Emmmer updated this revision to Diff 483142.
Emmmer added a comment.
rebase main
CHANGES SINCE LAST ACTION
https://reviews.llvm.org/D140092/new/
https://reviews.llvm.org/D140092
Files:
lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.cpp
lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.h
lldb/source/Plugins/Instruction/RISCV/RISCVInstructions.h
lldb/unittests/Instruction/RISCV/TestRISCVEmulator.cpp
Index: lldb/unittests/Instruction/RISCV/TestRISCVEmulator.cpp
===================================================================
--- lldb/unittests/Instruction/RISCV/TestRISCVEmulator.cpp
+++ lldb/unittests/Instruction/RISCV/TestRISCVEmulator.cpp
@@ -19,6 +19,7 @@
#include "Plugins/Process/Utility/RegisterInfoPOSIX_riscv64.h"
#include "Plugins/Process/Utility/lldb-riscv-register-enums.h"
+using namespace llvm;
using namespace lldb;
using namespace lldb_private;
@@ -69,7 +70,7 @@
}
static size_t ReadMemoryCallback(EmulateInstruction *instruction, void *baton,
- const Context &context, lldb::addr_t addr,
+ const Context &context, addr_t addr,
void *dst, size_t length) {
RISCVEmulatorTester *tester = (RISCVEmulatorTester *)instruction;
assert(addr + length < sizeof(tester->memory));
@@ -79,7 +80,7 @@
static size_t WriteMemoryCallback(EmulateInstruction *instruction,
void *baton, const Context &context,
- lldb::addr_t addr, const void *dst,
+ addr_t addr, const void *dst,
size_t length) {
RISCVEmulatorTester *tester = (RISCVEmulatorTester *)instruction;
assert(addr + length < sizeof(tester->memory));
@@ -102,7 +103,7 @@
};
TEST_F(RISCVEmulatorTester, testJAL) {
- lldb::addr_t old_pc = 0x114514;
+ addr_t old_pc = 0x114514;
WritePC(old_pc);
// jal x1, -6*4
uint32_t inst = 0b11111110100111111111000011101111;
@@ -124,8 +125,8 @@
}
TEST_F(RISCVEmulatorTester, testJALR) {
- lldb::addr_t old_pc = 0x114514;
- lldb::addr_t old_x2 = 0x1024;
+ addr_t old_pc = 0x114514;
+ addr_t old_x2 = 0x1024;
WritePC(old_pc);
gpr.gpr[2] = old_x2;
// jalr x1, x2(-255)
@@ -176,7 +177,7 @@
static void testBranch(RISCVEmulatorTester *tester, EncoderB encoder,
bool branched, uint64_t rs1, uint64_t rs2) {
// prepare test registers
- lldb::addr_t old_pc = 0x114514;
+ addr_t old_pc = 0x114514;
tester->WritePC(old_pc);
tester->gpr.gpr[1] = rs1;
tester->gpr.gpr[2] = rs2;
@@ -216,7 +217,7 @@
static void TestInst(RISCVEmulatorTester *tester, DecodeResult inst,
bool has_rs2, RDComputer rd_val) {
- lldb::addr_t old_pc = 0x114514;
+ addr_t old_pc = 0x114514;
tester->WritePC(old_pc);
uint32_t rd = DecodeRD(inst.inst);
uint32_t rs1 = DecodeRS1(inst.inst);
@@ -504,9 +505,9 @@
uint32_t rs1 = DecodeRS1(inst.inst);
uint32_t rs2 = DecodeRS2(inst.inst);
- llvm::APFloat ap_rs1_val(rs1_val);
- llvm::APFloat ap_rs2_val(rs2_val);
- llvm::APFloat ap_rs3_val(0.5f);
+ APFloat ap_rs1_val(rs1_val);
+ APFloat ap_rs2_val(rs2_val);
+ APFloat ap_rs3_val(0.5f);
if (rs1)
tester->fpr.fpr[rs1] = ap_rs1_val.bitcastToAPInt().getZExtValue();
@@ -526,8 +527,8 @@
}
}
- llvm::APInt apInt(32, tester->fpr.fpr[rd]);
- llvm::APFloat rd_val(apInt.bitsToFloat());
+ APInt apInt(32, tester->fpr.fpr[rd]);
+ APFloat rd_val(apInt.bitsToFloat());
ASSERT_EQ(rd_val.convertToFloat(), rd_exp);
}
@@ -578,7 +579,7 @@
for (auto i : FloatToInt) {
if (inst.pattern.name == i) {
- llvm::APFloat apf_rs1_val(12.0f);
+ APFloat apf_rs1_val(12.0f);
tester->fpr.fpr[rs1] = apf_rs1_val.bitcastToAPInt().getZExtValue();
ASSERT_TRUE(tester->Execute(inst, false));
ASSERT_EQ(tester->gpr.gpr[rd], uint64_t(12));
@@ -590,8 +591,8 @@
if (inst.pattern.name == i) {
tester->gpr.gpr[rs1] = 12;
ASSERT_TRUE(tester->Execute(inst, false));
- llvm::APInt apInt(32, tester->fpr.fpr[rd]);
- llvm::APFloat rd_val(apInt.bitsToFloat());
+ APInt apInt(32, tester->fpr.fpr[rd]);
+ APFloat rd_val(apInt.bitsToFloat());
ASSERT_EQ(rd_val.convertToFloat(), 12.0f);
return;
}
@@ -623,7 +624,7 @@
uint32_t FLWInst = 0x1A207; // imm = 0
uint32_t FSWInst = 0x21A827; // imm = 16
- llvm::APFloat apf(12.0f);
+ APFloat apf(12.0f);
uint64_t bits = apf.bitcastToAPInt().getZExtValue();
*(uint64_t *)this->memory = bits;
@@ -646,7 +647,7 @@
TEST_F(RISCVEmulatorTester, TestFMV_X_WInst) {
auto FMV_X_WInst = 0xE0018253;
- llvm::APFloat apf(12.0f);
+ APFloat apf(12.0f);
auto bits = NanBoxing(apf.bitcastToAPInt().getZExtValue());
this->fpr.fpr[DecodeRS1(FMV_X_WInst)] = bits;
auto decode = this->Decode(FMV_X_WInst);
@@ -660,7 +661,7 @@
TEST_F(RISCVEmulatorTester, TestFMV_W_XInst) {
auto FMV_W_XInst = 0xF0018253;
- llvm::APFloat apf(12.0f);
+ APFloat apf(12.0f);
uint64_t bits = NanUnBoxing(apf.bitcastToAPInt().getZExtValue());
this->gpr.gpr[DecodeRS1(FMV_W_XInst)] = bits;
auto decode = this->Decode(FMV_W_XInst);
