindBreakpointInstruction() {
LoadContext(breakpoint_context);
}
ARM_Dynarmic_32::ARM_Dynarmic_32(System& system_, CPUInterrupts& interrupt_handlers_,
bool uses_wall_clock_, ExclusiveMonitor& exclusive_monitor_,
std::size_t core_index_)

6
src/core/arm/dynarmic/arm_dynarmic_32.h
View File

@ -72,6 +72,8 @@ protected:
Dynarmic::HaltReason RunJit() override;
Dynarmic::HaltReason StepJit() override;
u32 GetSvcNumber() const override;
const Kernel::DebugWatchpoint* HaltedWatchpoint() const override;
void RewindBreakpointInstruction() override;
private:
std::shared_ptr<Dynarmic::A32::Jit> MakeJit(Common::PageTable* page_table) const;
@ -98,6 +100,10 @@ private:
// SVC callback
u32 svc_swi{};
// Watchpoint info
const Kernel::DebugWatchpoint* halted_watchpoint;
ThreadContext32 breakpoint_context;
};
} // namespace Core

79
src/core/arm/dynarmic/arm_dynarmic_64.cpp
View File

@ -29,55 +29,76 @@ using namespace Common::Literals;
class DynarmicCallbacks64 : public Dynarmic::A64::UserCallbacks {
public:
explicit DynarmicCallbacks64(ARM_Dynarmic_64& parent_)
: parent{parent_}, memory(parent.system.Memory()) {}
: parent{parent_},
memory(parent.system.Memory()), debugger_enabled{parent.system.DebuggerEnabled()} {}
u8 MemoryRead8(u64 vaddr) override {
CheckMemoryAccess(vaddr, 1, Kernel::DebugWatchpointType::Read);
return memory.Read8(vaddr);
}
u16 MemoryRead16(u64 vaddr) override {
CheckMemoryAccess(vaddr, 2, Kernel::DebugWatchpointType::Read);
return memory.Read16(vaddr);
}
u32 MemoryRead32(u64 vaddr) override {
CheckMemoryAccess(vaddr, 4, Kernel::DebugWatchpointType::Read);
return memory.Read32(vaddr);
}
u64 MemoryRead64(u64 vaddr) override {
CheckMemoryAccess(vaddr, 8, Kernel::DebugWatchpointType::Read);
return memory.Read64(vaddr);
}
Vector MemoryRead128(u64 vaddr) override {
CheckMemoryAccess(vaddr, 16, Kernel::DebugWatchpointType::Read);
return {memory.Read64(vaddr), memory.Read64(vaddr + 8)};
}
void MemoryWrite8(u64 vaddr, u8 value) override {
memory.Write8(vaddr, value);
if (CheckMemoryAccess(vaddr, 1, Kernel::DebugWatchpointType::Write)) {
memory.Write8(vaddr, value);
}
}
void MemoryWrite16(u64 vaddr, u16 value) override {
memory.Write16(vaddr, value);
if (CheckMemoryAccess(vaddr, 2, Kernel::DebugWatchpointType::Write)) {
memory.Write16(vaddr, value);
}
}
void MemoryWrite32(u64 vaddr, u32 value) override {
memory.Write32(vaddr, value);
if (CheckMemoryAccess(vaddr, 4, Kernel::DebugWatchpointType::Write)) {
memory.Write32(vaddr, value);
}
}
void MemoryWrite64(u64 vaddr, u64 value) override {
memory.Write64(vaddr, value);
if (CheckMemoryAccess(vaddr, 8, Kernel::DebugWatchpointType::Write)) {
memory.Write64(vaddr, value);
}
}
void MemoryWrite128(u64 vaddr, Vector value) override {
memory.Write64(vaddr, value[0]);
memory.Write64(vaddr + 8, value[1]);
if (CheckMemoryAccess(vaddr, 16, Kernel::DebugWatchpointType::Write)) {
memory.Write64(vaddr, value[0]);
memory.Write64(vaddr + 8, value[1]);
}
}
bool MemoryWriteExclusive8(u64 vaddr, std::uint8_t value, std::uint8_t expected) override {
