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Initial experiment with new kernel export format.

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This commit is contained in:
Ben Vanik
2015-06-01 18:19:32 -07:00
parent 225bb74316
commit 23826fa957
7 changed files with 633 additions and 350 deletions
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1
libxenia.vcxproj
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@@ -159,6 +159,7 @@
<ClCompile Include="src\xenia\kernel\objects\xuser_module.cc" /> <ClCompile Include="src\xenia\kernel\objects\xuser_module.cc" />
<ClCompile Include="src\xenia\kernel\object_table.cc" /> <ClCompile Include="src\xenia\kernel\object_table.cc" />
<ClCompile Include="src\xenia\kernel\user_profile.cc" /> <ClCompile Include="src\xenia\kernel\user_profile.cc" />
<ClCompile Include="src\xenia\kernel\util\shim_utils.cc" />
<ClCompile Include="src\xenia\kernel\util\xex2.cc" /> <ClCompile Include="src\xenia\kernel\util\xex2.cc" />
<ClCompile Include="src\xenia\kernel\xam_content.cc" /> <ClCompile Include="src\xenia\kernel\xam_content.cc" />
<ClCompile Include="src\xenia\kernel\xam_info.cc" /> <ClCompile Include="src\xenia\kernel\xam_info.cc" />

3
libxenia.vcxproj.filters
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@@ -709,6 +709,9 @@
<ClCompile Include="src\xenia\base\clock.cc"> <ClCompile Include="src\xenia\base\clock.cc">
<Filter>src\xenia\base</Filter> <Filter>src\xenia\base</Filter>
</ClCompile> </ClCompile>
<ClCompile Include="src\xenia\kernel\util\shim_utils.cc">
<Filter>src\xenia\kernel\util</Filter>
</ClCompile>
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>
<ClInclude Include="src\xenia\emulator.h"> <ClInclude Include="src\xenia\emulator.h">

22
src/xenia/cpu/export_resolver.h
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@@ -21,10 +21,16 @@ namespace cpu {
struct ExportTag { struct ExportTag {
typedef uint32_t type; typedef uint32_t type;
// Export is implemented in some form and can be used.
static const type kImplemented = 1 << 0; static const type kImplemented = 1 << 0;
static const type kSketchy = 1 << 1; // Export is a stub and is probably bad.
static const type kHighFrequency = 1 << 2; static const type kStub = 1 << 1;
static const type kImportant = 1 << 3; // Export is known to cause problems, or may not be complete.
static const type kSketchy = 1 << 2;
// Export is called *a lot*.
static const type kHighFrequency = 1 << 3;
// Export is important and should always be logged.
static const type kImportant = 1 << 4;
static const type kThreading = 1 << 10; static const type kThreading = 1 << 10;
static const type kInput = 1 << 11; static const type kInput = 1 << 11;
@@ -34,7 +40,10 @@ struct ExportTag {
static const type kModules = 1 << 15; static const type kModules = 1 << 15;
static const type kUserProfiles = 1 << 16; static const type kUserProfiles = 1 << 16;
static const type kLog = 1 << 31; // Export will be logged on each call.
static const type kLog = 1 << 30;
// Export's result will be logged on each call.
static const type kLogResult = 1 << 31;
}; };
// DEPRECATED // DEPRECATED
@@ -49,11 +58,12 @@ class Export {
kVariable = 1, kVariable = 1,
}; };
Export(uint16_t ordinal, Type type, std::string name) Export(uint16_t ordinal, Type type, std::string name,
ExportTag::type tags = 0)
: ordinal(ordinal), : ordinal(ordinal),
type(type), type(type),
name(name), name(name),
tags(0), tags(tags),
variable_ptr(0), variable_ptr(0),
function_data({nullptr, nullptr, 0}) {} function_data({nullptr, nullptr, 0}) {}

22
src/xenia/kernel/util/shim_utils.cc Normal file
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@@ -0,0 +1,22 @@
/**
******************************************************************************
* Xenia : Xbox 360 Emulator Research Project *
******************************************************************************
* Copyright 2015 Ben Vanik. All rights reserved. *
* Released under the BSD license - see LICENSE in the root for more details. *
******************************************************************************
*/
#include "xenia/kernel/util/shim_utils.h"
namespace xe {
namespace kernel {
namespace shim {
thread_local StringBuffer string_buffer_;
StringBuffer* thread_local_string_buffer() { return &string_buffer_; }
} // namespace shim
} // namespace kernel
} // namespace xe

397
src/xenia/kernel/util/shim_utils.h
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@@ -10,6 +10,9 @@
#ifndef XENIA_KERNEL_UTIL_SHIM_UTILS_H_ #ifndef XENIA_KERNEL_UTIL_SHIM_UTILS_H_
#define XENIA_KERNEL_UTIL_SHIM_UTILS_H_ #define XENIA_KERNEL_UTIL_SHIM_UTILS_H_
#include "xenia/base/byte_order.h"
#include "xenia/base/memory.h"
#include "xenia/base/string_buffer.h"
#include "xenia/cpu/export_resolver.h" #include "xenia/cpu/export_resolver.h"
#include "xenia/cpu/frontend/ppc_context.h" #include "xenia/cpu/frontend/ppc_context.h"
@@ -37,37 +40,37 @@ using PPCContext = xe::cpu::frontend::PPCContext;
#define SHIM_SET_MEM_64(a, v) xe::store_and_swap<uint64_t>(SHIM_MEM_ADDR(a), v) #define SHIM_SET_MEM_64(a, v) xe::store_and_swap<uint64_t>(SHIM_MEM_ADDR(a), v)
namespace util { namespace util {
inline uint32_t get_arg_stack_ptr(PPCContext* ppc_context, uint8_t index) { inline uint32_t get_arg_stack_ptr(PPCContext* ppc_context, uint8_t index) {
return ((uint32_t)ppc_context->r[1]) + 0x54 + index * 8; return ((uint32_t)ppc_context->r[1]) + 0x54 + index * 8;
} }
inline uint8_t get_arg_8(PPCContext* ppc_context, uint8_t index) { inline uint8_t get_arg_8(PPCContext* ppc_context, uint8_t index) {
if (index <= 7) { if (index <= 7) {
return (uint8_t)ppc_context->r[3 + index]; return (uint8_t)ppc_context->r[3 + index];
}
return SHIM_MEM_8(get_arg_stack_ptr(ppc_context, index - 7));
} }
return SHIM_MEM_8(get_arg_stack_ptr(ppc_context, index - 7));
}
inline uint16_t get_arg_16(PPCContext* ppc_context, uint8_t index) { inline uint16_t get_arg_16(PPCContext* ppc_context, uint8_t index) {
if (index <= 7) { if (index <= 7) {
