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Everywhere: Prefix hexadecimal numbers with 0x

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Depending on the values it might be difficult to figure out whether a
value is decimal or hexadecimal. So let's make this more obvious. Also
this allows copying and pasting those numbers into GNOME calculator and
probably also other apps which auto-detect the base.
This commit is contained in:
Gunnar Beutner 2021-07-21 19:53:38 +02:00 • committed by Andreas Kling
parent 7bfd319652
commit 31f30e732a
15 changed files with 67 additions and 86 deletions
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30
Userland/DevTools/UserspaceEmulator/SoftCPU.cpp
View file

@ -79,9 +79,9 @@ SoftCPU::SoftCPU(Emulator& emulator)
void SoftCPU::dump() const
{
outln(" eax={:08x} ebx={:08x} ecx={:08x} edx={:08x} ebp={:08x} esp={:08x} esi={:08x} edi={:08x} o={:d} s={:d} z={:d} a={:d} p={:d} c={:d}",
outln(" eax={:p} ebx={:p} ecx={:p} edx={:p} ebp={:p} esp={:p} esi={:p} edi={:p} o={:d} s={:d} z={:d} a={:d} p={:d} c={:d}",
eax(), ebx(), ecx(), edx(), ebp(), esp(), esi(), edi(), of(), sf(), zf(), af(), pf(), cf());
outln("#eax={:08x} #ebx={:08x} #ecx={:08x} #edx={:08x} #ebp={:08x} #esp={:08x} #esi={:08x} #edi={:08x} #f={}",
outln("#eax={:p} #ebx={:p} #ecx={:p} #edx={:p} #ebp={:p} #esp={:p} #esi={:p} #edi={:p} #f={}",
eax().shadow(), ebx().shadow(), ecx().shadow(), edx().shadow(), ebp().shadow(), esp().shadow(), esi().shadow(), edi().shadow(), m_flags_tainted);
fflush(stdout);
}
@ -106,7 +106,7 @@ ValueWithShadow<u8> SoftCPU::read_memory8(X86::LogicalAddress address)
{
VERIFY(address.selector() == 0x1b || address.selector() == 0x23 || address.selector() == 0x2b);
auto value = m_emulator.mmu().read8(address);
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory8: @{:04x}:{:08x} -> {:02x} ({:02x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory8: @{:#04x}:{:p} -> {:#02x} ({:#02x})\033[0m", address.selector(), address.offset(), value, value.shadow());
return value;
}
@ -114,7 +114,7 @@ ValueWithShadow<u16> SoftCPU::read_memory16(X86::LogicalAddress address)
{
VERIFY(address.selector() == 0x1b || address.selector() == 0x23 || address.selector() == 0x2b);
auto value = m_emulator.mmu().read16(address);
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory16: @{:04x}:{:08x} -> {:04x} ({:04x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory16: @{:#04x}:{:p} -> {:#04x} ({:#04x})\033[0m", address.selector(), address.offset(), value, value.shadow());
return value;
}
@ -122,7 +122,7 @@ ValueWithShadow<u32> SoftCPU::read_memory32(X86::LogicalAddress address)
{
VERIFY(address.selector() == 0x1b || address.selector() == 0x23 || address.selector() == 0x2b);
auto value = m_emulator.mmu().read32(address);
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory32: @{:04x}:{:08x} -> {:08x} ({:08x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory32: @{:#04x}:{:p} -> {:#08x} ({:#08x})\033[0m", address.selector(), address.offset(), value, value.shadow());
return value;
}
@ -130,7 +130,7 @@ ValueWithShadow<u64> SoftCPU::read_memory64(X86::LogicalAddress address)
{
VERIFY(address.selector() == 0x1b || address.selector() == 0x23 || address.selector() == 0x2b);
auto value = m_emulator.mmu().read64(address);
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory64: @{:04x}:{:08x} -> {:016x} ({:016x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory64: @{:#04x}:{:p} -> {:#016x} ({:#016x})\033[0m", address.selector(), address.offset(), value, value.shadow());
return value;
}
@ -138,56 +138,56 @@ ValueWithShadow<u128> SoftCPU::read_memory128(X86::LogicalAddress address)
{
VERIFY(address.selector() == 0x1b || address.selector() == 0x23 || address.selector() == 0x2b);
auto value = m_emulator.mmu().read128(address);
