Browse Source

Improve Ext code formatting

cl-refactor
Paweł Bylica 10 years ago
parent
commit
c03d36a07e
  1. 198
      libevmjit/Ext.cpp

198
libevmjit/Ext.cpp

@ -24,7 +24,7 @@ inline u256 fromAddress(Address _a)
return (u160)_a;
}
struct ExtData
struct ExtData
{
const byte* calldata;
const byte* code;
@ -172,123 +172,123 @@ llvm::Value* Ext::codesizeAt(llvm::Value* _addr)
extern "C"
{
using namespace dev::eth::jit;
using namespace dev::eth::jit;
EXPORT void ext_store(Runtime* _rt, i256* _index, i256* _value)
{
auto index = llvm2eth(*_index);
auto value = _rt->getExt().store(index); // Interface uses native endianness
*_value = eth2llvm(value);
}
EXPORT void ext_setStore(Runtime* _rt, i256* _index, i256* _value)
{
auto index = llvm2eth(*_index);
auto value = llvm2eth(*_value);
_rt->getExt().setStore(index, value); // Interface uses native endianness
}
EXPORT void ext_store(Runtime* _rt, i256* _index, i256* _value)
{
auto index = llvm2eth(*_index);
auto value = _rt->getExt().store(index); // Interface uses native endianness
*_value = eth2llvm(value);
}
EXPORT void ext_calldataload(Runtime* _rt, i256* _index, i256* _value)
{
auto index = static_cast<size_t>(llvm2eth(*_index));
assert(index + 31 > index); // TODO: Handle large index
auto b = reinterpret_cast<byte*>(_value);
for (size_t i = index, j = 0; i <= index + 31; ++i, ++j)
b[j] = i < _rt->getExt().data.size() ? _rt->getExt().data[i] : 0; // Keep Big Endian
// TODO: It all can be done by adding padding to data or by using min() algorithm without branch
}
EXPORT void ext_setStore(Runtime* _rt, i256* _index, i256* _value)
{
auto index = llvm2eth(*_index);
auto value = llvm2eth(*_value);
_rt->getExt().setStore(index, value); // Interface uses native endianness
}
EXPORT void ext_balance(Runtime* _rt, h256* _address, i256* _value)
{
auto u = _rt->getExt().balance(right160(*_address));
*_value = eth2llvm(u);
}
EXPORT void ext_calldataload(Runtime* _rt, i256* _index, i256* _value)
{
auto index = static_cast<size_t>(llvm2eth(*_index));
assert(index + 31 > index); // TODO: Handle large index
auto b = reinterpret_cast<byte*>(_value);
for (size_t i = index, j = 0; i <= index + 31; ++i, ++j)
b[j] = i < _rt->getExt().data.size() ? _rt->getExt().data[i] : 0; // Keep Big Endian
// TODO: It all can be done by adding padding to data or by using min() algorithm without branch
}
EXPORT void ext_suicide(Runtime* _rt, h256* _address)
{
_rt->getExt().suicide(right160(*_address));
}
EXPORT void ext_balance(Runtime* _rt, h256* _address, i256* _value)
{
auto u = _rt->getExt().balance(right160(*_address));
*_value = eth2llvm(u);
}
EXPORT void ext_create(Runtime* _rt, i256* _endowment, i256* _initOff, i256* _initSize, h256* _address)
{
auto&& ext = _rt->getExt();
auto endowment = llvm2eth(*_endowment);
EXPORT void ext_suicide(Runtime* _rt, h256* _address)
{
_rt->getExt().suicide(right160(*_address));
}
if (ext.balance(ext.myAddress) >= endowment)
EXPORT void ext_create(Runtime* _rt, i256* _endowment, i256* _initOff, i256* _initSize, h256* _address)
{
ext.subBalance(endowment);
u256 gas; // TODO: Handle gas
auto initOff = static_cast<size_t>(llvm2eth(*_initOff));
auto initSize = static_cast<size_t>(llvm2eth(*_initSize));
auto&& initRef = bytesConstRef(_rt->getMemory().data() + initOff, initSize);
OnOpFunc onOp{}; // TODO: Handle that thing
h256 address(ext.create(endowment, &gas, initRef, onOp), h256::AlignRight);
*_address = address;
auto&& ext = _rt->getExt();
auto endowment = llvm2eth(*_endowment);
if (ext.balance(ext.myAddress) >= endowment)
{
ext.subBalance(endowment);
u256 gas; // TODO: Handle gas
auto initOff = static_cast<size_t>(llvm2eth(*_initOff));
auto initSize = static_cast<size_t>(llvm2eth(*_initSize));
auto&& initRef = bytesConstRef(_rt->getMemory().data() + initOff, initSize);
OnOpFunc onOp {}; // TODO: Handle that thing
h256 address(ext.create(endowment, &gas, initRef, onOp), h256::AlignRight);
*_address = address;
