Med Ismail Bennani 1e467e4485
[lldb] Introduce ScriptedFrameProvider for real threads (#161870)
This patch extends ScriptedFrame to work with real (non-scripted)
threads,
enabling frame providers to synthesize frames for native processes.

Previously, ScriptedFrame only worked within
ScriptedProcess/ScriptedThread
contexts. This patch decouples ScriptedFrame from ScriptedThread,
allowing
users to augment or replace stack frames in real debugging sessions for
use
cases like custom calling conventions, reconstructing corrupted frames
from
core files, or adding diagnostic frames.

Key changes:

- ScriptedFrame::Create() now accepts ThreadSP instead of requiring
ScriptedThread, extracting architecture from the target triple rather
than ScriptedProcess.arch

- Added SBTarget::RegisterScriptedFrameProvider() and
ClearScriptedFrameProvider() APIs, with Target storing a
SyntheticFrameProviderDescriptor template for new threads

- Added "target frame-provider register/clear" commands for CLI access

- Thread class gains LoadScriptedFrameProvider(),
ClearScriptedFrameProvider(),
and GetFrameProvider() methods for per-thread frame provider management

- New SyntheticStackFrameList overrides FetchFramesUpTo() to lazily
provide
frames from either the frame provider or the real stack

This enables practical use of the SyntheticFrameProvider infrastructure
in
real debugging workflows.