return (uint16_t)ppc_context->r[3 + index]; return (uint16_t)ppc_context->r[3 + index];
}
return SHIM_MEM_16(get_arg_stack_ptr(ppc_context, index - 7));
} }
return SHIM_MEM_16(get_arg_stack_ptr(ppc_context, index - 7));
}
inline uint32_t get_arg_32(PPCContext* ppc_context, uint8_t index) { inline uint32_t get_arg_32(PPCContext* ppc_context, uint8_t index) {
if (index <= 7) { if (index <= 7) {
return (uint32_t)ppc_context->r[3 + index]; return (uint32_t)ppc_context->r[3 + index];
}
return SHIM_MEM_32(get_arg_stack_ptr(ppc_context, index - 7));
} }
return SHIM_MEM_32(get_arg_stack_ptr(ppc_context, index - 7));
}
inline uint64_t get_arg_64(PPCContext* ppc_context, uint8_t index) { inline uint64_t get_arg_64(PPCContext* ppc_context, uint8_t index) {
if (index <= 7) { if (index <= 7) {
return ppc_context->r[3 + index]; return ppc_context->r[3 + index];
}
return SHIM_MEM_64(get_arg_stack_ptr(ppc_context, index - 7));
} }
return SHIM_MEM_64(get_arg_stack_ptr(ppc_context, index - 7));
}
} }
#define SHIM_GET_ARG_8(n) util::get_arg_8(ppc_context, n) #define SHIM_GET_ARG_8(n) util::get_arg_8(ppc_context, n)
@@ -79,6 +82,354 @@ namespace util {
#define SHIM_STRUCT(type, address) \ #define SHIM_STRUCT(type, address) \
reinterpret_cast<type*>(SHIM_MEM_ADDR(address)) reinterpret_cast<type*>(SHIM_MEM_ADDR(address))
namespace shim {
class Param {
public:
struct Init {
PPCContext* ppc_context;
int ordinal;
int float_ordinal;
};
Param& operator=(const Param&) = delete;
int ordinal() const { return ordinal_; }
protected:
Param() : ordinal_(-1) {}
explicit Param(Init& init) : ordinal_(--init.ordinal) {}
int ordinal_;
};
template <typename T>
class ParamBase : public Param {
public:
ParamBase() : Param(), value_(0) {}
ParamBase(Init& init) : Param(init) { LoadValue<T>(init); }
ParamBase& operator=(const T& other) {
value_ = other;
return *this;
}
operator T() const { return value_; }
private:
template <typename V>
void LoadValue(Init& init) {
if (ordinal_ <= 7) {
value_ = V(init.ppc_context->r[3 + ordinal_]);
} else {
uint32_t stack_ptr =
uint32_t(init.ppc_context->r[1]) + 0x54 + (ordinal_ - 7) * 8;
value_ =
xe::load_and_swap<T>(init.ppc_context->virtual_membase + stack_ptr);
}
}
template <>
void LoadValue<float>(Init& init) {
value_ = init.ppc_context->f[1 + ++init.float_ordinal];
}
template <>
void LoadValue<double>(Init& init) {
value_ = init.ppc_context->f[1 + ++init.float_ordinal];
}
protected:
T value_;
};
class PointerParam : public ParamBase<uint32_t> {
public:
PointerParam(Init& init) : ParamBase(init) {
host_ptr_ = value_ ? init.ppc_context->virtual_membase + value_ : nullptr;
}
PointerParam(void* host_ptr) : ParamBase(), host_ptr_(host_ptr) {}
PointerParam& operator=(void*& other) {
host_ptr_ = other;
return *this;
}
uint32_t guest_address() const { return value_; }
uintptr_t host_address() const {
return reinterpret_cast<uintptr_t>(host_ptr_);
}
template <typename T>
T as() const {
return reinterpret_cast<T>(host_ptr_);
}
template <typename T>
xe::be<T>* as_array() const {
return reinterpret_cast<xe::be<T>*>(host_ptr_);
}
operator void*() const { return host_ptr_; }
operator uint8_t*() const { return reinterpret_cast<uint8_t*>(host_ptr_); }
operator bool() const { return host_ptr_ != nullptr; }
void* operator+(int offset) const {
return reinterpret_cast<uint8_t*>(host_ptr_) + offset;
}
void Zero(size_t size) const {
assert_not_null(host_ptr_);
std::memset(host_ptr_, 0, size);
}
protected:
void* host_ptr_;
};
template <typename T>
class PrimitivePointerParam : public ParamBase<uint32_t> {
public:
PrimitivePointerParam(Init& init) : ParamBase(init) {
host_ptr_ = value_ ? reinterpret_cast<xe::be<T>*>(
init.ppc_context->virtual_membase + value_)
: nullptr;
}
PrimitivePointerParam(T* host_ptr) : ParamBase(), host_ptr_(host_ptr) {}
PrimitivePointerParam& operator=(const T*& other) {
host_ptr_ = other;
return *this;
}
uint32_t guest_address() const { return value_; }
uintptr_t host_address() const {
return reinterpret_cast<uintptr_t>(host_ptr_);
}
T value() const { return *host_ptr_; }
operator T() const { return *host_ptr_; }
operator xe::be<T>*() const { return host_ptr_; }
operator bool() const { return host_ptr_ != nullptr; }
void Zero() const {
assert_not_null(host_ptr_);
*host_ptr_ = 0;
}
protected:
xe::be<T>* host_ptr_;
};
template <typename T>
class TypedPointerParam : public ParamBase<uint32_t> {
public:
TypedPointerParam(Init& init) : ParamBase(init) {
host_ptr_ =
value_
? reinterpret_cast<T*>(init.ppc_context->virtual_membase + value_)
: nullptr;
}
TypedPointerParam(T* host_ptr) : ParamBase(), host_ptr_(host_ptr) {}
TypedPointerParam& operator=(const T*& other) {
host_ptr_ = other;
return *this;
}
uint32_t guest_address() const { return value_; }
uintptr_t host_address() const {
return reinterpret_cast<uintptr_t>(host_ptr_);
}
operator T*() const { return host_ptr_; }
operator bool() const { return host_ptr_ != nullptr; }
T* operator->() const {
assert_not_null(host_ptr_);
return host_ptr_;
}
void Zero() const {
assert_not_null(host_ptr_);
std::memset(host_ptr_, 0, sizeof(T));
}
protected:
T* host_ptr_;
};
template <typename T>
class Result {
public:
Result(T value) : value_(value) {}
void Store(PPCContext* ppc_context) {
ppc_context->r[3] = uint64_t(int32_t(value_));
}
Result() = delete;
Result& operator=(const Result&) = delete;
private:
T value_;
};
} // namespace shim
using int_param_t = const shim::ParamBase<int32_t>&;
using dword_param_t = const shim::ParamBase<uint32_t>&;
using qword_param_t = const shim::ParamBase<uint64_t>&;
using float_param_t = const shim::ParamBase<float>&;
using double_param_t = const shim::ParamBase<double>&;
using lpvoid_param_t = const shim::PointerParam&;
using lpdword_param_t = const shim::PrimitivePointerParam<uint32_t>&;
using lpqword_param_t = const shim::PrimitivePointerParam<uint64_t>&;
using lpfloat_param_t = const shim::PrimitivePointerParam<float>&;
using lpdouble_param_t = const shim::PrimitivePointerParam<double>&;
using fn_param_t = const shim::ParamBase<uint32_t>&;