Index: lldb/source/Plugins/Instruction/RISCV/RISCVInstructions.h
===================================================================
--- lldb/source/Plugins/Instruction/RISCV/RISCVInstructions.h
+++ lldb/source/Plugins/Instruction/RISCV/RISCVInstructions.h
@@ -16,23 +16,24 @@
#include "llvm/ADT/Optional.h"
namespace lldb_private {
+using namespace llvm;
class EmulateInstructionRISCV;
struct Rd {
uint32_t rd;
bool Write(EmulateInstructionRISCV &emulator, uint64_t value);
- bool WriteAPFloat(EmulateInstructionRISCV &emulator, llvm::APFloat value);
+ bool WriteAPFloat(EmulateInstructionRISCV &emulator, APFloat value);
};
struct Rs {
uint32_t rs;
- llvm::Optional<uint64_t> Read(EmulateInstructionRISCV &emulator);
- llvm::Optional<int32_t> ReadI32(EmulateInstructionRISCV &emulator);
- llvm::Optional<int64_t> ReadI64(EmulateInstructionRISCV &emulator);
- llvm::Optional<uint32_t> ReadU32(EmulateInstructionRISCV &emulator);
- llvm::Optional<llvm::APFloat> ReadAPFloat(EmulateInstructionRISCV &emulator,
- bool isDouble);
+ Optional<uint64_t> Read(EmulateInstructionRISCV &emulator);
+ Optional<int32_t> ReadI32(EmulateInstructionRISCV &emulator);
+ Optional<int64_t> ReadI64(EmulateInstructionRISCV &emulator);
+ Optional<uint32_t> ReadU32(EmulateInstructionRISCV &emulator);
+ Optional<APFloat> ReadAPFloat(EmulateInstructionRISCV &emulator,
+ bool isDouble);
};
#define I_TYPE_INST(NAME) \
Index: lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.h
===================================================================
--- lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.h
+++ lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.h
@@ -18,12 +18,14 @@
#include "lldb/Utility/Status.h"
namespace lldb_private {
+using namespace llvm;
+using namespace lldb;
class EmulateInstructionRISCV : public EmulateInstruction {
public:
- static llvm::StringRef GetPluginNameStatic() { return "riscv"; }
+ static StringRef GetPluginNameStatic() { return "riscv"; }
- static llvm::StringRef GetPluginDescriptionStatic() {
+ static StringRef GetPluginDescriptionStatic() {
return "Emulate instructions for the RISC-V architecture.";
}
@@ -51,7 +53,7 @@
public:
EmulateInstructionRISCV(const ArchSpec &arch) : EmulateInstruction(arch) {}
- llvm::StringRef GetPluginName() override { return GetPluginNameStatic(); }
+ StringRef GetPluginName() override { return GetPluginNameStatic(); }
bool SupportsEmulatingInstructionsOfType(InstructionType inst_type) override {
return SupportsThisInstructionType(inst_type);
@@ -62,19 +64,18 @@
bool EvaluateInstruction(uint32_t options) override;
bool TestEmulation(Stream *out_stream, ArchSpec &arch,
OptionValueDictionary *test_data) override;
- llvm::Optional<RegisterInfo> GetRegisterInfo(lldb::RegisterKind reg_kind,
- uint32_t reg_num) override;
+ Optional<RegisterInfo> GetRegisterInfo(RegisterKind reg_kind,
+ uint32_t reg_num) override;
- llvm::Optional<lldb::addr_t> ReadPC();
- bool WritePC(lldb::addr_t pc);
+ Optional<addr_t> ReadPC();
+ bool WritePC(addr_t pc);
- llvm::Optional<DecodeResult> ReadInstructionAt(lldb::addr_t addr);
- llvm::Optional<DecodeResult> Decode(uint32_t inst);
+ Optional<DecodeResult> ReadInstructionAt(addr_t addr);
+ Optional<DecodeResult> Decode(uint32_t inst);
bool Execute(DecodeResult inst, bool ignore_cond);
template <typename T>
- std::enable_if_t<std::is_integral_v<T>, llvm::Optional<T>>
- ReadMem(uint64_t addr) {
+ std::enable_if_t<std::is_integral_v<T>, Optional<T>> ReadMem(uint64_t addr) {
EmulateInstructionRISCV::Context ctx;
ctx.type = EmulateInstruction::eContextRegisterLoad;
ctx.SetNoArgs();
@@ -92,8 +93,8 @@
return WriteMemoryUnsigned(ctx, addr, value, sizeof(T));
}
- llvm::RoundingMode GetRoundingMode();
- bool SetAccruedExceptions(llvm::APFloatBase::opStatus);
+ RoundingMode GetRoundingMode();
+ bool SetAccruedExceptions(APFloatBase::opStatus);
private:
/// Last decoded instruction from m_opcode
Index: lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.cpp
===================================================================
--- lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.cpp
+++ lldb/source/Plugins/Instruction/RISCV/EmulateInstructionRISCV.cpp
@@ -24,6 +24,7 @@
#include "llvm/ADT/STLExtras.h"
#include "llvm/Support/MathExtras.h"
+using namespace llvm;
using namespace lldb;
using namespace lldb_private;
@@ -34,10 +35,9 @@
/// Returns all values wrapped in Optional, or std::nullopt if any of the values
/// is std::nullopt.
template <typename... Ts>
-static llvm::Optional<std::tuple<Ts...>> zipOpt(llvm::Optional<Ts> &&...ts) {
+static Optional<std::tuple<Ts...>> zipOpt(Optional<Ts> &&...ts) {
if ((ts.has_value() && ...))