rdar://161834688

Signed-off-by: Med Ismail Bennani <ismail@bennani.ma>

Signed-off-by: Med Ismail Bennani <ismail@bennani.ma>
2025-11-11 20:18:45 +00:00

764 lines
29 KiB
C++

//===-- ScriptedPythonInterface.h -------------------------------*- C++ -*-===//
//
// Part of the LLVM Project, under the Apache License v2.0 with LLVM Exceptions.
// See https://llvm.org/LICENSE.txt for license information.
// SPDX-License-Identifier: Apache-2.0 WITH LLVM-exception
//
//===----------------------------------------------------------------------===//
#ifndef LLDB_PLUGINS_SCRIPTINTERPRETER_PYTHON_INTERFACES_SCRIPTEDPYTHONINTERFACE_H
#define LLDB_PLUGINS_SCRIPTINTERPRETER_PYTHON_INTERFACES_SCRIPTEDPYTHONINTERFACE_H
#if LLDB_ENABLE_PYTHON
#include <optional>
#include <sstream>
#include <tuple>
#include <type_traits>
#include <utility>
#include "lldb/Host/Config.h"
#include "lldb/Interpreter/Interfaces/ScriptedInterface.h"
#include "lldb/Utility/DataBufferHeap.h"
#include "../PythonDataObjects.h"
#include "../SWIGPythonBridge.h"
#include "../ScriptInterpreterPythonImpl.h"
namespace lldb_private {
class ScriptInterpreterPythonImpl;
class ScriptedPythonInterface : virtual public ScriptedInterface {
public:
ScriptedPythonInterface(ScriptInterpreterPythonImpl &interpreter);
~ScriptedPythonInterface() override = default;
enum class AbstractMethodCheckerCases {
eNotImplemented,
eNotAllocated,
eNotCallable,
eUnknownArgumentCount,
eInvalidArgumentCount,
eValid
};
struct AbstrackMethodCheckerPayload {
struct InvalidArgumentCountPayload {
InvalidArgumentCountPayload(size_t required, size_t actual)
: required_argument_count(required), actual_argument_count(actual) {}
size_t required_argument_count;
size_t actual_argument_count;
};
AbstractMethodCheckerCases checker_case;
std::variant<std::monostate, InvalidArgumentCountPayload> payload;
};
llvm::Expected<std::map<llvm::StringLiteral, AbstrackMethodCheckerPayload>>
CheckAbstractMethodImplementation(
const python::PythonDictionary &class_dict) const {
using namespace python;
std::map<llvm::StringLiteral, AbstrackMethodCheckerPayload> checker;
#define SET_CASE_AND_CONTINUE(method_name, case) \
{ \
checker[method_name] = {case, {}}; \
continue; \
}
for (const AbstractMethodRequirement &requirement :
GetAbstractMethodRequirements()) {
llvm::StringLiteral method_name = requirement.name;
if (!class_dict.HasKey(method_name))
SET_CASE_AND_CONTINUE(method_name,
AbstractMethodCheckerCases::eNotImplemented)
auto callable_or_err = class_dict.GetItem(method_name);
if (!callable_or_err) {
llvm::consumeError(callable_or_err.takeError());
SET_CASE_AND_CONTINUE(method_name,
AbstractMethodCheckerCases::eNotAllocated)
}
PythonCallable callable = callable_or_err->AsType<PythonCallable>();
if (!callable)
SET_CASE_AND_CONTINUE(method_name,
AbstractMethodCheckerCases::eNotCallable)
if (!requirement.min_arg_count)
SET_CASE_AND_CONTINUE(method_name, AbstractMethodCheckerCases::eValid)
auto arg_info_or_err = callable.GetArgInfo();
if (!arg_info_or_err) {
llvm::consumeError(arg_info_or_err.takeError());
SET_CASE_AND_CONTINUE(method_name,
AbstractMethodCheckerCases::eUnknownArgumentCount)
}
PythonCallable::ArgInfo arg_info = *arg_info_or_err;
if (requirement.min_arg_count <= arg_info.max_positional_args) {
SET_CASE_AND_CONTINUE(method_name, AbstractMethodCheckerCases::eValid)
} else {
checker[method_name] = {
AbstractMethodCheckerCases::eInvalidArgumentCount,
AbstrackMethodCheckerPayload::InvalidArgumentCountPayload(
requirement.min_arg_count, arg_info.max_positional_args)};
}
}
#undef SET_CASE_AND_CONTINUE
return checker;
}
template <typename... Args>
llvm::Expected<StructuredData::GenericSP>
CreatePluginObject(llvm::StringRef class_name,
StructuredData::Generic *script_obj, Args... args) {
using namespace python;
using Locker = ScriptInterpreterPythonImpl::Locker;
Log *log = GetLog(LLDBLog::Script);
auto create_error = [](llvm::StringLiteral format, auto &&...ts) {
return llvm::createStringError(
llvm::formatv(format.data(), std::forward<decltype(ts)>(ts)...)
.str());
};
bool has_class_name = !class_name.empty();
bool has_interpreter_dict =
!(llvm::StringRef(m_interpreter.GetDictionaryName()).empty());
if (!has_class_name && !has_interpreter_dict && !script_obj) {