}
else
*_address = {};
}
else
*_address = {};
}
EXPORT void ext_call(Runtime* _rt, i256* _gas, h256* _receiveAddress, i256* _value, i256* _inOff, i256* _inSize, i256* _outOff, i256* _outSize, h256* _codeAddress, i256* _ret)
{
auto&& ext = _rt->getExt();
auto value = llvm2eth(*_value);
EXPORT void ext_call(Runtime* _rt, i256* _gas, h256* _receiveAddress, i256* _value, i256* _inOff, i256* _inSize, i256* _outOff, i256* _outSize, h256* _codeAddress, i256* _ret)
{
auto&& ext = _rt->getExt();
auto value = llvm2eth(*_value);
auto ret = false;
auto gas = llvm2eth(*_gas);
if (ext.balance(ext.myAddress) >= value)
{
ext.subBalance(value);
auto receiveAddress = right160(*_receiveAddress);
auto inOff = static_cast<size_t>(llvm2eth(*_inOff));
auto inSize = static_cast<size_t>(llvm2eth(*_inSize));
auto outOff = static_cast<size_t>(llvm2eth(*_outOff));
auto outSize = static_cast<size_t>(llvm2eth(*_outSize));
auto&& inRef = bytesConstRef(_rt->getMemory().data() + inOff, inSize);
auto&& outRef = bytesConstRef(_rt->getMemory().data() + outOff, outSize);
OnOpFunc onOp {}; // TODO: Handle that thing
auto codeAddress = right160(*_codeAddress);
ret = ext.call(receiveAddress, value, inRef, &gas, outRef, onOp, {}, codeAddress);
}
*_gas = eth2llvm(gas);
_ret->a = ret ? 1 : 0;
}
auto ret = false;
auto gas = llvm2eth(*_gas);
if (ext.balance(ext.myAddress) >= value)
EXPORT void ext_sha3(Runtime* _rt, i256* _inOff, i256* _inSize, i256* _ret)
{
ext.subBalance(value);
auto receiveAddress = right160(*_receiveAddress);
auto inOff = static_cast<size_t>(llvm2eth(*_inOff));
auto inSize = static_cast<size_t>(llvm2eth(*_inSize));
auto outOff = static_cast<size_t>(llvm2eth(*_outOff));
auto outSize = static_cast<size_t>(llvm2eth(*_outSize));
auto&& inRef = bytesConstRef(_rt->getMemory().data() + inOff, inSize);
auto&& outRef = bytesConstRef(_rt->getMemory().data() + outOff, outSize);
OnOpFunc onOp{}; // TODO: Handle that thing
auto codeAddress = right160(*_codeAddress);
ret = ext.call(receiveAddress, value, inRef, &gas, outRef, onOp, {}, codeAddress);
auto dataRef = bytesConstRef(_rt->getMemory().data() + inOff, inSize);
auto hash = sha3(dataRef);
*_ret = *reinterpret_cast<i256*>(&hash);
}
*_gas = eth2llvm(gas);
_ret->a = ret ? 1 : 0;
}
EXPORT void ext_sha3(Runtime* _rt, i256* _inOff, i256* _inSize, i256* _ret)
{
auto inOff = static_cast<size_t>(llvm2eth(*_inOff));
auto inSize = static_cast<size_t>(llvm2eth(*_inSize));
auto dataRef = bytesConstRef(_rt->getMemory().data() + inOff, inSize);
auto hash = sha3(dataRef);
*_ret = *reinterpret_cast<i256*>(&hash);
}
EXPORT void ext_exp(Runtime* _rt, i256* _left, i256* _right, i256* _ret)
{
bigint left = llvm2eth(*_left);
bigint right = llvm2eth(*_right);
auto ret = static_cast<u256>(boost::multiprecision::powm(left, right, bigint(2) << 256));
*_ret = eth2llvm(ret);
}
EXPORT void ext_exp(Runtime* _rt, i256* _left, i256* _right, i256* _ret)
{
bigint left = llvm2eth(*_left);
bigint right = llvm2eth(*_right);
auto ret = static_cast<u256>(boost::multiprecision::powm(left, right, bigint(2) << 256));
*_ret = eth2llvm(ret);
}
EXPORT unsigned char* ext_codeAt(Runtime* _rt, h256* _addr256)
{
auto&& ext = _rt->getExt();
auto addr = right160(*_addr256);
auto& code = ext.codeAt(addr);
return const_cast<unsigned char*>(code.data());
}
EXPORT unsigned char* ext_codeAt(Runtime* _rt, h256* _addr256)
{
auto&& ext = _rt->getExt();
auto addr = right160(*_addr256);
auto& code = ext.codeAt(addr);
return const_cast<unsigned char*>(code.data());
}
EXPORT void ext_codesizeAt(Runtime* _rt, h256* _addr256, i256* _ret)
{
auto&& ext = _rt->getExt();
auto addr = right160(*_addr256);
auto& code = ext.codeAt(addr);
*_ret = eth2llvm(u256(code.size()));
}
EXPORT void ext_codesizeAt(Runtime* _rt, h256* _addr256, i256* _ret)
{
auto&& ext = _rt->getExt();
auto addr = right160(*_addr256);
auto& code = ext.codeAt(addr);
*_ret = eth2llvm(u256(code.size()));
}
}
}

Loading…
Cancel
Save