using unknown_param_t = const shim::ParamBase<uint32_t>&;
using unknown_pointer_param_t = const shim::PointerParam&;
template <typename T>
using typed_param_t = const shim::TypedPointerParam<T>&;
using dword_result_t = shim::Result<uint32_t>;
using pointer_result_t = shim::Result<uint32_t>;
namespace shim {
inline void AppendParam(StringBuffer& string_buffer, int_param_t param) {
string_buffer.AppendFormat("%d", int32_t(param));
}
inline void AppendParam(StringBuffer& string_buffer, dword_param_t param) {
string_buffer.AppendFormat("%.8X", uint32_t(param));
}
inline void AppendParam(StringBuffer& string_buffer, qword_param_t param) {
string_buffer.AppendFormat("%.16llX", uint64_t(param));
}
inline void AppendParam(StringBuffer& string_buffer, float_param_t param) {
string_buffer.AppendFormat("%G", float(param));
}
inline void AppendParam(StringBuffer& string_buffer, double_param_t param) {
string_buffer.AppendFormat("%G", double(param));
}
inline void AppendParam(StringBuffer& string_buffer, lpvoid_param_t param) {
string_buffer.AppendFormat("%.8X", uint32_t(param));
}
inline void AppendParam(StringBuffer& string_buffer, lpdword_param_t param) {
string_buffer.AppendFormat("%.8X(%.8X)", param.guest_address(),
param.value());
}
inline void AppendParam(StringBuffer& string_buffer, lpqword_param_t param) {
string_buffer.AppendFormat("%.8X(%.16llX)", param.guest_address(),
param.value());
}
inline void AppendParam(StringBuffer& string_buffer, lpfloat_param_t param) {
string_buffer.AppendFormat("%.8X(%G)", param.guest_address(), param.value());
}
inline void AppendParam(StringBuffer& string_buffer, lpdouble_param_t param) {
string_buffer.AppendFormat("%.8X(%G)", param.guest_address(), param.value());
}
template <typename T>
void AppendParam(StringBuffer& string_buffer, typed_param_t<T> param) {
string_buffer.AppendFormat("%.8X", param.guest_address());
}
enum class KernelModuleId {
xboxkrnl,
xam,
};
template <typename F, typename Tuple, std::size_t... I>
auto KernelTrampoline(F&& f, PPCContext* ppc_context, KernelState* kernel_state,
Tuple&& t, std::index_sequence<I...>) {
return std::forward<F>(f)(ppc_context, kernel_state,
std::get<I>(std::forward<Tuple>(t))...);
}
template <size_t I = 0, typename... Ps>
typename std::enable_if<I == sizeof...(Ps)>::type AppendKernelCallParams(
StringBuffer& string_buffer, xe::cpu::Export* export, const std::tuple<Ps...>&) {}
template <size_t I = 0, typename... Ps>
typename std::enable_if <
I<sizeof...(Ps)>::type AppendKernelCallParams(
StringBuffer& string_buffer, xe::cpu::Export* export, const std::tuple<Ps...>& params) {
if (I) {
string_buffer.Append(", ");
}
auto param = std::get<I>(params);
AppendParam(string_buffer, param);
AppendKernelCallParams<I + 1>(string_buffer, export, params);
}
StringBuffer* thread_local_string_buffer();
template <typename Tuple>
void PrintKernelCall(cpu::Export* export, const Tuple& params) {
auto& string_buffer = *thread_local_string_buffer();
string_buffer.Reset();
string_buffer.Append(export->name);
string_buffer.Append('(');
AppendKernelCallParams(string_buffer, export, params);
string_buffer.Append(')');
auto str = string_buffer.GetString();
if (export->tags & ExportTag::kImportant) {
XELOGI(str);
} else {
XELOGD(str);
}
}
template <KernelModuleId MODULE, uint16_t ORDINAL, typename R, typename... Ps>
xe::cpu::Export* RegisterExport(R (*fn)(PPCContext* ppc_context,
xe::kernel::KernelState* kernel_state,
Ps&...),
std::string name,
xe::cpu::ExportTag::type tags) {
static const auto export =
new cpu::Export(ORDINAL, xe::cpu::Export::Type::kFunction, name,
tags | ExportTag::kImplemented | ExportTag::kLog);
static R (*FN)(PPCContext* ppc_context, xe::kernel::KernelState* kernel_state,
Ps&...) = fn;
struct X {
static void Trampoline(PPCContext* ppc_context) {
++export->function_data.call_count;
Param::Init init = {
ppc_context, sizeof...(Ps), 0,
};
auto params = std::make_tuple<Ps...>(Ps(init)...);
if (export->tags & ExportTag::kLog) {
PrintKernelCall(export, params);
}
auto result = KernelTrampoline(FN, ppc_context, ppc_context->kernel_state,
std::forward<std::tuple<Ps...>>(params),
std::make_index_sequence<sizeof...(Ps)>());
result.Store(ppc_context);
if (export->tags & (ExportTag::kLog | ExportTag::kLogResult)) {
// TODO(benvanik): log result.
}
}
};
export->function_data.trampoline = &X::Trampoline;
return export;
}
template <KernelModuleId MODULE, uint16_t ORDINAL, typename... Ps>
xe::cpu::Export* RegisterExport(
void (*fn)(PPCContext* ppc_context, xe::kernel::KernelState* kernel_state,
Ps&...),
std::string name, xe::cpu::ExportTag::type tags) {
static const auto export =
new cpu::Export(ORDINAL, xe::cpu::Export::Type::kFunction, name,
tags | ExportTag::kImplemented | ExportTag::kLog);
static void (*FN)(PPCContext* ppc_context,
xe::kernel::KernelState* kernel_state, Ps&...) = fn;
struct X {
static void Trampoline(PPCContext* ppc_context) {
++export->function_data.call_count;
Param::Init init = {
ppc_context, sizeof...(Ps),
};
auto params = std::make_tuple<Ps...>(Ps(init)...);
if (export->tags & ExportTag::kLog) {
PrintKernelCall(export, params);
}
KernelTrampoline(FN, ppc_context, ppc_context->kernel_state,
std::forward<std::tuple<Ps...>>(params),
std::make_index_sequence<sizeof...(Ps)>());
}
};
export->function_data.trampoline = &X::Trampoline;
return export;
}
} // namespace shim
using xe::cpu::ExportTag;
#define DECLARE_EXPORT(module_name, name, tags) \
auto EXPORT_##module_name##_##name = \
RegisterExport_##module_name(xe::kernel::shim::RegisterExport< \
xe::kernel::shim::KernelModuleId::module_name, ordinals::##name>( \
&name, std::string(#name), tags));
} // namespace kernel } // namespace kernel
} // namespace xe } // namespace xe

5
src/xenia/kernel/xam_video.cc
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@@ -17,7 +17,8 @@ namespace xe {
namespace kernel { namespace kernel {
// TODO(benvanik): actually check to see if these are the same. // TODO(benvanik): actually check to see if these are the same.