if (!has_class_name)
return create_error("Missing script class name.");
else if (!has_interpreter_dict)
return create_error("Invalid script interpreter dictionary.");
else
return create_error("Missing scripting object.");
}
Locker py_lock(&m_interpreter, Locker::AcquireLock | Locker::NoSTDIN,
Locker::FreeLock);
PythonObject result = {};
if (script_obj) {
result = PythonObject(PyRefType::Borrowed,
static_cast<PyObject *>(script_obj->GetValue()));
} else {
auto dict =
PythonModule::MainModule().ResolveName<python::PythonDictionary>(
m_interpreter.GetDictionaryName());
if (!dict.IsAllocated())
return create_error("Could not find interpreter dictionary: {0}",
m_interpreter.GetDictionaryName());
auto init =
PythonObject::ResolveNameWithDictionary<python::PythonCallable>(
class_name, dict);
if (!init.IsAllocated())
return create_error("Could not find script class: {0}",
class_name.data());
std::tuple<Args...> original_args = std::forward_as_tuple(args...);
auto transformed_args = TransformArgs(original_args);
std::string error_string;
llvm::Expected<PythonCallable::ArgInfo> arg_info = init.GetArgInfo();
if (!arg_info) {
llvm::handleAllErrors(
arg_info.takeError(),
[&](PythonException &E) { error_string.append(E.ReadBacktrace()); },
[&](const llvm::ErrorInfoBase &E) {
error_string.append(E.message());
});
return llvm::createStringError(llvm::inconvertibleErrorCode(),
error_string);
}
llvm::Expected<PythonObject> expected_return_object =
create_error("Resulting object is not initialized.");
// This relax the requirement on the number of argument for
// initializing scripting extension if the size of the interface
// parameter pack contains 1 less element than the extension maximum
// number of positional arguments for this initializer.
//
// This addresses the cases where the embedded interpreter session
// dictionary is passed to the extension initializer which is not used
// most of the time.
// Note, though none of our API's suggest defining the interfaces with
// varargs, we have some extant clients that were doing that. To keep
// from breaking them, we just say putting a varargs in these signatures
// turns off argument checking.
size_t num_args = sizeof...(Args);
if (arg_info->max_positional_args != PythonCallable::ArgInfo::UNBOUNDED &&
num_args != arg_info->max_positional_args) {
if (num_args != arg_info->max_positional_args - 1)
return create_error("Passed arguments ({0}) doesn't match the number "
"of expected arguments ({1}).",
num_args, arg_info->max_positional_args);
std::apply(
[&init, &expected_return_object](auto &&...args) {
llvm::consumeError(expected_return_object.takeError());
expected_return_object = init(args...);
},
std::tuple_cat(transformed_args, std::make_tuple(dict)));
} else {
std::apply(
[&init, &expected_return_object](auto &&...args) {
llvm::consumeError(expected_return_object.takeError());
expected_return_object = init(args...);
},
transformed_args);
}
if (!expected_return_object)
return expected_return_object.takeError();
result = expected_return_object.get();
}
if (!result.IsValid())
return create_error("Resulting object is not a valid Python Object.");
if (!result.HasAttribute("__class__"))
return create_error("Resulting object doesn't have '__class__' member.");
PythonObject obj_class = result.GetAttributeValue("__class__");
if (!obj_class.IsValid())
return create_error("Resulting class object is not a valid.");
if (!obj_class.HasAttribute("__name__"))
return create_error(
"Resulting object class doesn't have '__name__' member.");
PythonString obj_class_name =
obj_class.GetAttributeValue("__name__").AsType<PythonString>();
PythonObject object_class_mapping_proxy =
obj_class.GetAttributeValue("__dict__");
if (!obj_class.HasAttribute("__dict__"))
return create_error(
"Resulting object class doesn't have '__dict__' member.");
PythonCallable dict_converter = PythonModule::BuiltinsModule()
.ResolveName("dict")
.AsType<PythonCallable>();
if (!dict_converter.IsAllocated())
return create_error(
"Python 'builtins' module doesn't have 'dict' class.");
PythonDictionary object_class_dict =
dict_converter(object_class_mapping_proxy).AsType<PythonDictionary>();
if (!object_class_dict.IsAllocated())