- return llvm::Optional<std::tuple<Ts...>>(
- std::make_tuple(std::move(*ts)...));
+ return Optional<std::tuple<Ts...>>(std::make_tuple(std::move(*ts)...));
else
return std::nullopt;
}
@@ -118,7 +118,7 @@
registerValue);
}
-bool Rd::WriteAPFloat(EmulateInstructionRISCV &emulator, llvm::APFloat value) {
+bool Rd::WriteAPFloat(EmulateInstructionRISCV &emulator, APFloat value) {
uint32_t lldb_reg = FPREncodingToLLDB(rd);
EmulateInstruction::Context ctx;
ctx.type = EmulateInstruction::eContextRegisterStore;
@@ -129,39 +129,39 @@
registerValue);
}
-llvm::Optional<uint64_t> Rs::Read(EmulateInstructionRISCV &emulator) {
+Optional<uint64_t> Rs::Read(EmulateInstructionRISCV &emulator) {
uint32_t lldbReg = GPREncodingToLLDB(rs);
RegisterValue value;
return emulator.ReadRegister(eRegisterKindLLDB, lldbReg, value)
- ? llvm::Optional<uint64_t>(value.GetAsUInt64())
+ ? Optional<uint64_t>(value.GetAsUInt64())
: std::nullopt;
}
-llvm::Optional<int32_t> Rs::ReadI32(EmulateInstructionRISCV &emulator) {
- return llvm::transformOptional(
+Optional<int32_t> Rs::ReadI32(EmulateInstructionRISCV &emulator) {
+ return transformOptional(
Read(emulator), [](uint64_t value) { return int32_t(uint32_t(value)); });
}
-llvm::Optional<int64_t> Rs::ReadI64(EmulateInstructionRISCV &emulator) {
- return llvm::transformOptional(Read(emulator),
- [](uint64_t value) { return int64_t(value); });
+Optional<int64_t> Rs::ReadI64(EmulateInstructionRISCV &emulator) {
+ return transformOptional(Read(emulator),
+ [](uint64_t value) { return int64_t(value); });
}
-llvm::Optional<uint32_t> Rs::ReadU32(EmulateInstructionRISCV &emulator) {
- return llvm::transformOptional(
- Read(emulator), [](uint64_t value) { return uint32_t(value); });
+Optional<uint32_t> Rs::ReadU32(EmulateInstructionRISCV &emulator) {
+ return transformOptional(Read(emulator),
+ [](uint64_t value) { return uint32_t(value); });
}
-llvm::Optional<llvm::APFloat> Rs::ReadAPFloat(EmulateInstructionRISCV &emulator,
- bool isDouble) {
+Optional<APFloat> Rs::ReadAPFloat(EmulateInstructionRISCV &emulator,
+ bool isDouble) {
uint32_t lldbReg = FPREncodingToLLDB(rs);
RegisterValue value;
if (!emulator.ReadRegister(eRegisterKindLLDB, lldbReg, value))
return std::nullopt;
uint64_t bits = value.GetAsUInt64();
- llvm::APInt api(64, bits, false);
- return llvm::APFloat(isDouble ? llvm::APFloat(api.bitsToDouble())
- : llvm::APFloat(api.bitsToFloat()));
+ APInt api(64, bits, false);
+ return APFloat(isDouble ? APFloat(api.bitsToDouble())
+ : APFloat(api.bitsToFloat()));
}
static bool CompareB(uint64_t rs1, uint64_t rs2, uint32_t funct3) {
@@ -215,9 +215,9 @@
std::is_same_v<T, AMOMAXU_W> || std::is_same_v<T, AMOMAXU_D>;
template <typename I>
-static std::enable_if_t<is_load<I> || is_store<I>, llvm::Optional<uint64_t>>
+static std::enable_if_t<is_load<I> || is_store<I>, Optional<uint64_t>>
LoadStoreAddr(EmulateInstructionRISCV &emulator, I inst) {
- return llvm::transformOptional(inst.rs1.Read(emulator), [&](uint64_t rs1) {
+ return transformOptional(inst.rs1.Read(emulator), [&](uint64_t rs1) {
return rs1 + uint64_t(SignExt(inst.imm));
});
}
@@ -229,7 +229,7 @@
auto addr = LoadStoreAddr(emulator, inst);
if (!addr)
return false;
- return llvm::transformOptional(
+ return transformOptional(
emulator.ReadMem<T>(*addr),
[&](T t) { return inst.rd.Write(emulator, extend(E(t))); })
.value_or(false);
@@ -241,7 +241,7 @@
auto addr = LoadStoreAddr(emulator, inst);
if (!addr)
return false;
- return llvm::transformOptional(
+ return transformOptional(
inst.rs2.Read(emulator),
[&](uint64_t rs2) { return emulator.WriteMem<T>(*addr, rs2); })
.value_or(false);
@@ -250,14 +250,13 @@
template <typename I>
static std::enable_if_t<is_amo_add<I> || is_amo_bit_op<I> || is_amo_swap<I> ||
is_amo_cmp<I>,
- llvm::Optional<uint64_t>>
+ Optional<uint64_t>>
AtomicAddr(EmulateInstructionRISCV &emulator, I inst, unsigned int align) {
- return llvm::transformOptional(inst.rs1.Read(emulator),
- [&](uint64_t rs1) {
- return rs1 % align == 0
- ? llvm::Optional<uint64_t>(rs1)
- : std::nullopt;
- })
+ return transformOptional(inst.rs1.Read(emulator),
+ [&](uint64_t rs1) {
+ return rs1 % align == 0 ? Optional<uint64_t>(rs1)
+ : std::nullopt;
+ })
.value_or(std::nullopt);
}
@@ -268,7 +267,7 @@
auto addr = AtomicAddr(emulator, inst, align);
if (!addr)
return false;
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(emulator.ReadMem<T>(*addr), inst.rs2.Read(emulator)),
[&](auto &&tup) {
auto [tmp, rs2] = tup;
@@ -285,7 +284,7 @@
auto addr = AtomicAddr(emulator, inst, align);
if (!addr)
return false;
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(emulator.ReadMem<T>(*addr), inst.rs2.Read(emulator)),
[&](auto &&tup) {
auto [tmp, rs2] = tup;
@@ -302,7 +301,7 @@
auto addr = AtomicAddr(emulator, inst, align);
if (!addr)
return false;
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(emulator.ReadMem<T>(*addr), inst.rs2.Read(emulator)),
[&](auto &&tup) {
auto [value, rs2] = tup;
@@ -319,7 +318,7 @@
auto addr = AtomicAddr(emulator, inst, align);
if (!addr)
return false;
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(emulator.ReadMem<T>(*addr), inst.rs2.Read(emulator)),
[&](auto &&tup) {
auto [value, rs2] = tup;
@@ -576,7 +575,7 @@
{"FCVT_S_LU", 0xFFF0007F, 0xD0300053, DecodeIType<FCVT_S_LU>},
};
-llvm::Optional<DecodeResult> EmulateInstructionRISCV::Decode(uint32_t inst) {
+Optional<DecodeResult> EmulateInstructionRISCV::Decode(uint32_t inst) {
Log *log = GetLog(LLDBLog::Unwind);
uint16_t try_rvc = uint16_t(inst & 0x0000ffff);
@@ -623,42 +622,41 @@
bool operator()(LUI inst) { return inst.rd.Write(m_emu, SignExt(inst.imm)); }
bool operator()(AUIPC inst) {
- return llvm::transformOptional(m_emu.ReadPC(),
- [&](uint64_t pc) {
- return inst.rd.Write(
- m_emu, SignExt(inst.imm) + pc);
- })
+ return transformOptional(m_emu.ReadPC(),
+ [&](uint64_t pc) {
+ return inst.rd.Write(m_emu,
+ SignExt(inst.imm) + pc);
+ })
.value_or(false);
}
bool operator()(JAL inst) {
- return llvm::transformOptional(
- m_emu.ReadPC(),
- [&](uint64_t pc) {