return memory.WriteExclusive8(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 1, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive8(vaddr, value, expected);
}
bool MemoryWriteExclusive16(u64 vaddr, std::uint16_t value, std::uint16_t expected) override {
return memory.WriteExclusive16(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 2, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive16(vaddr, value, expected);
}
bool MemoryWriteExclusive32(u64 vaddr, std::uint32_t value, std::uint32_t expected) override {
return memory.WriteExclusive32(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 4, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive32(vaddr, value, expected);
}
bool MemoryWriteExclusive64(u64 vaddr, std::uint64_t value, std::uint64_t expected) override {
return memory.WriteExclusive64(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 8, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive64(vaddr, value, expected);
}
bool MemoryWriteExclusive128(u64 vaddr, Vector value, Vector expected) override {
return memory.WriteExclusive128(vaddr, value, expected);
return CheckMemoryAccess(vaddr, 16, Kernel::DebugWatchpointType::Write) &&
memory.WriteExclusive128(vaddr, value, expected);
}
void InterpreterFallback(u64 pc, std::size_t num_instructions) override {
@ -118,8 +139,8 @@ public:
case Dynarmic::A64::Exception::Yield:
return;
default:
if (parent.system.DebuggerEnabled()) {
parent.jit.load()->SetPC(pc);
if (debugger_enabled) {
parent.SaveContext(parent.breakpoint_context);
parent.jit.load()->HaltExecution(ARM_Interface::breakpoint);
return;
}
@ -167,10 +188,27 @@ public:
return parent.system.CoreTiming().GetClockTicks();
}
bool CheckMemoryAccess(VAddr addr, u64 size, Kernel::DebugWatchpointType type) {
if (!debugger_enabled) {
return true;
}
const auto match{parent.MatchingWatchpoint(addr, size, type)};
if (match) {
parent.SaveContext(parent.breakpoint_context);
parent.jit.load()->HaltExecution(ARM_Interface::watchpoint);
parent.halted_watchpoint = match;
return false;
}
return true;
}
ARM_Dynarmic_64& parent;
Core::Memory::Memory& memory;
u64 tpidrro_el0 = 0;
u64 tpidr_el0 = 0;
bool debugger_enabled{};
static constexpr u64 minimum_run_cycles = 10000U;
};
@ -221,6 +259,11 @@ std::shared_ptr<Dynarmic::A64::Jit> ARM_Dynarmic_64::MakeJit(Common::PageTable*
config.code_cache_size = 512_MiB;
config.far_code_offset = 400_MiB;
// Allow memory fault handling to work
if (system.DebuggerEnabled()) {
config.check_halt_on_memory_access = true;
}
// null_jit
if (!page_table) {
// Don't waste too much memory on null_jit
@ -315,6 +358,14 @@ u32 ARM_Dynarmic_64::GetSvcNumber() const {
return svc_swi;
}
const Kernel::DebugWatchpoint* ARM_Dynarmic_64::HaltedWatchpoint() const {
return halted_watchpoint;
}
void ARM_Dynarmic_64::RewindBreakpointInstruction() {
LoadContext(breakpoint_context);
}
ARM_Dynarmic_64::ARM_Dynarmic_64(System& system_, CPUInterrupts& interrupt_handlers_,
bool uses_wall_clock_, ExclusiveMonitor& exclusive_monitor_,
std::size_t core_index_)