void xeVdQueryVideoMode(X_VIDEO_MODE* video_mode); void VdQueryVideoMode(PPCContext* ppc_context, KernelState* kernel_state,
typed_param_t<X_VIDEO_MODE> video_mode);
SHIM_CALL XGetVideoMode_shim(PPCContext* ppc_context, SHIM_CALL XGetVideoMode_shim(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state) {
uint32_t video_mode_ptr = SHIM_GET_ARG_32(0); uint32_t video_mode_ptr = SHIM_GET_ARG_32(0);
@@ -25,7 +26,7 @@ SHIM_CALL XGetVideoMode_shim(PPCContext* ppc_context,
XELOGD("XGetVideoMode(%.8X)", video_mode_ptr); XELOGD("XGetVideoMode(%.8X)", video_mode_ptr);
xeVdQueryVideoMode(video_mode); VdQueryVideoMode(ppc_context, kernel_state, video_mode);
} }
SHIM_CALL XGetVideoCapabilities_shim(PPCContext* ppc_context, SHIM_CALL XGetVideoCapabilities_shim(PPCContext* ppc_context,

533
src/xenia/kernel/xboxkrnl_video.cc
View File

@@ -36,71 +36,49 @@ using xe::gpu::GraphicsSystem;
// http://www.microsoft.com/en-za/download/details.aspx?id=5313 -- "Stripped // http://www.microsoft.com/en-za/download/details.aspx?id=5313 -- "Stripped
// Down Direct3D: Xbox 360 Command Buffer and Resource Management" // Down Direct3D: Xbox 360 Command Buffer and Resource Management"
SHIM_CALL VdGetCurrentDisplayGamma_shim(PPCContext* ppc_context, void VdGetCurrentDisplayGamma(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t arg0_ptr = SHIM_GET_ARG_32(0); lpdword_param_t arg0_ptr,
uint32_t arg1_ptr = SHIM_GET_ARG_32(1); lpfloat_param_t arg1_ptr) {
*arg0_ptr = 2;
XELOGD("VdGetCurrentDisplayGamma(%.8X, %.8X)", arg0_ptr, arg1_ptr); *arg1_ptr = 2.22222233f;
SHIM_SET_MEM_32(arg0_ptr, 2);
xe::store_and_swap<float>(SHIM_MEM_ADDR(arg1_ptr), 2.22222233f);
} }
DECLARE_EXPORT(xboxkrnl, VdGetCurrentDisplayGamma, ExportTag::kVideo);
SHIM_CALL VdGetCurrentDisplayInformation_shim(PPCContext* ppc_context, void VdGetCurrentDisplayInformation(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t ptr = SHIM_GET_ARG_32(0); lpvoid_param_t info_ptr) {
auto info = info_ptr.as_array<uint32_t>();
XELOGD("VdGetCurrentDisplayInformation(%.8X)", ptr);
// Expecting a length 0x58 struct of stuff. // Expecting a length 0x58 struct of stuff.
SHIM_SET_MEM_32(ptr + 0, (1280 << 16) | 720); info[0 / 4] = (1280 << 16) | 720;
SHIM_SET_MEM_32(ptr + 4, 0); info[4 / 4] = 0;
SHIM_SET_MEM_32(ptr + 8, 0); info[8 / 4] = 0;
SHIM_SET_MEM_32(ptr + 12, 0); info[12 / 4] = 0;
SHIM_SET_MEM_32(ptr + 16, 1280); // backbuffer width? info[16 / 4] = 1280; // backbuffer width?
SHIM_SET_MEM_32(ptr + 20, 720); // backbuffer height? info[20 / 4] = 720; // backbuffer height?
SHIM_SET_MEM_32(ptr + 24, 1280); info[24 / 4] = 1280;
SHIM_SET_MEM_32(ptr + 28, 720); info[28 / 4] = 720;
SHIM_SET_MEM_32(ptr + 32, 1); info[32 / 4] = 1;
SHIM_SET_MEM_32(ptr + 36, 0); info[36 / 4] = 0;
SHIM_SET_MEM_32(ptr + 40, 0); info[40 / 4] = 0;
SHIM_SET_MEM_32(ptr + 44, 0); info[44 / 4] = 0;
SHIM_SET_MEM_32(ptr + 48, 1); info[48 / 4] = 1;
SHIM_SET_MEM_32(ptr + 52, 0); info[52 / 4] = 0;
SHIM_SET_MEM_32(ptr + 56, 0); info[56 / 4] = 0;
SHIM_SET_MEM_32(ptr + 60, 0); info[60 / 4] = 0;
SHIM_SET_MEM_32(ptr + 64, 0x014000B4); // ? info[64 / 4] = 0x014000B4; // ?
SHIM_SET_MEM_32(ptr + 68, 0x014000B4); // ? info[68 / 4] = 0x014000B4; // ?
SHIM_SET_MEM_32(ptr + 72, (1280 << 16) | 720); // actual display size? info[72 / 4] = (1280 << 16) | 720; // actual display size?
SHIM_SET_MEM_32(ptr + 76, 0x42700000); info[76 / 4] = 0x42700000;
SHIM_SET_MEM_32(ptr + 80, 0); info[80 / 4] = 0;
SHIM_SET_MEM_32(ptr + 84, 1280); // display width info[84 / 4] = 1280; // display width
} }
DECLARE_EXPORT(xboxkrnl, VdGetCurrentDisplayInformation, ExportTag::kVideo);
void xeVdQueryVideoMode(X_VIDEO_MODE* video_mode); void VdQueryVideoMode(PPCContext* ppc_context, KernelState* kernel_state,
typed_param_t<X_VIDEO_MODE> video_mode) {
SHIM_CALL VdQueryVideoFlags_shim(PPCContext* ppc_context,
KernelState* kernel_state) {
XELOGD("VdQueryVideoFlags()");
X_VIDEO_MODE mode;
xeVdQueryVideoMode(&mode);
uint32_t flags = 0;
flags |= mode.is_widescreen ? 1 : 0;
flags |= mode.display_width >= 1024 ? 2 : 0;
flags |= mode.display_width >= 1920 ? 4 : 0;
SHIM_SET_RETURN_32(flags);
}
void xeVdQueryVideoMode(X_VIDEO_MODE* video_mode) {
if (video_mode == NULL) {
return;
}
// TODO: get info from actual display // TODO: get info from actual display
video_mode.Zero();
video_mode->display_width = 1280; video_mode->display_width = 1280;
video_mode->display_height = 720; video_mode->display_height = 720;
video_mode->is_interlaced = 0; video_mode->is_interlaced = 0;
@@ -110,274 +88,226 @@ void xeVdQueryVideoMode(X_VIDEO_MODE* video_mode) {
video_mode->video_standard = 1; // NTSC video_mode->video_standard = 1; // NTSC
video_mode->unknown_0x8a = 0x4A; video_mode->unknown_0x8a = 0x4A;
video_mode->unknown_0x01 = 0x01; video_mode->unknown_0x01 = 0x01;
video_mode->reserved[0] = video_mode->reserved[1] = video_mode->reserved[2] = video_mode->reserved[0] = 0;
0; video_mode->reserved[1] = 0;
video_mode->reserved[2] = 0;
} }
DECLARE_EXPORT(xboxkrnl, VdQueryVideoMode, ExportTag::kVideo);
SHIM_CALL VdQueryVideoMode_shim(PPCContext* ppc_context, dword_result_t VdQueryVideoFlags(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state) {
uint32_t video_mode_ptr = SHIM_GET_ARG_32(0); X_VIDEO_MODE mode;
X_VIDEO_MODE* video_mode = (X_VIDEO_MODE*)SHIM_MEM_ADDR(video_mode_ptr); VdQueryVideoMode(ppc_context, kernel_state, &mode);
XELOGD("VdQueryVideoMode(%.8X)", video_mode_ptr); uint32_t flags = 0;
flags |= mode.is_widescreen ? 1 : 0;
flags |= mode.display_width >= 1024 ? 2 : 0;
flags |= mode.display_width >= 1920 ? 4 : 0;
xeVdQueryVideoMode(video_mode); return flags;
} }
DECLARE_EXPORT(xboxkrnl, VdQueryVideoFlags, ExportTag::kVideo);
SHIM_CALL VdSetDisplayMode_shim(PPCContext* ppc_context, dword_result_t VdSetDisplayMode(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state, dword_param_t mode) {
uint32_t mode = SHIM_GET_ARG_32(0); // Often 0x40000000.