- return inst.rd.Write(m_emu, pc + delta()) &&
- m_emu.WritePC(SignExt(inst.imm) + pc);
- })
+ return transformOptional(m_emu.ReadPC(),
+ [&](uint64_t pc) {
+ return inst.rd.Write(m_emu, pc + delta()) &&
+ m_emu.WritePC(SignExt(inst.imm) + pc);
+ })
.value_or(false);
}
bool operator()(JALR inst) {
- return llvm::transformOptional(
- zipOpt(m_emu.ReadPC(), inst.rs1.Read(m_emu)),
- [&](auto &&tup) {
- auto [pc, rs1] = tup;
- return inst.rd.Write(m_emu, pc + delta()) &&
- m_emu.WritePC((SignExt(inst.imm) + rs1) & ~1);
- })
+ return transformOptional(zipOpt(m_emu.ReadPC(), inst.rs1.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [pc, rs1] = tup;
+ return inst.rd.Write(m_emu, pc + delta()) &&
+ m_emu.WritePC((SignExt(inst.imm) + rs1) &
+ ~1);
+ })
.value_or(false);
}
bool operator()(B inst) {
- return llvm::transformOptional(
- zipOpt(m_emu.ReadPC(), inst.rs1.Read(m_emu),
- inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [pc, rs1, rs2] = tup;
- if (m_ignore_cond || CompareB(rs1, rs2, inst.funct3))
- return m_emu.WritePC(SignExt(inst.imm) + pc);
- return true;
- })
+ return transformOptional(zipOpt(m_emu.ReadPC(), inst.rs1.Read(m_emu),
+ inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [pc, rs1, rs2] = tup;
+ if (m_ignore_cond ||
+ CompareB(rs1, rs2, inst.funct3))
+ return m_emu.WritePC(SignExt(inst.imm) + pc);
+ return true;
+ })
.value_or(false);
}
bool operator()(LB inst) {
@@ -680,82 +678,80 @@
bool operator()(SH inst) { return Store<SH, uint16_t>(m_emu, inst); }
bool operator()(SW inst) { return Store<SW, uint32_t>(m_emu, inst); }
bool operator()(ADDI inst) {
- return llvm::transformOptional(
- inst.rs1.ReadI64(m_emu),
- [&](int64_t rs1) {
- return inst.rd.Write(m_emu, rs1 + int64_t(SignExt(inst.imm)));
- })
+ return transformOptional(inst.rs1.ReadI64(m_emu),
+ [&](int64_t rs1) {
+ return inst.rd.Write(
+ m_emu, rs1 + int64_t(SignExt(inst.imm)));
+ })
.value_or(false);
}
bool operator()(SLTI inst) {
- return llvm::transformOptional(
- inst.rs1.ReadI64(m_emu),
- [&](int64_t rs1) {
- return inst.rd.Write(m_emu, rs1 < int64_t(SignExt(inst.imm)));
- })
+ return transformOptional(inst.rs1.ReadI64(m_emu),
+ [&](int64_t rs1) {
+ return inst.rd.Write(
+ m_emu, rs1 < int64_t(SignExt(inst.imm)));
+ })
.value_or(false);
}
bool operator()(SLTIU inst) {
- return llvm::transformOptional(
- inst.rs1.Read(m_emu),
- [&](uint64_t rs1) {
- return inst.rd.Write(m_emu, rs1 < uint64_t(SignExt(inst.imm)));
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](uint64_t rs1) {
+ return inst.rd.Write(
+ m_emu, rs1 < uint64_t(SignExt(inst.imm)));
+ })
.value_or(false);
}
bool operator()(XORI inst) {
- return llvm::transformOptional(
- inst.rs1.Read(m_emu),
- [&](uint64_t rs1) {
- return inst.rd.Write(m_emu, rs1 ^ uint64_t(SignExt(inst.imm)));
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](uint64_t rs1) {
+ return inst.rd.Write(
+ m_emu, rs1 ^ uint64_t(SignExt(inst.imm)));
+ })
.value_or(false);
}
bool operator()(ORI inst) {
- return llvm::transformOptional(
- inst.rs1.Read(m_emu),
- [&](uint64_t rs1) {
- return inst.rd.Write(m_emu, rs1 | uint64_t(SignExt(inst.imm)));
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](uint64_t rs1) {
+ return inst.rd.Write(
+ m_emu, rs1 | uint64_t(SignExt(inst.imm)));
+ })
.value_or(false);
}
bool operator()(ANDI inst) {
- return llvm::transformOptional(
- inst.rs1.Read(m_emu),
- [&](uint64_t rs1) {
- return inst.rd.Write(m_emu, rs1 & uint64_t(SignExt(inst.imm)));
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](uint64_t rs1) {
+ return inst.rd.Write(
+ m_emu, rs1 & uint64_t(SignExt(inst.imm)));
+ })
.value_or(false);
}
bool operator()(ADD inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 + rs2);
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu, rs1 + rs2);
+ })
.value_or(false);
}
bool operator()(SUB inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 - rs2);
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu, rs1 - rs2);
+ })
.value_or(false);
}
bool operator()(SLL inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 << (rs2 & 0b111111));
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu,
+ rs1 << (rs2 & 0b111111));
+ })
.value_or(false);
}
bool operator()(SLT inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI64(m_emu), inst.rs2.ReadI64(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
@@ -764,34 +760,32 @@
.value_or(false);
}
bool operator()(SLTU inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 < rs2);
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu, rs1 < rs2);
+ })
.value_or(false);
}
bool operator()(XOR inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 ^ rs2);
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu, rs1 ^ rs2);
+ })
.value_or(false);
}
bool operator()(SRL inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 >> (rs2 & 0b111111));
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu,
+ rs1 >> (rs2 & 0b111111));
+ })
.value_or(false);
}
bool operator()(SRA inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI64(m_emu), inst.rs2.Read(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
@@ -800,21 +794,19 @@
.value_or(false);
}
bool operator()(OR inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 | rs2);
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu, rs1 | rs2);
+ })
.value_or(false);
}
bool operator()(AND inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 & rs2);
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu, rs1 & rs2);
+ })
.value_or(false);
}
bool operator()(LWU inst) {
@@ -825,81 +817,78 @@
}
bool operator()(SD inst) { return Store<SD, uint64_t>(m_emu, inst); }
bool operator()(SLLI inst) {
- return llvm::transformOptional(inst.rs1.Read(m_emu),
- [&](uint64_t rs1) {
- return inst.rd.Write(m_emu,
- rs1 << inst.shamt);
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](uint64_t rs1) {
+ return inst.rd.Write(m_emu, rs1 << inst.shamt);
+ })
.value_or(false);
}
bool operator()(SRLI inst) {
- return llvm::transformOptional(inst.rs1.Read(m_emu),
- [&](uint64_t rs1) {