6
src/core/arm/dynarmic/arm_dynarmic_64.h
View File

@ -66,6 +66,8 @@ protected:
Dynarmic::HaltReason RunJit() override;
Dynarmic::HaltReason StepJit() override;
u32 GetSvcNumber() const override;
const Kernel::DebugWatchpoint* HaltedWatchpoint() const override;
void RewindBreakpointInstruction() override;
private:
std::shared_ptr<Dynarmic::A64::Jit> MakeJit(Common::PageTable* page_table,
@ -91,6 +93,10 @@ private:
// SVC callback
u32 svc_swi{};
// Breakpoint info
const Kernel::DebugWatchpoint* halted_watchpoint;
ThreadContext64 breakpoint_context;
};
} // namespace Core

19
src/core/debugger/debugger.cpp
View File

@ -44,12 +44,14 @@ static std::span<const u8> ReceiveInto(Readable& r, Buffer& buffer) {
enum class SignalType {
Stopped,
Watchpoint,
ShuttingDown,
};
struct SignalInfo {
SignalType type;
Kernel::KThread* thread;
const Kernel::DebugWatchpoint* watchpoint;
};
namespace Core {
@ -157,13 +159,19 @@ private:
void PipeData(std::span<const u8> data) {
switch (info.type) {
case SignalType::Stopped:
case SignalType::Watchpoint:
// Stop emulation.
PauseEmulation();
// Notify the client.
active_thread = info.thread;
UpdateActiveThread();
frontend->Stopped(active_thread);
if (info.type == SignalType::Watchpoint) {
frontend->Watchpoint(active_thread, *info.watchpoint);
} else {
frontend->Stopped(active_thread);
}
break;
case SignalType::ShuttingDown:
@ -290,12 +298,17 @@ Debugger::Debugger(Core::System& system, u16 port) {
Debugger::~Debugger() = default;
bool Debugger::NotifyThreadStopped(Kernel::KThread* thread) {
return impl && impl->SignalDebugger(SignalInfo{SignalType::Stopped, thread});
return impl && impl->SignalDebugger(SignalInfo{SignalType::Stopped, thread, nullptr});
}
bool Debugger::NotifyThreadWatchpoint(Kernel::KThread* thread,
const Kernel::DebugWatchpoint& watch) {
return impl && impl->SignalDebugger(SignalInfo{SignalType::Watchpoint, thread, &watch});
}
void Debugger::NotifyShutdown() {
if (impl) {
impl->SignalDebugger(SignalInfo{SignalType::ShuttingDown, nullptr});
impl->SignalDebugger(SignalInfo{SignalType::ShuttingDown, nullptr, nullptr});
}
}

8
src/core/debugger/debugger.h
View File

@ -9,7 +9,8 @@
namespace Kernel {
class KThread;
}
struct DebugWatchpoint;
} // namespace Kernel
namespace Core {
class System;
@ -40,6 +41,11 @@ public:
*/
void NotifyShutdown();
/*
* Notify the debugger that the given thread has stopped due to hitting a watchpoint.
*/
bool NotifyThreadWatchpoint(Kernel::KThread* thread, const Kernel::DebugWatchpoint& watch);
private:
std::unique_ptr<DebuggerImpl> impl;
};

8
src/core/debugger/debugger_interface.h
View File

@ -11,7 +11,8 @@
namespace Kernel {
class KThread;
}
struct DebugWatchpoint;
} // namespace Kernel
namespace Core {
@ -71,6 +72,11 @@ public:
*/
virtual void ShuttingDown() = 0;
/*
* Called when emulation has stopped on a watchpoint.
*/
virtual void Watchpoint(Kernel::KThread* thread, const Kernel::DebugWatchpoint& watch) = 0;
/**
* Called when new data is asynchronously received on the client socket.
* A list of actions to perform is returned.