return 0;
// 40000000
XELOGD("VdSetDisplayMode(%.8X)", mode);
SHIM_SET_RETURN_32(0);
} }
DECLARE_EXPORT(xboxkrnl, VdSetDisplayMode,
ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdSetDisplayModeOverride_shim(PPCContext* ppc_context, dword_result_t VdSetDisplayModeOverride(
KernelState* kernel_state) { PPCContext* ppc_context, KernelState* kernel_state, unknown_param_t unk0,
uint32_t unk0 = SHIM_GET_ARG_32(0); unknown_param_t unk1, double_param_t refresh_rate, unknown_param_t unk3,
uint32_t unk1 = SHIM_GET_ARG_32(1); unknown_param_t unk4) {
double refresh_rate = ppc_context->f[1]; // 0, 50, 59.9, etc. // refresh_rate = 0, 50, 59.9, etc.
uint32_t unk3 = SHIM_GET_ARG_32(3); return 0;
uint32_t unk4 = SHIM_GET_ARG_32(4);
// TODO(benvanik): something with refresh rate?
XELOGD("VdSetDisplayModeOverride(%.8X, %.8X, %g, %.8X, %.8X)", unk0, unk1,
refresh_rate, unk3, unk4);
SHIM_SET_RETURN_32(0);
} }
DECLARE_EXPORT(xboxkrnl, VdSetDisplayModeOverride,
ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdInitializeEngines_shim(PPCContext* ppc_context, dword_result_t VdInitializeEngines(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t unk0 = SHIM_GET_ARG_32(0); unknown_param_t unk0, fn_param_t callback,
uint32_t callback = SHIM_GET_ARG_32(1); unknown_param_t unk1,
uint32_t unk1 = SHIM_GET_ARG_32(2); unknown_pointer_param_t unk2_ptr,
uint32_t unk2_ptr = SHIM_GET_ARG_32(3); unknown_pointer_param_t unk3_ptr) {
uint32_t unk3_ptr = SHIM_GET_ARG_32(4);
XELOGD("VdInitializeEngines(%.8X, %.8X, %.8X, %.8X, %.8X)", unk0, callback,
unk1, unk2_ptr, unk3_ptr);
// r3 = 0x4F810000 // r3 = 0x4F810000
// r4 = function ptr (cleanup callback?) // r4 = function ptr (cleanup callback?)
// r5 = 0 // r5 = 0
// r6/r7 = some binary data in .data // r6/r7 = some binary data in .data
return 1;
SHIM_SET_RETURN_32(1);
} }
DECLARE_EXPORT(xboxkrnl, VdInitializeEngines,
ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdShutdownEngines_shim(PPCContext* ppc_context, void VdShutdownEngines(PPCContext* ppc_context, KernelState* kernel_state) {
KernelState* kernel_state) {
XELOGD("VdShutdownEngines()");
// Ignored for now. // Ignored for now.
// Games seem to call an Initialize/Shutdown pair to query info, then // Games seem to call an Initialize/Shutdown pair to query info, then
// re-initialize. // re-initialize.
} }
DECLARE_EXPORT(xboxkrnl, VdShutdownEngines,
ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdGetGraphicsAsicID_shim(PPCContext* ppc_context, dword_result_t VdGetGraphicsAsicID(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state) {
XELOGD("VdGetGraphicsAsicID()");
// Games compare for < 0x10 and do VdInitializeEDRAM, else other // Games compare for < 0x10 and do VdInitializeEDRAM, else other
// (retrain/etc). // (retrain/etc).
SHIM_SET_RETURN_32(0x11); return 0x11;
} }
DECLARE_EXPORT(xboxkrnl, VdGetGraphicsAsicID, ExportTag::kVideo);
SHIM_CALL VdEnableDisableClockGating_shim(PPCContext* ppc_context, dword_result_t VdEnableDisableClockGating(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t enabled = SHIM_GET_ARG_32(0); dword_param_t enabled) {
XELOGD("VdEnableDisableClockGating(%d)", enabled);
// Ignored, as it really doesn't matter. // Ignored, as it really doesn't matter.
return 0;
SHIM_SET_RETURN_32(0);
} }
DECLARE_EXPORT(xboxkrnl, VdEnableDisableClockGating, ExportTag::kVideo);
SHIM_CALL VdSetGraphicsInterruptCallback_shim(PPCContext* ppc_context, void VdSetGraphicsInterruptCallback(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t callback = SHIM_GET_ARG_32(0); fn_param_t callback,
uint32_t user_data = SHIM_GET_ARG_32(1); lpvoid_param_t user_data) {
XELOGD("VdSetGraphicsInterruptCallback(%.8X, %.8X)", callback, user_data);
GraphicsSystem* gs = kernel_state->emulator()->graphics_system();
if (!gs) {
return;
}
// callback takes 2 params // callback takes 2 params
// r3 = bool 0/1 - 0 is normal interrupt, 1 is some acquire/lock mumble // r3 = bool 0/1 - 0 is normal interrupt, 1 is some acquire/lock mumble
// r4 = user_data (r4 of VdSetGraphicsInterruptCallback) // r4 = user_data (r4 of VdSetGraphicsInterruptCallback)
auto gs = kernel_state->emulator()->graphics_system();
gs->SetInterruptCallback(callback, user_data); if (gs) {
} gs->SetInterruptCallback(callback, user_data);
SHIM_CALL VdInitializeRingBuffer_shim(PPCContext* ppc_context,
KernelState* kernel_state) {
uint32_t ptr = SHIM_GET_ARG_32(0);
uint32_t page_count = SHIM_GET_ARG_32(1);
XELOGD("VdInitializeRingBuffer(%.8X, %.8X)", ptr, page_count);
GraphicsSystem* gs = kernel_state->emulator()->graphics_system();
if (!gs) {
return;
} }
}
DECLARE_EXPORT(xboxkrnl, VdSetGraphicsInterruptCallback, ExportTag::kVideo);
void VdInitializeRingBuffer(PPCContext* ppc_context, KernelState* kernel_state,
lpvoid_param_t ptr, int_param_t page_count) {
// r3 = result of MmGetPhysicalAddress // r3 = result of MmGetPhysicalAddress
// r4 = number of pages? page size? // r4 = number of pages? page size?