- return inst.rd.Write(m_emu,
- rs1 >> inst.shamt);
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](uint64_t rs1) {
+ return inst.rd.Write(m_emu, rs1 >> inst.shamt);
+ })
.value_or(false);
}
bool operator()(SRAI inst) {
- return llvm::transformOptional(inst.rs1.ReadI64(m_emu),
- [&](int64_t rs1) {
- return inst.rd.Write(m_emu,
- rs1 >> inst.shamt);
- })
+ return transformOptional(inst.rs1.ReadI64(m_emu),
+ [&](int64_t rs1) {
+ return inst.rd.Write(m_emu, rs1 >> inst.shamt);
+ })
.value_or(false);
}
bool operator()(ADDIW inst) {
- return llvm::transformOptional(inst.rs1.ReadI32(m_emu),
- [&](int32_t rs1) {
- return inst.rd.Write(
- m_emu, SextW(rs1 + SignExt(inst.imm)));
- })
+ return transformOptional(inst.rs1.ReadI32(m_emu),
+ [&](int32_t rs1) {
+ return inst.rd.Write(
+ m_emu, SextW(rs1 + SignExt(inst.imm)));
+ })
.value_or(false);
}
bool operator()(SLLIW inst) {
- return llvm::transformOptional(inst.rs1.ReadU32(m_emu),
- [&](uint32_t rs1) {
- return inst.rd.Write(
- m_emu, SextW(rs1 << inst.shamt));
- })
+ return transformOptional(inst.rs1.ReadU32(m_emu),
+ [&](uint32_t rs1) {
+ return inst.rd.Write(m_emu,
+ SextW(rs1 << inst.shamt));
+ })
.value_or(false);
}
bool operator()(SRLIW inst) {
- return llvm::transformOptional(inst.rs1.ReadU32(m_emu),
- [&](uint32_t rs1) {
- return inst.rd.Write(
- m_emu, SextW(rs1 >> inst.shamt));
- })
+ return transformOptional(inst.rs1.ReadU32(m_emu),
+ [&](uint32_t rs1) {
+ return inst.rd.Write(m_emu,
+ SextW(rs1 >> inst.shamt));
+ })
.value_or(false);
}
bool operator()(SRAIW inst) {
- return llvm::transformOptional(inst.rs1.ReadI32(m_emu),
- [&](int32_t rs1) {
- return inst.rd.Write(
- m_emu, SextW(rs1 >> inst.shamt));
- })
+ return transformOptional(inst.rs1.ReadI32(m_emu),
+ [&](int32_t rs1) {
+ return inst.rd.Write(m_emu,
+ SextW(rs1 >> inst.shamt));
+ })
.value_or(false);
}
bool operator()(ADDW inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, SextW(uint32_t(rs1 + rs2)));
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu,
+ SextW(uint32_t(rs1 + rs2)));
+ })
.value_or(false);
}
bool operator()(SUBW inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, SextW(uint32_t(rs1 - rs2)));
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu,
+ SextW(uint32_t(rs1 - rs2)));
+ })
.value_or(false);
}
bool operator()(SLLW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadU32(m_emu), inst.rs2.ReadU32(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
@@ -908,7 +897,7 @@
.value_or(false);
}
bool operator()(SRLW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadU32(m_emu), inst.rs2.ReadU32(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
@@ -917,7 +906,7 @@
.value_or(false);
}
bool operator()(SRAW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI32(m_emu), inst.rs2.Read(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
@@ -927,55 +916,52 @@
}
// RV32M & RV64M (Integer Multiplication and Division Extension) //
bool operator()(MUL inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- return inst.rd.Write(m_emu, rs1 * rs2);
- })
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ return inst.rd.Write(m_emu, rs1 * rs2);
+ })
.value_or(false);
}
bool operator()(MULH inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
// signed * signed
- auto mul =
- llvm::APInt(128, rs1, true) * llvm::APInt(128, rs2, true);
+ auto mul = APInt(128, rs1, true) * APInt(128, rs2, true);
return inst.rd.Write(m_emu,
mul.ashr(64).trunc(64).getZExtValue());
})
.value_or(false);
}
bool operator()(MULHSU inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
// signed * unsigned
- auto mul = llvm::APInt(128, rs1, true).zext(128) *
- llvm::APInt(128, rs2, false);
+ auto mul =
+ APInt(128, rs1, true).zext(128) * APInt(128, rs2, false);
return inst.rd.Write(m_emu,
mul.lshr(64).trunc(64).getZExtValue());
})
.value_or(false);
}
bool operator()(MULHU inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
// unsigned * unsigned
- auto mul = llvm::APInt(128, rs1, false) *
- llvm::APInt(128, rs2, false);
+ auto mul = APInt(128, rs1, false) * APInt(128, rs2, false);
return inst.rd.Write(m_emu,
mul.lshr(64).trunc(64).getZExtValue());
})
.value_or(false);
}
bool operator()(DIV inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI64(m_emu), inst.rs2.ReadI64(m_emu)),
[&](auto &&tup) {
auto [dividend, divisor] = tup;
@@ -991,20 +977,19 @@
.value_or(false);
}
bool operator()(DIVU inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [dividend, divisor] = tup;
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [dividend, divisor] = tup;
- if (divisor == 0)
- return inst.rd.Write(m_emu, UINT64_MAX);
+ if (divisor == 0)
+ return inst.rd.Write(m_emu, UINT64_MAX);
- return inst.rd.Write(m_emu, dividend / divisor);
- })
+ return inst.rd.Write(m_emu, dividend / divisor);
+ })
.value_or(false);
}
bool operator()(REM inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI64(m_emu), inst.rs2.ReadI64(m_emu)),
[&](auto &&tup) {
auto [dividend, divisor] = tup;
@@ -1020,20 +1005,19 @@
.value_or(false);
}
bool operator()(REMU inst) {
- return llvm::transformOptional(
- zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
- [&](auto &&tup) {
- auto [dividend, divisor] = tup;
+ return transformOptional(zipOpt(inst.rs1.Read(m_emu), inst.rs2.Read(m_emu)),
+ [&](auto &&tup) {
+ auto [dividend, divisor] = tup;
- if (divisor == 0)
- return inst.rd.Write(m_emu, dividend);
+ if (divisor == 0)
+ return inst.rd.Write(m_emu, dividend);
- return inst.rd.Write(m_emu, dividend % divisor);
- })
+ return inst.rd.Write(m_emu, dividend % divisor);
+ })
.value_or(false);
}
bool operator()(MULW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI32(m_emu), inst.rs2.ReadI32(m_emu)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
@@ -1042,7 +1026,7 @@
.value_or(false);
}
bool operator()(DIVW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI32(m_emu), inst.rs2.ReadI32(m_emu)),
[&](auto &&tup) {
auto [dividend, divisor] = tup;
@@ -1058,7 +1042,7 @@
.value_or(false);
}