157
src/core/debugger/gdbstub.cpp
View File

@ -112,6 +112,23 @@ void GDBStub::Stopped(Kernel::KThread* thread) {
SendReply(arch->ThreadStatus(thread, GDB_STUB_SIGTRAP));
}
void GDBStub::Watchpoint(Kernel::KThread* thread, const Kernel::DebugWatchpoint& watch) {
const auto status{arch->ThreadStatus(thread, GDB_STUB_SIGTRAP)};
switch (watch.type) {
case Kernel::DebugWatchpointType::Read:
SendReply(fmt::format("{}rwatch:{:x};", status, watch.start_address));
break;
case Kernel::DebugWatchpointType::Write:
SendReply(fmt::format("{}watch:{:x};", status, watch.start_address));
break;
case Kernel::DebugWatchpointType::ReadOrWrite:
default:
SendReply(fmt::format("{}awatch:{:x};", status, watch.start_address));
break;
}
}
std::vector<DebuggerAction> GDBStub::ClientData(std::span<const u8> data) {
std::vector<DebuggerAction> actions;
current_command.insert(current_command.end(), data.begin(), data.end());
@ -278,44 +295,124 @@ void GDBStub::ExecuteCommand(std::string_view packet, std::vector<DebuggerAction
case 'c':
actions.push_back(DebuggerAction::Continue);
break;
case 'Z': {
const auto addr_sep{std::find(command.begin(), command.end(), ',') - command.begin() + 1};
const size_t addr{static_cast<size_t>(strtoll(command.data() + addr_sep, nullptr, 16))};
if (system.Memory().IsValidVirtualAddress(addr)) {
replaced_instructions[addr] = system.Memory().Read32(addr);
system.Memory().Write32(addr, arch->BreakpointInstruction());
system.InvalidateCpuInstructionCacheRange(addr, sizeof(u32));
SendReply(GDB_STUB_REPLY_OK);
} else {
SendReply(GDB_STUB_REPLY_ERR);
}
case 'Z':
HandleBreakpointInsert(command);
break;
}
case 'z': {
const auto addr_sep{std::find(command.begin(), command.end(), ',') - command.begin() + 1};
const size_t addr{static_cast<size_t>(strtoll(command.data() + addr_sep, nullptr, 16))};
const auto orig_insn{replaced_instructions.find(addr)};
if (system.Memory().IsValidVirtualAddress(addr) &&
orig_insn != replaced_instructions.end()) {
system.Memory().Write32(addr, orig_insn->second);
system.InvalidateCpuInstructionCacheRange(addr, sizeof(u32));
replaced_instructions.erase(addr);
SendReply(GDB_STUB_REPLY_OK);
} else {
SendReply(GDB_STUB_REPLY_ERR);
}
case 'z':
HandleBreakpointRemove(command);
break;
}
default:
SendReply(GDB_STUB_REPLY_EMPTY);
break;
}
}
enum class BreakpointType {
Software = 0,
Hardware = 1,
WriteWatch = 2,
ReadWatch = 3,
AccessWatch = 4,
};
void GDBStub::HandleBreakpointInsert(std::string_view command) {
const auto type{static_cast<BreakpointType>(strtoll(command.data(), nullptr, 16))};
const auto addr_sep{std::find(command.begin(), command.end(), ',') - command.begin() + 1};
const auto size_sep{std::find(command.begin() + addr_sep, command.end(), ',') -
command.begin() + 1};
const size_t addr{static_cast<size_t>(strtoll(command.data() + addr_sep, nullptr, 16))};
const size_t size{static_cast<size_t>(strtoll(command.data() + size_sep, nullptr, 16))};
if (!system.Memory().IsValidVirtualAddressRange(addr, size)) {
SendReply(GDB_STUB_REPLY_ERR);
return;
}
bool success{};
switch (type) {
case BreakpointType::Software:
replaced_instructions[addr] = system.Memory().Read32(addr);
system.Memory().Write32(addr, arch->BreakpointInstruction());
system.InvalidateCpuInstructionCacheRange(addr, sizeof(u32));
success = true;
break;
case BreakpointType::WriteWatch:
success = system.CurrentProcess()->InsertWatchpoint(system, addr, size,
Kernel::DebugWatchpointType::Write);
break;
case BreakpointType::ReadWatch:
success = system.CurrentProcess()->InsertWatchpoint(system, addr, size,
Kernel::DebugWatchpointType::Read);
break;
case BreakpointType::AccessWatch:
success = system.CurrentProcess()->InsertWatchpoint(
system, addr, size, Kernel::DebugWatchpointType::ReadOrWrite);
break;
case BreakpointType::Hardware:
default:
SendReply(GDB_STUB_REPLY_EMPTY);
return;
}
if (success) {
SendReply(GDB_STUB_REPLY_OK);
} else {
SendReply(GDB_STUB_REPLY_ERR);
}
}
void GDBStub::HandleBreakpointRemove(std::string_view command) {
const auto type{static_cast<BreakpointType>(strtoll(command.data(), nullptr, 16))};
const auto addr_sep{std::find(command.begin(), command.end(), ',') - command.begin() + 1};
const auto size_sep{std::find(command.begin() + addr_sep, command.end(), ',') -
command.begin() + 1};
const size_t addr{static_cast<size_t>(strtoll(command.data() + addr_sep, nullptr, 16))};
const size_t size{static_cast<size_t>(strtoll(command.data() + size_sep, nullptr, 16))};
if (!system.Memory().IsValidVirtualAddressRange(addr, size)) {
SendReply(GDB_STUB_REPLY_ERR);
return;
}
bool success{};
switch (type) {
case BreakpointType::Software: {
const auto orig_insn{replaced_instructions.find(addr)};
if (orig_insn != replaced_instructions.end()) {
system.Memory().Write32(addr, orig_insn->second);
system.InvalidateCpuInstructionCacheRange(addr, sizeof(u32));
replaced_instructions.erase(addr);
success = true;
}
break;
}
case BreakpointType::WriteWatch:
success = system.CurrentProcess()->RemoveWatchpoint(system, addr, size,
Kernel::DebugWatchpointType::Write);
break;
case BreakpointType::ReadWatch:
success = system.CurrentProcess()->RemoveWatchpoint(system, addr, size,
Kernel::DebugWatchpointType::Read);
break;
case BreakpointType::AccessWatch:
success = system.CurrentProcess()->RemoveWatchpoint(
system, addr, size, Kernel::DebugWatchpointType::ReadOrWrite);
break;
case BreakpointType::Hardware:
default:
SendReply(GDB_STUB_REPLY_EMPTY);
return;
}
if (success) {
SendReply(GDB_STUB_REPLY_OK);
} else {
SendReply(GDB_STUB_REPLY_ERR);
}
}
// Structure offsets are from Atmosphere
// See osdbg_thread_local_region.os.horizon.hpp and osdbg_thread_type.os.horizon.hpp