return create_error("Coudn't create dictionary from resulting object "
"class mapping proxy object.");
auto checker_or_err = CheckAbstractMethodImplementation(object_class_dict);
if (!checker_or_err)
return checker_or_err.takeError();
llvm::Error abstract_method_errors = llvm::Error::success();
for (const auto &method_checker : *checker_or_err)
switch (method_checker.second.checker_case) {
case AbstractMethodCheckerCases::eNotImplemented:
abstract_method_errors = llvm::joinErrors(
std::move(abstract_method_errors),
std::move(create_error("Abstract method {0}.{1} not implemented.",
obj_class_name.GetString(),
method_checker.first)));
break;
case AbstractMethodCheckerCases::eNotAllocated:
abstract_method_errors = llvm::joinErrors(
std::move(abstract_method_errors),
std::move(create_error("Abstract method {0}.{1} not allocated.",
obj_class_name.GetString(),
method_checker.first)));
break;
case AbstractMethodCheckerCases::eNotCallable:
abstract_method_errors = llvm::joinErrors(
std::move(abstract_method_errors),
std::move(create_error("Abstract method {0}.{1} not callable.",
obj_class_name.GetString(),
method_checker.first)));
break;
case AbstractMethodCheckerCases::eUnknownArgumentCount:
abstract_method_errors = llvm::joinErrors(
std::move(abstract_method_errors),
std::move(create_error(
"Abstract method {0}.{1} has unknown argument count.",
obj_class_name.GetString(), method_checker.first)));
break;
case AbstractMethodCheckerCases::eInvalidArgumentCount: {
auto &payload_variant = method_checker.second.payload;
if (!std::holds_alternative<
AbstrackMethodCheckerPayload::InvalidArgumentCountPayload>(
payload_variant)) {
abstract_method_errors = llvm::joinErrors(
std::move(abstract_method_errors),
std::move(create_error(
"Abstract method {0}.{1} has unexpected argument count.",
obj_class_name.GetString(), method_checker.first)));
} else {
auto payload = std::get<
AbstrackMethodCheckerPayload::InvalidArgumentCountPayload>(
payload_variant);
abstract_method_errors = llvm::joinErrors(
std::move(abstract_method_errors),
std::move(
create_error("Abstract method {0}.{1} has unexpected "
"argument count (expected {2} but has {3}).",
obj_class_name.GetString(), method_checker.first,
payload.required_argument_count,
payload.actual_argument_count)));
}
} break;
case AbstractMethodCheckerCases::eValid:
LLDB_LOG(log, "Abstract method {0}.{1} implemented & valid.",
obj_class_name.GetString(), method_checker.first);
break;
}
if (abstract_method_errors) {
Status error = Status::FromError(std::move(abstract_method_errors));
LLDB_LOG(log, "Abstract method error in {0}:\n{1}", class_name,
error.AsCString());
return error.ToError();
}
m_object_instance_sp = StructuredData::GenericSP(
new StructuredPythonObject(std::move(result)));
return m_object_instance_sp;
}
/// Call a static method on a Python class without creating an instance.
///
/// This method resolves a Python class by name and calls a static method
/// on it, returning the result. This is useful for calling class-level
/// methods that don't require an instance.
///
/// \param class_name The fully-qualified name of the Python class.
/// \param method_name The name of the static method to call.
/// \param error Output parameter to receive error information if the call
/// fails.
/// \param args Arguments to pass to the static method.
///
/// \return The return value of the static method call, or an error value.
template <typename T = StructuredData::ObjectSP, typename... Args>
T CallStaticMethod(llvm::StringRef class_name, llvm::StringRef method_name,
Status &error, Args &&...args) {
using namespace python;
using Locker = ScriptInterpreterPythonImpl::Locker;
std::string caller_signature =
llvm::Twine(LLVM_PRETTY_FUNCTION + llvm::Twine(" (") +
llvm::Twine(class_name) + llvm::Twine(".") +
llvm::Twine(method_name) + llvm::Twine(")"))
.str();
if (class_name.empty())
return ErrorWithMessage<T>(caller_signature, "missing script class name",
error);
Locker py_lock(&m_interpreter, Locker::AcquireLock | Locker::NoSTDIN,
Locker::FreeLock);
// Get the interpreter dictionary.
auto dict =
PythonModule::MainModule().ResolveName<python::PythonDictionary>(
m_interpreter.GetDictionaryName());
if (!dict.IsAllocated())