bool operator()(DIVUW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadU32(m_emu), inst.rs2.ReadU32(m_emu)),
[&](auto &&tup) {
auto [dividend, divisor] = tup;
@@ -1071,7 +1055,7 @@
.value_or(false);
}
bool operator()(REMW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadI32(m_emu), inst.rs2.ReadI32(m_emu)),
[&](auto &&tup) {
auto [dividend, divisor] = tup;
@@ -1087,7 +1071,7 @@
.value_or(false);
}
bool operator()(REMUW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadU32(m_emu), inst.rs2.ReadU32(m_emu)),
[&](auto &&tup) {
auto [dividend, divisor] = tup;
@@ -1189,19 +1173,18 @@
[](uint64_t a, uint64_t b) { return std::max(a, b); });
}
bool operator()(FLW inst) {
- return llvm::transformOptional(
+ return transformOptional(
inst.rs1.Read(m_emu),
[&](auto &&rs1) {
uint64_t addr = rs1 + uint64_t(inst.imm);
uint64_t bits = m_emu.ReadMem<uint64_t>(addr).value();
- llvm::APFloat f(llvm::APFloat::IEEEsingle(),
- llvm::APInt(32, bits));
+ APFloat f(APFloat::IEEEsingle(), APInt(32, bits));
return inst.rd.WriteAPFloat(m_emu, f);
})
.value_or(false);
}
bool operator()(FSW inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.Read(m_emu), inst.rs2.ReadAPFloat(m_emu, false)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
@@ -1212,103 +1195,102 @@
.value_or(false);
}
bool operator()(FMADD_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false),
- inst.rs3.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2, rs3] = tup;
- auto res = rs1.fusedMultiplyAdd(
- rs2, rs3, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false),
+ inst.rs3.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2, rs3] = tup;
+ auto res = rs1.fusedMultiplyAdd(
+ rs2, rs3, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FMSUB_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false),
- inst.rs3.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2, rs3] = tup;
- auto res = rs1.fusedMultiplyAdd(
- rs2, -rs3, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false),
+ inst.rs3.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2, rs3] = tup;
+ auto res = rs1.fusedMultiplyAdd(
+ rs2, -rs3, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FNMSUB_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false),
- inst.rs3.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2, rs3] = tup;
- auto res = rs1.fusedMultiplyAdd(
- -rs2, rs3, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false),
+ inst.rs3.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2, rs3] = tup;
+ auto res = rs1.fusedMultiplyAdd(
+ -rs2, rs3, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FNMADD_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false),
- inst.rs3.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2, rs3] = tup;
- auto res = rs1.fusedMultiplyAdd(
- -rs2, -rs3, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false),
+ inst.rs3.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2, rs3] = tup;
+ auto res = rs1.fusedMultiplyAdd(
+ -rs2, -rs3, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FADD_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- auto res =
- rs1.add(rs2, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ auto res = rs1.add(rs2, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FSUB_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- auto res = rs1.subtract(
- rs2, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ auto res =
+ rs1.subtract(rs2, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FMUL_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- auto res = rs1.multiply(
- rs2, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ auto res =
+ rs1.multiply(rs2, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FDIV_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- auto res = rs1.divide(
- rs2, m_emu.GetRoundingMode());
- inst.rd.WriteAPFloat(m_emu, rs1);
- return m_emu.SetAccruedExceptions(res);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ auto res =
+ rs1.divide(rs2, m_emu.GetRoundingMode());
+ inst.rd.WriteAPFloat(m_emu, rs1);
+ return m_emu.SetAccruedExceptions(res);
+ })
.value_or(false);
}
bool operator()(FSQRT_S inst) {
@@ -1316,46 +1298,46 @@
return false;
}
bool operator()(FSGNJ_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- rs1.copySign(rs2);
- return inst.rd.WriteAPFloat(m_emu, rs1);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ rs1.copySign(rs2);
+ return inst.rd.WriteAPFloat(m_emu, rs1);
+ })
.value_or(false);
}
bool operator()(FSGNJN_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- rs1.copySign(-rs2);
- return inst.rd.WriteAPFloat(m_emu, rs1);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ rs1.copySign(-rs2);
+ return inst.rd.WriteAPFloat(m_emu, rs1);
+ })
.value_or(false);
}
bool operator()(FSGNJX_S inst) {
- return llvm::transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
- inst.rs2.ReadAPFloat(m_emu, false)),
- [&](auto &&tup) {
- auto [rs1, rs2] = tup;
- // spec: the sign bit is the XOR of the
- // sign bits of rs1 and rs2. if rs1 and rs2
- // have the same signs set rs1 to positive
- // else set rs1 to negative
- if (rs1.isNegative() == rs2.isNegative()) {
- rs1.clearSign();
- } else {
- rs1.clearSign();
- rs1.changeSign();
- }
- return inst.rd.WriteAPFloat(m_emu, rs1);
- })
+ return transformOptional(zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
+ inst.rs2.ReadAPFloat(m_emu, false)),
+ [&](auto &&tup) {
+ auto [rs1, rs2] = tup;
+ // spec: the sign bit is the XOR of the
+ // sign bits of rs1 and rs2. if rs1 and rs2
+ // have the same signs set rs1 to positive
+ // else set rs1 to negative
+ if (rs1.isNegative() == rs2.isNegative()) {
+ rs1.clearSign();
+ } else {
+ rs1.clearSign();
+ rs1.changeSign();
+ }
+ return inst.rd.WriteAPFloat(m_emu, rs1);
+ })
.value_or(false);
}
bool operator()(FMIN_S inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
inst.rs2.ReadAPFloat(m_emu, false)),
[&](auto &&tup) {
@@ -1365,10 +1347,9 @@
// operand. Signaling NaN inputs set the invalid operation
// exception flag, even when the result is not NaN.