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory128: @{:04x}:{:08x} -> {:032x} ({:032x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory128: @{:#04x}:{:p} -> {:#032x} ({:#032x})\033[0m", address.selector(), address.offset(), value, value.shadow());
return value;
}
ValueWithShadow<u256> SoftCPU::read_memory256(X86::LogicalAddress address)
{
VERIFY(address.selector() == 0x1b || address.selector() == 0x23 || address.selector() == 0x2b);
auto value = m_emulator.mmu().read256(address);
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory256: @{:04x}:{:08x} -> {:064x} ({:064x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mread_memory256: @{:#04x}:{:p} -> {:#064x} ({:#064x})\033[0m", address.selector(), address.offset(), value, value.shadow());
return value;
}
void SoftCPU::write_memory8(X86::LogicalAddress address, ValueWithShadow<u8> value)
{
VERIFY(address.selector() == 0x23 || address.selector() == 0x2b);
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory8: @{:04x}:{:08x} <- {:02x} ({:02x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory8: @{:#04x}:{:p} <- {:#02x} ({:#02x})\033[0m", address.selector(), address.offset(), value, value.shadow());
m_emulator.mmu().write8(address, value);
}
void SoftCPU::write_memory16(X86::LogicalAddress address, ValueWithShadow<u16> value)
{
VERIFY(address.selector() == 0x23 || address.selector() == 0x2b);
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory16: @{:04x}:{:08x} <- {:04x} ({:04x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory16: @{:#04x}:{:p} <- {:#04x} ({:#04x})\033[0m", address.selector(), address.offset(), value, value.shadow());
m_emulator.mmu().write16(address, value);
}
void SoftCPU::write_memory32(X86::LogicalAddress address, ValueWithShadow<u32> value)
{
VERIFY(address.selector() == 0x23 || address.selector() == 0x2b);
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory32: @{:04x}:{:08x} <- {:08x} ({:08x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory32: @{:#04x}:{:p} <- {:#08x} ({:#08x})\033[0m", address.selector(), address.offset(), value, value.shadow());
m_emulator.mmu().write32(address, value);
}
void SoftCPU::write_memory64(X86::LogicalAddress address, ValueWithShadow<u64> value)
{
VERIFY(address.selector() == 0x23 || address.selector() == 0x2b);
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory64: @{:04x}:{:08x} <- {:016x} ({:016x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory64: @{:#04x}:{:p} <- {:#016x} ({:#016x})\033[0m", address.selector(), address.offset(), value, value.shadow());
m_emulator.mmu().write64(address, value);
}
void SoftCPU::write_memory128(X86::LogicalAddress address, ValueWithShadow<u128> value)
{
VERIFY(address.selector() == 0x23 || address.selector() == 0x2b);
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory128: @{:04x}:{:08x} <- {:032x} ({:032x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory128: @{:#04x}:{:p} <- {:#032x} ({:#032x})\033[0m", address.selector(), address.offset(), value, value.shadow());
m_emulator.mmu().write128(address, value);
}
void SoftCPU::write_memory256(X86::LogicalAddress address, ValueWithShadow<u256> value)
{
VERIFY(address.selector() == 0x23 || address.selector() == 0x2b);
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory256: @{:04x}:{:08x} <- {:064x} ({:064x})\033[0m", address.selector(), address.offset(), value, value.shadow());
outln_if(MEMORY_DEBUG, "\033[36;1mwrite_memory256: @{:#04x}:{:p} <- {:#064x} ({:#064x})\033[0m", address.selector(), address.offset(), value, value.shadow());
m_emulator.mmu().write256(address, value);
}
@ -1327,7 +1327,7 @@ void SoftCPU::CPUID(const X86::Instruction&)
return;
}
dbgln("Unhandled CPUID with eax={:08x}", eax().value());
dbgln("Unhandled CPUID with eax={:p}", eax().value());
}
void SoftCPU::CWD(const X86::Instruction&)