3
src/core/debugger/gdbstub.h
View File

@ -24,6 +24,7 @@ public:
void Connected() override;
void Stopped(Kernel::KThread* thread) override;
void ShuttingDown() override;
void Watchpoint(Kernel::KThread* thread, const Kernel::DebugWatchpoint& watch) override;
std::vector<DebuggerAction> ClientData(std::span<const u8> data) override;
private:
@ -31,6 +32,8 @@ private:
void ExecuteCommand(std::string_view packet, std::vector<DebuggerAction>& actions);
void HandleVCont(std::string_view command, std::vector<DebuggerAction>& actions);
void HandleQuery(std::string_view command);
void HandleBreakpointInsert(std::string_view command);
void HandleBreakpointRemove(std::string_view command);
std::vector<char>::const_iterator CommandEnd() const;
std::optional<std::string> DetachCommand();
Kernel::KThread* GetThreadByID(u64 thread_id);

3
src/core/hardware_properties.h
View File

@ -25,6 +25,9 @@ constexpr std::array<s32, Common::BitSize<u64>()> VirtualToPhysicalCoreMap{
0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 3,
};
// Cortex-A57 supports 4 memory watchpoints
constexpr u64 NUM_WATCHPOINTS = 4;
} // namespace Hardware
} // namespace Core

46
src/core/hle/kernel/k_process.cpp
View File

@ -579,6 +579,52 @@ ResultCode KProcess::DeleteThreadLocalRegion(VAddr addr) {
return ResultSuccess;
}
bool KProcess::InsertWatchpoint(Core::System& system, VAddr addr, u64 size,
DebugWatchpointType type) {
const auto watch{std::find_if(watchpoints.begin(), watchpoints.end(), [&](const auto& wp) {
return wp.type == DebugWatchpointType::None;
})};
if (watch == watchpoints.end()) {
return false;
}
watch->start_address = addr;
watch->end_address = addr + size;
watch->type = type;
for (VAddr page = Common::AlignDown(addr, PageSize); page < addr + size; page += PageSize) {
debug_page_refcounts[page]++;
system.Memory().MarkRegionDebug(page, PageSize, true);
}
return true;
}
bool KProcess::RemoveWatchpoint(Core::System& system, VAddr addr, u64 size,
DebugWatchpointType type) {
const auto watch{std::find_if(watchpoints.begin(), watchpoints.end(), [&](const auto& wp) {
return wp.start_address == addr && wp.end_address == addr + size && wp.type == type;
})};
if (watch == watchpoints.end()) {
return false;
}
watch->start_address = 0;
watch->end_address = 0;
watch->type = DebugWatchpointType::None;
for (VAddr page = Common::AlignDown(addr, PageSize); page < addr + size; page += PageSize) {
debug_page_refcounts[page]--;
if (!debug_page_refcounts[page]) {
system.Memory().MarkRegionDebug(page, PageSize, false);
}
}
return true;
}
void KProcess::LoadModule(CodeSet code_set, VAddr base_addr) {
const auto ReprotectSegment = [&](const CodeSet::Segment& segment,
Svc::MemoryPermission permission) {