if (rs1.isNaN() || rs2.isNaN())
- m_emu.SetAccruedExceptions(llvm::APFloat::opInvalidOp);
+ m_emu.SetAccruedExceptions(APFloat::opInvalidOp);
if (rs1.isNaN() && rs2.isNaN()) {
- auto canonicalNaN =
- llvm::APFloat::getQNaN(rs1.getSemantics());
+ auto canonicalNaN = APFloat::getQNaN(rs1.getSemantics());
return inst.rd.WriteAPFloat(m_emu, canonicalNaN);
}
return inst.rd.WriteAPFloat(m_emu, minnum(rs1, rs2));
@@ -1376,16 +1357,15 @@
.value_or(false);
}
bool operator()(FMAX_S inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
inst.rs2.ReadAPFloat(m_emu, false)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
if (rs1.isNaN() || rs2.isNaN())
- m_emu.SetAccruedExceptions(llvm::APFloat::opInvalidOp);
+ m_emu.SetAccruedExceptions(APFloat::opInvalidOp);
if (rs1.isNaN() && rs2.isNaN()) {
- auto canonicalNaN =
- llvm::APFloat::getQNaN(rs1.getSemantics());
+ auto canonicalNaN = APFloat::getQNaN(rs1.getSemantics());
return inst.rd.WriteAPFloat(m_emu, canonicalNaN);
}
return inst.rd.WriteAPFloat(m_emu, maxnum(rs1, rs2));
@@ -1393,172 +1373,168 @@
.value_or(false);
}
bool operator()(FCVT_W_S inst) {
- return llvm::transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
- [&](auto &&rs1) {
- int32_t res = rs1.convertToFloat();
- return inst.rd.Write(m_emu, uint64_t(res));
- })
+ return transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
+ [&](auto &&rs1) {
+ int32_t res = rs1.convertToFloat();
+ return inst.rd.Write(m_emu, uint64_t(res));
+ })
.value_or(false);
}
bool operator()(FCVT_WU_S inst) {
- return llvm::transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
- [&](auto &&rs1) {
- uint32_t res = rs1.convertToFloat();
- return inst.rd.Write(m_emu, uint64_t(res));
- })
+ return transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
+ [&](auto &&rs1) {
+ uint32_t res = rs1.convertToFloat();
+ return inst.rd.Write(m_emu, uint64_t(res));
+ })
.value_or(false);
}
bool operator()(FMV_X_W inst) {
- return llvm::transformOptional(
- inst.rs1.ReadAPFloat(m_emu, false),
- [&](auto &&rs1) {
- if (rs1.isNaN())
- return inst.rd.Write(m_emu, 0x7fc00000);
- auto bits = rs1.bitcastToAPInt();
- return inst.rd.Write(m_emu,
- NanBoxing(uint64_t(bits.getSExtValue())));
- })
+ return transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
+ [&](auto &&rs1) {
+ if (rs1.isNaN())
+ return inst.rd.Write(m_emu, 0x7fc00000);
+ auto bits = rs1.bitcastToAPInt();
+ return inst.rd.Write(
+ m_emu,
+ NanBoxing(uint64_t(bits.getSExtValue())));
+ })
.value_or(false);
}
bool operator()(FEQ_S inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
inst.rs2.ReadAPFloat(m_emu, false)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
if (rs1.isNaN() || rs2.isNaN()) {
if (rs1.isSignaling() || rs2.isSignaling())
- m_emu.SetAccruedExceptions(llvm::APFloat::opInvalidOp);
+ m_emu.SetAccruedExceptions(APFloat::opInvalidOp);
return inst.rd.Write(m_emu, 0);
}
- return inst.rd.Write(m_emu, rs1.compare(rs2) ==
- llvm::APFloat::cmpEqual);
+ return inst.rd.Write(m_emu,
+ rs1.compare(rs2) == APFloat::cmpEqual);
})
.value_or(false);
}
bool operator()(FLT_S inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
inst.rs2.ReadAPFloat(m_emu, false)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
if (rs1.isNaN() || rs2.isNaN()) {
- m_emu.SetAccruedExceptions(llvm::APFloat::opInvalidOp);
+ m_emu.SetAccruedExceptions(APFloat::opInvalidOp);
return inst.rd.Write(m_emu, 0);
}
- return inst.rd.Write(m_emu, rs1.compare(rs2) ==
- llvm::APFloat::cmpLessThan);
+ return inst.rd.Write(m_emu,
+ rs1.compare(rs2) == APFloat::cmpLessThan);
})
.value_or(false);
}
bool operator()(FLE_S inst) {
- return llvm::transformOptional(
+ return transformOptional(
zipOpt(inst.rs1.ReadAPFloat(m_emu, false),
inst.rs2.ReadAPFloat(m_emu, false)),
[&](auto &&tup) {
auto [rs1, rs2] = tup;
if (rs1.isNaN() || rs2.isNaN()) {
- m_emu.SetAccruedExceptions(llvm::APFloat::opInvalidOp);
+ m_emu.SetAccruedExceptions(APFloat::opInvalidOp);
return inst.rd.Write(m_emu, 0);
}
return inst.rd.Write(m_emu, rs1.compare(rs2) !=
- llvm::APFloat::cmpGreaterThan);
+ APFloat::cmpGreaterThan);
})
.value_or(false);
}
bool operator()(FCLASS_S inst) {
- return llvm::transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
- [&](auto &&rs1) {
- uint64_t result = 0;
- if (rs1.isInfinity() && rs1.isNegative())
- result |= 1 << 0;
- // neg normal
- if (rs1.isNormal() && rs1.isNegative())
- result |= 1 << 1;
- // neg subnormal
- if (rs1.isDenormal() && rs1.isNegative())
- result |= 1 << 2;
- if (rs1.isNegZero())
- result |= 1 << 3;
- if (rs1.isPosZero())
- result |= 1 << 4;
- // pos normal
- if (rs1.isNormal() && !rs1.isNegative())
- result |= 1 << 5;
- // pos subnormal
- if (rs1.isDenormal() && !rs1.isNegative())
- result |= 1 << 6;
- if (rs1.isInfinity() && !rs1.isNegative())
- result |= 1 << 7;
- if (rs1.isNaN()) {
- if (rs1.isSignaling())
- result |= 1 << 8;
- else
- result |= 1 << 9;
- }
- return inst.rd.Write(m_emu, result);
- })
+ return transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
+ [&](auto &&rs1) {
+ uint64_t result = 0;
+ if (rs1.isInfinity() && rs1.isNegative())
+ result |= 1 << 0;
+ // neg normal
+ if (rs1.isNormal() && rs1.isNegative())
+ result |= 1 << 1;
+ // neg subnormal
+ if (rs1.isDenormal() && rs1.isNegative())
+ result |= 1 << 2;
+ if (rs1.isNegZero())
+ result |= 1 << 3;
+ if (rs1.isPosZero())
+ result |= 1 << 4;
+ // pos normal
+ if (rs1.isNormal() && !rs1.isNegative())
+ result |= 1 << 5;
+ // pos subnormal
+ if (rs1.isDenormal() && !rs1.isNegative())
+ result |= 1 << 6;
+ if (rs1.isInfinity() && !rs1.isNegative())
+ result |= 1 << 7;
+ if (rs1.isNaN()) {
+ if (rs1.isSignaling())
+ result |= 1 << 8;
+ else
+ result |= 1 << 9;
+ }
+ return inst.rd.Write(m_emu, result);
+ })
.value_or(false);
}
bool operator()(FCVT_S_W inst) {
- return llvm::transformOptional(inst.rs1.ReadI32(m_emu),
- [&](auto &&rs1) {
- llvm::APFloat apf(
- llvm::APFloat::IEEEsingle(), rs1);
- return inst.rd.WriteAPFloat(m_emu, apf);
- })
+ return transformOptional(inst.rs1.ReadI32(m_emu),