return ErrorWithMessage<T>(
caller_signature,
llvm::formatv("could not find interpreter dictionary: {0}",
m_interpreter.GetDictionaryName())
.str(),
error);
// Resolve the class.
auto class_obj =
PythonObject::ResolveNameWithDictionary<python::PythonCallable>(
class_name, dict);
if (!class_obj.IsAllocated())
return ErrorWithMessage<T>(
caller_signature,
llvm::formatv("could not find script class: {0}", class_name).str(),
error);
// Get the static method from the class.
if (!class_obj.HasAttribute(method_name))
return ErrorWithMessage<T>(
caller_signature,
llvm::formatv("class {0} does not have method {1}", class_name,
method_name)
.str(),
error);
PythonCallable method =
class_obj.GetAttributeValue(method_name).AsType<PythonCallable>();
if (!method.IsAllocated())
return ErrorWithMessage<T>(caller_signature,
llvm::formatv("method {0}.{1} is not callable",
class_name, method_name)
.str(),
error);
// Transform the arguments.
std::tuple<Args...> original_args = std::forward_as_tuple(args...);
auto transformed_args = TransformArgs(original_args);
// Call the static method.
llvm::Expected<PythonObject> expected_return_object =
llvm::make_error<llvm::StringError>("Not initialized.",
llvm::inconvertibleErrorCode());
std::apply(
[&method, &expected_return_object](auto &&...args) {
llvm::consumeError(expected_return_object.takeError());
expected_return_object = method(args...);
},
transformed_args);
if (llvm::Error e = expected_return_object.takeError()) {
error = Status::FromError(std::move(e));
return ErrorWithMessage<T>(
caller_signature, "python static method could not be called", error);
}
PythonObject py_return = std::move(expected_return_object.get());
// Re-assign reference and pointer arguments if needed.
if (sizeof...(Args) > 0)
if (!ReassignPtrsOrRefsArgs(original_args, transformed_args))
return ErrorWithMessage<T>(
caller_signature,
"couldn't re-assign reference and pointer arguments", error);
// Extract value from Python object (handles unallocated case).
return ExtractValueFromPythonObject<T>(py_return, error);
}
protected:
template <typename T = StructuredData::ObjectSP>
T ExtractValueFromPythonObject(python::PythonObject &p, Status &error) {
return p.CreateStructuredObject();
}
template <typename T = StructuredData::ObjectSP, typename... Args>
T Dispatch(llvm::StringRef method_name, Status &error, Args &&...args) {
using namespace python;
using Locker = ScriptInterpreterPythonImpl::Locker;
std::string caller_signature =
llvm::Twine(LLVM_PRETTY_FUNCTION + llvm::Twine(" (") +
llvm::Twine(method_name) + llvm::Twine(")"))
.str();
if (!m_object_instance_sp)
return ErrorWithMessage<T>(caller_signature, "python object ill-formed",
error);
Locker py_lock(&m_interpreter, Locker::AcquireLock | Locker::NoSTDIN,
Locker::FreeLock);
PythonObject implementor(PyRefType::Borrowed,
(PyObject *)m_object_instance_sp->GetValue());
if (!implementor.IsAllocated())
return llvm::is_contained(GetAbstractMethods(), method_name)
? ErrorWithMessage<T>(caller_signature,
"python implementor not allocated",
error)
: T{};
std::tuple<Args...> original_args = std::forward_as_tuple(args...);
auto transformed_args = TransformArgs(original_args);
llvm::Expected<PythonObject> expected_return_object =
llvm::make_error<llvm::StringError>("Not initialized.",
llvm::inconvertibleErrorCode());
std::apply(
[&implementor, &method_name, &expected_return_object](auto &&...args) {
llvm::consumeError(expected_return_object.takeError());
expected_return_object =
implementor.CallMethod(method_name.data(), args...);
},
transformed_args);
if (llvm::Error e = expected_return_object.takeError()) {
error = Status::FromError(std::move(e));
return ErrorWithMessage<T>(caller_signature,
"python method could not be called", error);
}
PythonObject py_return = std::move(expected_return_object.get());
// Now that we called the python method with the transformed arguments,
// we need to iterate again over both the original and transformed
// parameter pack, and transform back the parameter that were passed in
// the original parameter pack as references or pointers.
if (sizeof...(Args) > 0)
if (!ReassignPtrsOrRefsArgs(original_args, transformed_args))
return ErrorWithMessage<T>(
caller_signature,