// 0x8000 -> cntlzw=16 -> 0x1C - 16 = 12 // 0x8000 -> cntlzw=16 -> 0x1C - 16 = 12
// Buffer pointers are from MmAllocatePhysicalMemory with WRITE_COMBINE. // Buffer pointers are from MmAllocatePhysicalMemory with WRITE_COMBINE.
// Sizes could be zero? XBLA games seem to do this. Default sizes? // Sizes could be zero? XBLA games seem to do this. Default sizes?
// D3D does size / region_count - must be > 1024 // D3D does size / region_count - must be > 1024
auto gs = kernel_state->emulator()->graphics_system();
gs->InitializeRingBuffer(ptr, page_count); if (gs) {
gs->InitializeRingBuffer(ptr, page_count);
}
} }
DECLARE_EXPORT(xboxkrnl, VdInitializeRingBuffer, ExportTag::kVideo);
SHIM_CALL VdEnableRingBufferRPtrWriteBack_shim(PPCContext* ppc_context, void VdEnableRingBufferRPtrWriteBack(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t ptr = SHIM_GET_ARG_32(0); lpvoid_param_t ptr,
uint32_t block_size = SHIM_GET_ARG_32(1); int_param_t block_size) {
auto gs = kernel_state->emulator()->graphics_system();
XELOGD("VdEnableRingBufferRPtrWriteBack(%.8X, %.8X)", ptr, block_size);
GraphicsSystem* gs = kernel_state->emulator()->graphics_system();
if (!gs) { if (!gs) {
return; return;
} }
// r4 = 6, usually --- <=19 // r4 = 6, usually --- <=19
gs->EnableReadPointerWriteBack(ptr, block_size); gs->EnableReadPointerWriteBack(ptr, block_size);
ptr += 0x20000000;
// printf("%.8X", ptr);
// 0x0110343c
// r3 = 0x2B10(d3d?) + 0x3C
//((p + 0x3C) & 0x1FFFFFFF) + ((((p + 0x3C) >> 20) + 0x200) & 0x1000)
// also 0x3C offset into WriteBacks is PrimaryRingBufferReadIndex
//(1:17:38 AM) Rick: .text:8201B348 lwz r11, 0x2B10(r31)
//(1:17:38 AM) Rick: .text:8201B34C addi r11, r11, 0x3C
//(1:17:38 AM) Rick: .text:8201B350 srwi r10, r11, 20 #
// r10 = r11 >> 20
//(1:17:38 AM) Rick: .text:8201B354 clrlwi r11, r11, 3 #
// r11 = r11 & 0x1FFFFFFF
//(1:17:38 AM) Rick: .text:8201B358 addi r10, r10, 0x200
//(1:17:39 AM) Rick: .text:8201B35C rlwinm r10, r10,
// 0,19,19 # r10 = r10 & 0x1000
//(1:17:39 AM) Rick: .text:8201B360 add r3, r10, r11
//(1:17:39 AM) Rick: .text:8201B364 bl
// VdEnableRingBufferRPtrWriteBack
// TODO(benvanik): something?
} }
DECLARE_EXPORT(xboxkrnl, VdEnableRingBufferRPtrWriteBack, ExportTag::kVideo);
SHIM_CALL VdGetSystemCommandBuffer_shim(PPCContext* ppc_context, void VdGetSystemCommandBuffer(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t p0_ptr = SHIM_GET_ARG_32(0); unknown_pointer_param_t p0_ptr,
uint32_t p1_ptr = SHIM_GET_ARG_32(1); unknown_pointer_param_t p1_ptr) {
p0_ptr.Zero(0x94);
XELOGD("VdGetSystemCommandBuffer(%.8X, %.8X)", p0_ptr, p1_ptr); xe::store_and_swap<uint32_t>(p0_ptr, 0xBEEF0000);
xe::store_and_swap<uint32_t>(p1_ptr, 0xBEEF0001);
std::memset(SHIM_MEM_ADDR(p0_ptr), 0, 0x94);
SHIM_SET_MEM_32(p0_ptr, 0xBEEF0000);
SHIM_SET_MEM_32(p1_ptr, 0xBEEF0001);
} }
DECLARE_EXPORT(xboxkrnl, VdGetSystemCommandBuffer,
ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdSetSystemCommandBufferGpuIdentifierAddress_shim( void VdSetSystemCommandBufferGpuIdentifierAddress(PPCContext* ppc_context,
PPCContext* ppc_context, KernelState* kernel_state) { KernelState* kernel_state,
uint32_t unk = SHIM_GET_ARG_32(0); unknown_pointer_param_t unk) {
XELOGD("VdSetSystemCommandBufferGpuIdentifierAddress(%.8X)", unk);
// r3 = 0x2B10(d3d?) + 8 // r3 = 0x2B10(d3d?) + 8
} }
DECLARE_EXPORT(xboxkrnl, VdSetSystemCommandBufferGpuIdentifierAddress,
ExportTag::kVideo | ExportTag::kStub);
// VdVerifyMEInitCommand // VdVerifyMEInitCommand
// r3 // r3
// r4 = 19 // r4 = 19
// no op? // no op?
SHIM_CALL VdInitializeScalerCommandBuffer_shim(PPCContext* ppc_context, dword_result_t VdInitializeScalerCommandBuffer(
KernelState* kernel_state) { PPCContext* ppc_context, KernelState* kernel_state,
uint32_t unk0 = SHIM_GET_ARG_32(0); // 0? unknown_param_t unk0, // 0?
uint32_t unk1 = SHIM_GET_ARG_32(1); // 0x050002d0 size of ? unknown_param_t unk1, // 0x050002d0 size of ?
uint32_t unk2 = SHIM_GET_ARG_32(2); // 0? unknown_param_t unk2, // 0?
uint32_t unk3 = SHIM_GET_ARG_32(3); // 0x050002d0 size of ? unknown_param_t unk3, // 0x050002d0 size of ?
uint32_t unk4 = SHIM_GET_ARG_32(4); // 0x050002d0 size of ? unknown_param_t unk4, // 0x050002d0 size of ?
uint32_t unk5 = SHIM_GET_ARG_32(5); // 7? unknown_param_t unk5, // 7?
uint32_t unk6 = SHIM_GET_ARG_32(6); // 0x2004909c <-- points to zeros? unknown_pointer_param_t unk6, // 0x2004909c <-- points to zeros?
uint32_t unk7 = SHIM_GET_ARG_32(7); // 7? unknown_param_t unk7, // 7?
uint32_t dest_ptr = SHIM_GET_ARG_32(8); // Points to the first 80000000h where the memcpy sources from. lpvoid_param_t dest_ptr // Points to the first 80000000h where the memcpy
// sources from.
XELOGD( ) {
"VdInitializeScalerCommandBuffer(%.8X, %.8X, %.8X, %.8X, %.8X, %.8X, "
"%.8X, %.8X, %.8X)",
unk0, unk1, unk2, unk3, unk4, unk5, unk6, unk7, dest_ptr);
// We could fake the commands here, but I'm not sure the game checks for // We could fake the commands here, but I'm not sure the game checks for
// anything but success (non-zero ret). // anything but success (non-zero ret).