+ [&](auto &&rs1) {
+ APFloat apf(APFloat::IEEEsingle(), rs1);
+ return inst.rd.WriteAPFloat(m_emu, apf);
+ })
.value_or(false);
}
bool operator()(FCVT_S_WU inst) {
- return llvm::transformOptional(inst.rs1.ReadU32(m_emu),
- [&](auto &&rs1) {
- llvm::APFloat apf(
- llvm::APFloat::IEEEsingle(), rs1);
- return inst.rd.WriteAPFloat(m_emu, apf);
- })
+ return transformOptional(inst.rs1.ReadU32(m_emu),
+ [&](auto &&rs1) {
+ APFloat apf(APFloat::IEEEsingle(), rs1);
+ return inst.rd.WriteAPFloat(m_emu, apf);
+ })
.value_or(false);
}
bool operator()(FMV_W_X inst) {
- return llvm::transformOptional(inst.rs1.Read(m_emu),
- [&](auto &&rs1) {
- llvm::APInt apInt(32, NanUnBoxing(rs1));
- llvm::APFloat apf(apInt.bitsToFloat());
- return inst.rd.WriteAPFloat(m_emu, apf);
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](auto &&rs1) {
+ APInt apInt(32, NanUnBoxing(rs1));
+ APFloat apf(apInt.bitsToFloat());
+ return inst.rd.WriteAPFloat(m_emu, apf);
+ })
.value_or(false);
}
bool operator()(FCVT_L_S inst) {
- return llvm::transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
- [&](auto &&rs1) {
- int64_t res = rs1.convertToFloat();
- return inst.rd.Write(m_emu, uint64_t(res));
- })
+ return transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
+ [&](auto &&rs1) {
+ int64_t res = rs1.convertToFloat();
+ return inst.rd.Write(m_emu, uint64_t(res));
+ })
.value_or(false);
}
bool operator()(FCVT_LU_S inst) {
- return llvm::transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
- [&](auto &&rs1) {
- uint64_t res = rs1.convertToFloat();
- return inst.rd.Write(m_emu, res);
- })
+ return transformOptional(inst.rs1.ReadAPFloat(m_emu, false),
+ [&](auto &&rs1) {
+ uint64_t res = rs1.convertToFloat();
+ return inst.rd.Write(m_emu, res);
+ })
.value_or(false);
}
bool operator()(FCVT_S_L inst) {
- return llvm::transformOptional(inst.rs1.ReadI64(m_emu),
- [&](auto &&rs1) {
- llvm::APFloat apf(
- llvm::APFloat::IEEEsingle(), rs1);
- return inst.rd.WriteAPFloat(m_emu, apf);
- })
+ return transformOptional(inst.rs1.ReadI64(m_emu),
+ [&](auto &&rs1) {
+ APFloat apf(APFloat::IEEEsingle(), rs1);
+ return inst.rd.WriteAPFloat(m_emu, apf);
+ })
.value_or(false);
}
bool operator()(FCVT_S_LU inst) {
- return llvm::transformOptional(inst.rs1.Read(m_emu),
- [&](auto &&rs1) {
- llvm::APFloat apf(
- llvm::APFloat::IEEEsingle(), rs1);
- return inst.rd.WriteAPFloat(m_emu, apf);
- })
+ return transformOptional(inst.rs1.Read(m_emu),
+ [&](auto &&rs1) {
+ APFloat apf(APFloat::IEEEsingle(), rs1);
+ return inst.rd.WriteAPFloat(m_emu, apf);
+ })
.value_or(false);
}
bool operator()(INVALID inst) { return false; }
@@ -1596,10 +1572,9 @@
WritePC(*old_pc + Executor::size(m_decoded.is_rvc));
}
-llvm::Optional<DecodeResult>
-EmulateInstructionRISCV::ReadInstructionAt(lldb::addr_t addr) {
- return llvm::transformOptional(ReadMem<uint32_t>(addr),
- [&](uint32_t inst) { return Decode(inst); })
+Optional<DecodeResult> EmulateInstructionRISCV::ReadInstructionAt(addr_t addr) {
+ return transformOptional(ReadMem<uint32_t>(addr),
+ [&](uint32_t inst) { return Decode(inst); })
.value_or(std::nullopt);
}
@@ -1619,14 +1594,14 @@
return true;
}
-llvm::Optional<lldb::addr_t> EmulateInstructionRISCV::ReadPC() {
+Optional<addr_t> EmulateInstructionRISCV::ReadPC() {
bool success = false;
auto addr = ReadRegisterUnsigned(eRegisterKindGeneric, LLDB_REGNUM_GENERIC_PC,
LLDB_INVALID_ADDRESS, &success);
- return success ? llvm::Optional<lldb::addr_t>(addr) : std::nullopt;
+ return success ? Optional<addr_t>(addr) : std::nullopt;
}
-bool EmulateInstructionRISCV::WritePC(lldb::addr_t pc) {
+bool EmulateInstructionRISCV::WritePC(addr_t pc) {
EmulateInstruction::Context ctx;
ctx.type = eContextAdvancePC;
ctx.SetNoArgs();
@@ -1634,54 +1609,54 @@
LLDB_REGNUM_GENERIC_PC, pc);
}
-llvm::RoundingMode EmulateInstructionRISCV::GetRoundingMode() {
+RoundingMode EmulateInstructionRISCV::GetRoundingMode() {
bool success = false;
auto fcsr = ReadRegisterUnsigned(eRegisterKindLLDB, fpr_fcsr_riscv,
LLDB_INVALID_ADDRESS, &success);
if (!success)
- return llvm::RoundingMode::Invalid;
+ return RoundingMode::Invalid;
auto frm = (fcsr >> 5) & 0x7;
switch (frm) {
case 0b000:
- return llvm::RoundingMode::NearestTiesToEven;
+ return RoundingMode::NearestTiesToEven;
case 0b001:
- return llvm::RoundingMode::TowardZero;
+ return RoundingMode::TowardZero;
case 0b010:
- return llvm::RoundingMode::TowardNegative;
+ return RoundingMode::TowardNegative;
case 0b011:
- return llvm::RoundingMode::TowardPositive;
+ return RoundingMode::TowardPositive;
case 0b111:
- return llvm::RoundingMode::Dynamic;
+ return RoundingMode::Dynamic;
default:
// Reserved for future use.
- return llvm::RoundingMode::Invalid;
+ return RoundingMode::Invalid;
}
}
bool EmulateInstructionRISCV::SetAccruedExceptions(
- llvm::APFloatBase::opStatus opStatus) {
+ APFloatBase::opStatus opStatus) {
bool success = false;
auto fcsr = ReadRegisterUnsigned(eRegisterKindLLDB, fpr_fcsr_riscv,
LLDB_INVALID_ADDRESS, &success);
if (!success)
return false;
switch (opStatus) {
- case llvm::APFloatBase::opInvalidOp:
+ case APFloatBase::opInvalidOp:
fcsr |= 1 << 4;
break;
- case llvm::APFloatBase::opDivByZero:
+ case APFloatBase::opDivByZero:
fcsr |= 1 << 3;
break;
- case llvm::APFloatBase::opOverflow:
+ case APFloatBase::opOverflow:
fcsr |= 1 << 2;
break;
- case llvm::APFloatBase::opUnderflow:
+ case APFloatBase::opUnderflow:
fcsr |= 1 << 1;
break;
- case llvm::APFloatBase::opInexact:
+ case APFloatBase::opInexact:
fcsr |= 1 << 0;
break;
- case llvm::APFloatBase::opOK:
+ case APFloatBase::opOK:
break;
}
EmulateInstruction::Context ctx;
@@ -1690,8 +1665,8 @@
return WriteRegisterUnsigned(ctx, eRegisterKindLLDB, fpr_fcsr_riscv, fcsr);
}
-llvm::Optional<RegisterInfo>
-EmulateInstructionRISCV::GetRegisterInfo(lldb::RegisterKind reg_kind,
+Optional<RegisterInfo>
+EmulateInstructionRISCV::GetRegisterInfo(RegisterKind reg_kind,
uint32_t reg_index) {
if (reg_kind == eRegisterKindGeneric) {
switch (reg_index) {
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