30
src/core/hle/kernel/k_process.h
View File

@ -7,6 +7,7 @@
#include <array>
#include <cstddef>
#include <list>
#include <map>
#include <string>
#include "common/common_types.h"
#include "core/hle/kernel/k_address_arbiter.h"
@ -68,6 +69,20 @@ enum class ProcessActivity : u32 {
Paused,
};
enum class DebugWatchpointType : u8 {
None = 0,
Read = 1 << 0,
Write = 1 << 1,
ReadOrWrite = Read | Write,
};
DECLARE_ENUM_FLAG_OPERATORS(DebugWatchpointType);
struct DebugWatchpoint {
VAddr start_address;
VAddr end_address;
DebugWatchpointType type;
};
class KProcess final : public KAutoObjectWithSlabHeapAndContainer<KProcess, KWorkerTask> {
KERNEL_AUTOOBJECT_TRAITS(KProcess, KSynchronizationObject);
@ -374,6 +389,19 @@ public:
// Frees a used TLS slot identified by the given address
ResultCode DeleteThreadLocalRegion(VAddr addr);
///////////////////////////////////////////////////////////////////////////////////////////////
// Debug watchpoint management
// Attempts to insert a watchpoint into a free slot. Returns false if none are available.
bool InsertWatchpoint(Core::System& system, VAddr addr, u64 size, DebugWatchpointType type);
// Attempts to remove the watchpoint specified by the given parameters.
bool RemoveWatchpoint(Core::System& system, VAddr addr, u64 size, DebugWatchpointType type);
const std::array<DebugWatchpoint, Core::Hardware::NUM_WATCHPOINTS>& GetWatchpoints() const {
return watchpoints;
}
private:
void PinThread(s32 core_id, KThread* thread) {
ASSERT(0 <= core_id && core_id < static_cast<s32>(Core::Hardware::NUM_CPU_CORES));
@ -478,6 +506,8 @@ private:
std::array<KThread*, Core::Hardware::NUM_CPU_CORES> running_threads{};
std::array<u64, Core::Hardware::NUM_CPU_CORES> running_thread_idle_counts{};
std::array<KThread*, Core::Hardware::NUM_CPU_CORES> pinned_threads{};
std::array<DebugWatchpoint, Core::Hardware::NUM_WATCHPOINTS> watchpoints{};
std::map<VAddr, u64> debug_page_refcounts;
KThread* exception_thread{};

1
src/core/hle/kernel/k_scheduler.cpp
View File

@ -710,6 +710,7 @@ void KScheduler::Reload(KThread* thread) {
Core::ARM_Interface& cpu_core = system.ArmInterface(core_id);
cpu_core.LoadContext(thread->GetContext32());
cpu_core.LoadContext(thread->GetContext64());
cpu_core.LoadWatchpointArray(thread->GetOwnerProcess()->GetWatchpoints());
cpu_core.SetTlsAddress(thread->GetTLSAddress());
cpu_core.SetTPIDR_EL0(thread->GetTPIDR_EL0());
cpu_core.ClearExclusiveState();