// For now, we just fill it with NOPs. // For now, we just fill it with NOPs.
size_t total_words = 0x1CC / 4; uint32_t total_words = 0x1CC / 4;
uint8_t* p = SHIM_MEM_ADDR(dest_ptr); auto dest = dest_ptr.as_array<uint32_t>();
for (size_t i = 0; i < total_words; ++i, p += 4) { for (size_t i = 0; i < total_words; ++i) {
xe::store_and_swap(p, 0x80000000); dest[i] = 0x80000000;
} }
// returns memcpy size >> 2 for memcpy(...,...,ret << 2) // returns memcpy size >> 2 for memcpy(...,...,ret << 2)
SHIM_SET_RETURN_32(total_words >> 2); return total_words >> 2;
} }
DECLARE_EXPORT(xboxkrnl, VdInitializeScalerCommandBuffer,
ExportTag::kVideo | ExportTag::kSketchy);
// We use these to shuffle data to VdSwap. // We use these to shuffle data to VdSwap.
// This way it gets properly stored in the command buffer (for replay/etc). // This way it gets properly stored in the command buffer (for replay/etc).
static uint32_t last_frontbuffer_width_ = 1280; uint32_t last_frontbuffer_width_ = 1280;
static uint32_t last_frontbuffer_height_ = 720; uint32_t last_frontbuffer_height_ = 720;
SHIM_CALL VdCallGraphicsNotificationRoutines_shim(PPCContext* ppc_context, struct BufferScaling {
KernelState* kernel_state) { xe::be<uint16_t> fb_width;
uint32_t unk_1 = SHIM_GET_ARG_32(0); xe::be<uint16_t> fb_height;
uint32_t args_ptr = SHIM_GET_ARG_32(1); xe::be<uint16_t> bb_width;
xe::be<uint16_t> bb_height;
};
void AppendParam(StringBuffer& string_buffer,
typed_param_t<BufferScaling> param) {
string_buffer.AppendFormat(
"%.8X(scale %dx%d -> %dx%d))", param.guest_address(),
uint16_t(param->bb_width), uint16_t(param->bb_height),
uint16_t(param->fb_width), uint16_t(param->fb_height));
}
assert_true(unk_1 == 1); dword_result_t VdCallGraphicsNotificationRoutines(
PPCContext* ppc_context, KernelState* kernel_state, unknown_param_t unk0,
uint16_t fb_width = SHIM_MEM_16(args_ptr + 0); typed_param_t<BufferScaling> args_ptr) {
uint16_t fb_height = SHIM_MEM_16(args_ptr + 2); assert_true(unk0 == 1);
uint16_t bb_width = SHIM_MEM_16(args_ptr + 4);
uint16_t bb_height = SHIM_MEM_16(args_ptr + 6);
XELOGD("VdCallGraphicsNotificationRoutines(%d, %.8X(scale %dx%d -> %dx%d))",
unk_1, args_ptr, bb_width, bb_height, fb_width, fb_height);
// TODO(benvanik): what does this mean, I forget: // TODO(benvanik): what does this mean, I forget:
// callbacks get 0, r3, r4 // callbacks get 0, r3, r4
// For use by VdSwap. // For use by VdSwap.
last_frontbuffer_width_ = fb_width; last_frontbuffer_width_ = args_ptr->fb_width;
last_frontbuffer_height_ = fb_height; last_frontbuffer_height_ = args_ptr->fb_height;
SHIM_SET_RETURN_32(0); return 0;
} }
DECLARE_EXPORT(xboxkrnl, VdCallGraphicsNotificationRoutines,
ExportTag::kVideo | ExportTag::kSketchy);
SHIM_CALL VdIsHSIOTrainingSucceeded_shim(PPCContext* ppc_context, dword_result_t VdIsHSIOTrainingSucceeded(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state) {
XELOGD("VdIsHSIOTrainingSucceeded()");
// Not really sure what this should be - code does weird stuff here: // Not really sure what this should be - code does weird stuff here:
// (cntlzw r11, r3 / extrwi r11, r11, 1, 26) // (cntlzw r11, r3 / extrwi r11, r11, 1, 26)
SHIM_SET_RETURN_32(1); return 1;
} }
DECLARE_EXPORT(xboxkrnl, VdIsHSIOTrainingSucceeded,
ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdPersistDisplay_shim(PPCContext* ppc_context, dword_result_t VdPersistDisplay(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state, unknown_param_t unk0,
uint32_t unk0 = SHIM_GET_ARG_32(0); lpdword_param_t unk1_ptr) {
uint32_t unk1_ptr = SHIM_GET_ARG_32(1);
XELOGD("VdPersistDisplay(%.8X, %.8X)", unk0, unk1_ptr);
// unk1_ptr needs to be populated with a pointer passed to // unk1_ptr needs to be populated with a pointer passed to
// MmFreePhysicalMemory(1, *unk1_ptr). // MmFreePhysicalMemory(1, *unk1_ptr).
if (unk1_ptr) { if (unk1_ptr) {
@@ -385,112 +315,77 @@ SHIM_CALL VdPersistDisplay_shim(PPCContext* ppc_context,
uint32_t unk1_value; uint32_t unk1_value;
heap->Alloc(64, 32, kMemoryAllocationReserve | kMemoryAllocationCommit, heap->Alloc(64, 32, kMemoryAllocationReserve | kMemoryAllocationCommit,
kMemoryProtectNoAccess, false, &unk1_value); kMemoryProtectNoAccess, false, &unk1_value);
SHIM_SET_MEM_32(unk1_ptr, unk1_value); *unk1_ptr = unk1_value;
} }
// ? return 1;
SHIM_SET_RETURN_32(1);
} }
DECLARE_EXPORT(xboxkrnl, VdPersistDisplay,
ExportTag::kVideo | ExportTag::kSketchy);
SHIM_CALL VdRetrainEDRAMWorker_shim(PPCContext* ppc_context, dword_result_t VdRetrainEDRAMWorker(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state,
uint32_t unk0 = SHIM_GET_ARG_32(0); unknown_param_t unk0) {
return 0;
XELOGD("VdRetrainEDRAMWorker(%.8X)", unk0);
SHIM_SET_RETURN_32(0);
} }
DECLARE_EXPORT(xboxkrnl, VdRetrainEDRAMWorker,
ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdRetrainEDRAM_shim(PPCContext* ppc_context, dword_result_t VdRetrainEDRAM(PPCContext* ppc_context,
KernelState* kernel_state) { KernelState* kernel_state, unknown_param_t unk0,
uint32_t unk0 = SHIM_GET_ARG_32(0); unknown_param_t unk1, unknown_param_t unk2,
uint32_t unk1 = SHIM_GET_ARG_32(1); unknown_param_t unk3, unknown_param_t unk4,
uint32_t unk2 = SHIM_GET_ARG_32(2); unknown_param_t unk5) {
uint32_t unk3 = SHIM_GET_ARG_32(3); return 0;
uint32_t unk4 = SHIM_GET_ARG_32(4);
uint32_t unk5 = SHIM_GET_ARG_32(5);
XELOGD("VdRetrainEDRAM(%.8X, %.8X, %.8X, %.8X, %.8X, %.8X)", unk0, unk1, unk2,
unk3, unk4, unk5);
SHIM_SET_RETURN_32(0);
} }
DECLARE_EXPORT(xboxkrnl, VdRetrainEDRAM, ExportTag::kVideo | ExportTag::kStub);
SHIM_CALL VdSwap_shim(PPCContext* ppc_context, KernelState* kernel_state) { void VdSwap(
uint32_t buffer_ptr = SHIM_GET_ARG_32(0); // ptr into primary ringbuffer PPCContext* ppc_context, KernelState* kernel_state,
uint32_t fetch_ptr = SHIM_GET_ARG_32(1); // frontbuffer texture fetch lpvoid_param_t buffer_ptr, // ptr into primary ringbuffer
uint32_t unk2 = SHIM_GET_ARG_32(2); lpvoid_param_t fetch_ptr, // frontbuffer texture fetch
uint32_t unk3 = SHIM_GET_ARG_32(3); // buffer from VdGetSystemCommandBuffer unknown_param_t unk2, //
uint32_t unk4 = unknown_pointer_param_t unk3, // buffer from VdGetSystemCommandBuffer
SHIM_GET_ARG_32(4); // pointer from VdGetSystemCommandBuffer (0xBEEF0001) unknown_pointer_param_t unk4, // from VdGetSystemCommandBuffer (0xBEEF0001)
uint32_t frontbuffer_ptr = SHIM_GET_ARG_32(5); // ptr to frontbuffer address lpdword_param_t frontbuffer_ptr, // ptr to frontbuffer address
uint32_t color_format_ptr = SHIM_GET_ARG_32(6); lpdword_param_t color_format_ptr, lpdword_param_t color_space_ptr) {
uint32_t color_space_ptr = SHIM_GET_ARG_32(7);
uint32_t frontbuffer = SHIM_MEM_32(frontbuffer_ptr);
gpu::xenos::xe_gpu_texture_fetch_t fetch; gpu::xenos::xe_gpu_texture_fetch_t fetch;
xe::copy_and_swap_32_unaligned((uint32_t*)&fetch, xe::copy_and_swap_32_unaligned(
(uint32_t*)SHIM_MEM_ADDR(fetch_ptr), 6); reinterpret_cast<uint32_t*>(&fetch),
reinterpret_cast<uint32_t*>(fetch_ptr.host_address()), 6);
auto color_format = (gpu::xenos::ColorFormat)SHIM_MEM_32(color_format_ptr); auto color_format = gpu::xenos::ColorFormat(color_format_ptr.value());
auto color_space = SHIM_MEM_32(color_space_ptr); auto color_space = *color_space_ptr;
assert_true(color_format == gpu::xenos::ColorFormat::k_8_8_8_8); assert_true(color_format == gpu::xenos::ColorFormat::k_8_8_8_8);
assert_true(color_space == 0); assert_true(color_space == 0);
assert_true(frontbuffer == fetch.address << 12); assert_true(*frontbuffer_ptr == fetch.address << 12);
assert_true(last_frontbuffer_width_ == 1 + fetch.size_2d.width); assert_true(last_frontbuffer_width_ == 1 + fetch.size_2d.width);
assert_true(last_frontbuffer_height_ == 1 + fetch.size_2d.height); assert_true(last_frontbuffer_height_ == 1 + fetch.size_2d.height);
XELOGD("VdSwap(%.8X, %.8X, %.8X, %.8X, %.8X, %.8X(%.8X), %.8X(%u), %.8X(%u))",
buffer_ptr, fetch_ptr, unk2, unk3, unk4, frontbuffer_ptr, frontbuffer,
color_format_ptr, color_format, color_space_ptr, color_space);
// The caller seems to reserve 64 words (256b) in the primary ringbuffer // The caller seems to reserve 64 words (256b) in the primary ringbuffer
// for this method to do what it needs. We just zero them out and send a // for this method to do what it needs. We just zero them out and send a
// token value. It'd be nice to figure out what this is really doing so // token value. It'd be nice to figure out what this is really doing so
// that we could simulate it, though due to TCR I bet all games need to // that we could simulate it, though due to TCR I bet all games need to
// use this method. // use this method.
std::memset(SHIM_MEM_ADDR(buffer_ptr), 0, 64 * 4); buffer_ptr.Zero(64 * 4);
auto dwords = reinterpret_cast<uint32_t*>(SHIM_MEM_ADDR(buffer_ptr));
dwords[0] = xe::byte_swap((0x3 << 30) | ((63 - 1) << 16) | auto dwords = buffer_ptr.as_array<uint32_t>();
(xe::gpu::xenos::PM4_XE_SWAP << 8)); dwords[0] =
dwords[1] = xe::byte_swap('SWAP'); (0x3 << 30) | ((63 - 1) << 16) | (xe::gpu::xenos::PM4_XE_SWAP << 8);
dwords[2] = xe::byte_swap(frontbuffer); dwords[1] = 'SWAP';
dwords[2] = *frontbuffer_ptr;
// Set by VdCallGraphicsNotificationRoutines. // Set by VdCallGraphicsNotificationRoutines.
dwords[3] = xe::byte_swap(last_frontbuffer_width_); dwords[3] = last_frontbuffer_width_;
dwords[4] = xe::byte_swap(last_frontbuffer_height_); dwords[4] = last_frontbuffer_height_;
} }
DECLARE_EXPORT(xboxkrnl, VdSwap, ExportTag::kVideo | ExportTag::kImportant);
} // namespace kernel } // namespace kernel
} // namespace xe } // namespace xe
void xe::kernel::xboxkrnl::RegisterVideoExports( void xe::kernel::xboxkrnl::RegisterVideoExports(
xe::cpu::ExportResolver* export_resolver, KernelState* kernel_state) { xe::cpu::ExportResolver* export_resolver, KernelState* kernel_state) {
SHIM_SET_MAPPING("xboxkrnl.exe", VdGetCurrentDisplayGamma, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdGetCurrentDisplayInformation, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdQueryVideoFlags, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdQueryVideoMode, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdSetDisplayMode, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdSetDisplayModeOverride, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdInitializeEngines, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdShutdownEngines, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdGetGraphicsAsicID, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdEnableDisableClockGating, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdSetGraphicsInterruptCallback, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdInitializeRingBuffer, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdEnableRingBufferRPtrWriteBack, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdGetSystemCommandBuffer, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdSetSystemCommandBufferGpuIdentifierAddress,
state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdInitializeScalerCommandBuffer, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdCallGraphicsNotificationRoutines, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdIsHSIOTrainingSucceeded, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdPersistDisplay, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdRetrainEDRAMWorker, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdRetrainEDRAM, state);
SHIM_SET_MAPPING("xboxkrnl.exe", VdSwap, state);
Memory* memory = kernel_state->memory(); Memory* memory = kernel_state->memory();
// VdGlobalDevice (4b) // VdGlobalDevice (4b)