79
src/core/memory.cpp
View File

@ -67,6 +67,16 @@ struct Memory::Impl {
return system.DeviceMemory().GetPointer(paddr) + vaddr;
}
[[nodiscard]] u8* GetPointerFromDebugMemory(VAddr vaddr) const {
const PAddr paddr{current_page_table->backing_addr[vaddr >> PAGE_BITS]};
if (paddr == 0) {
return {};
}
return system.DeviceMemory().GetPointer(paddr) + vaddr;
}
u8 Read8(const VAddr addr) {
return Read<u8>(addr);
}
@ -187,6 +197,12 @@ struct Memory::Impl {
on_memory(copy_amount, mem_ptr);
break;
}
case Common::PageType::DebugMemory: {
DEBUG_ASSERT(pointer);
u8* const mem_ptr{GetPointerFromDebugMemory(current_vaddr)};
on_memory(copy_amount, mem_ptr);
break;
}
case Common::PageType::RasterizerCachedMemory: {
u8* const host_ptr{GetPointerFromRasterizerCachedMemory(current_vaddr)};
on_rasterizer(current_vaddr, copy_amount, host_ptr);
@ -316,6 +332,58 @@ struct Memory::Impl {
});
}
void MarkRegionDebug(VAddr vaddr, u64 size, bool debug) {
if (vaddr == 0) {
return;
}
// Iterate over a contiguous CPU address space, marking/unmarking the region.
// The region is at a granularity of CPU pages.
const u64 num_pages = ((vaddr + size - 1) >> PAGE_BITS) - (vaddr >> PAGE_BITS) + 1;
for (u64 i = 0; i < num_pages; ++i, vaddr += PAGE_SIZE) {
const Common::PageType page_type{
current_page_table->pointers[vaddr >> PAGE_BITS].Type()};
if (debug) {
// Switch page type to debug if now debug
switch (page_type) {
case Common::PageType::Unmapped:
ASSERT_MSG(false, "Attempted to mark unmapped pages as debug");
break;
case Common::PageType::RasterizerCachedMemory:
case Common::PageType::DebugMemory:
// Page is already marked.
break;
case Common::PageType::Memory:
current_page_table->pointers[vaddr >> PAGE_BITS].Store(
nullptr, Common::PageType::DebugMemory);
break;
default:
UNREACHABLE();
}
} else {
// Switch page type to non-debug if now non-debug
switch (page_type) {
case Common::PageType::Unmapped:
ASSERT_MSG(false, "Attempted to mark unmapped pages as non-debug");
break;
case Common::PageType::RasterizerCachedMemory:
case Common::PageType::Memory:
// Don't mess with already non-debug or rasterizer memory.
break;
case Common::PageType::DebugMemory: {
u8* const pointer{GetPointerFromDebugMemory(vaddr & ~PAGE_MASK)};
current_page_table->pointers[vaddr >> PAGE_BITS].Store(
pointer - (vaddr & ~PAGE_MASK), Common::PageType::Memory);
break;
}
default:
UNREACHABLE();
}
}
}
}
void RasterizerMarkRegionCached(VAddr vaddr, u64 size, bool cached) {
if (vaddr == 0) {
return;
@ -342,6 +410,7 @@ struct Memory::Impl {
// It is not necessary for a process to have this region mapped into its address
// space, for example, a system module need not have a VRAM mapping.
break;
case Common::PageType::DebugMemory:
case Common::PageType::Memory:
current_page_table->pointers[vaddr >> PAGE_BITS].Store(
nullptr, Common::PageType::RasterizerCachedMemory);
@ -360,6 +429,7 @@ struct Memory::Impl {
// It is not necessary for a process to have this region mapped into its address
// space, for example, a system module need not have a VRAM mapping.
break;
case Common::PageType::DebugMemory:
case Common::PageType::Memory:
// There can be more than one GPU region mapped per CPU region, so it's common
// that this area is already unmarked as cached.
@ -460,6 +530,8 @@ struct Memory::Impl {
case Common::PageType::Memory:
ASSERT_MSG(false, "Mapped memory page without a pointer @ 0x{:016X}", vaddr);
return nullptr;
case Common::PageType::DebugMemory:
return GetPointerFromDebugMemory(vaddr);
case Common::PageType::RasterizerCachedMemory: {
u8* const host_ptr{GetPointerFromRasterizerCachedMemory(vaddr)};
on_rasterizer();
@ -596,7 +668,8 @@ bool Memory::IsValidVirtualAddress(const VAddr vaddr) const {
return false;
}
const auto [pointer, type] = page_table.pointers[page].PointerType();
return pointer != nullptr || type == Common::PageType::RasterizerCachedMemory;
return pointer != nullptr || type == Common::PageType::RasterizerCachedMemory ||
type == Common::PageType::DebugMemory;
}
bool Memory::IsValidVirtualAddressRange(VAddr base, u64 size) const {
@ -716,4 +789,8 @@ void Memory::RasterizerMarkRegionCached(VAddr vaddr, u64 size, bool cached) {
impl->RasterizerMarkRegionCached(vaddr, size, cached);
}
void Memory::MarkRegionDebug(VAddr vaddr, u64 size, bool debug) {
impl->MarkRegionDebug(vaddr, size, debug);
}
} // namespace Core::Memory

11
src/core/memory.h
View File

@ -447,6 +447,17 @@ public:
*/
void RasterizerMarkRegionCached(VAddr vaddr, u64 size, bool cached);
/**
* Marks each page within the specified address range as debug or non-debug.
* Debug addresses are not accessible from fastmem pointers.
*
* @param vaddr The virtual address indicating the start of the address range.
* @param size The size of the address range in bytes.
* @param debug Whether or not any pages within the address range should be
* marked as debug or non-debug.
*/
void MarkRegionDebug(VAddr vaddr, u64 size, bool debug);
private:
Core::System& system;