"couldn't re-assign reference and pointer arguments", error);
if (!py_return.IsAllocated())
return {};
return ExtractValueFromPythonObject<T>(py_return, error);
}
template <typename... Args>
Status GetStatusFromMethod(llvm::StringRef method_name, Args &&...args) {
Status error;
Dispatch<Status>(method_name, error, std::forward<Args>(args)...);
return error;
}
template <typename T> T Transform(T object) {
// No Transformation for generic usage
return {object};
}
python::PythonObject Transform(bool arg) {
// Boolean arguments need to be turned into python objects.
return python::PythonBoolean(arg);
}
python::PythonObject Transform(const Status &arg) {
return python::SWIGBridge::ToSWIGWrapper(arg.Clone());
}
python::PythonObject Transform(Status &&arg) {
return python::SWIGBridge::ToSWIGWrapper(std::move(arg));
}
python::PythonObject Transform(const StructuredDataImpl &arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::ExecutionContextRefSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::TargetSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::BreakpointSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::BreakpointLocationSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::ProcessSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::ThreadSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::StackFrameListSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::ThreadPlanSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::ProcessAttachInfoSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::ProcessLaunchInfoSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(Event *arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(const SymbolContext &arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::StreamSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg.get());
}
python::PythonObject Transform(lldb::StackFrameSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::DataExtractorSP arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
python::PythonObject Transform(lldb::DescriptionLevel arg) {
return python::SWIGBridge::ToSWIGWrapper(arg);
}
template <typename T, typename U>
void ReverseTransform(T &original_arg, U transformed_arg, Status &error) {
// If U is not a PythonObject, don't touch it!
}
template <typename T>
void ReverseTransform(T &original_arg, python::PythonObject transformed_arg,
Status &error) {
original_arg = ExtractValueFromPythonObject<T>(transformed_arg, error);
}
void ReverseTransform(bool &original_arg,
python::PythonObject transformed_arg, Status &error) {
python::PythonBoolean boolean_arg = python::PythonBoolean(
python::PyRefType::Borrowed, transformed_arg.get());
if (boolean_arg.IsValid())
original_arg = boolean_arg.GetValue();
else
error = Status::FromErrorStringWithFormatv(
"{}: Invalid boolean argument.", LLVM_PRETTY_FUNCTION);
}
template <std::size_t... I, typename... Args>
auto TransformTuple(const std::tuple<Args...> &args,
std::index_sequence<I...>) {
return std::make_tuple(Transform(std::get<I>(args))...);
}
// This will iterate over the Dispatch parameter pack and replace in-place
// every `lldb_private` argument that has a SB counterpart.
template <typename... Args>
auto TransformArgs(const std::tuple<Args...> &args) {
return TransformTuple(args, std::make_index_sequence<sizeof...(Args)>());
}
template <typename T, typename U>
void TransformBack(T &original_arg, U transformed_arg, Status &error) {
ReverseTransform(original_arg, transformed_arg, error);
}
template <std::size_t... I, typename... Ts, typename... Us>
bool ReassignPtrsOrRefsArgs(std::tuple<Ts...> &original_args,
std::tuple<Us...> &transformed_args,
std::index_sequence<I...>) {
Status error;
(TransformBack(std::get<I>(original_args), std::get<I>(transformed_args),
error),
...);
return error.Success();
}
template <typename... Ts, typename... Us>
bool ReassignPtrsOrRefsArgs(std::tuple<Ts...> &original_args,
std::tuple<Us...> &transformed_args) {
if (sizeof...(Ts) != sizeof...(Us))
return false;
return ReassignPtrsOrRefsArgs(original_args, transformed_args,
std::make_index_sequence<sizeof...(Ts)>());
}
template <typename T, typename... Args>
void FormatArgs(std::string &fmt, T arg, Args... args) const {
FormatArgs(fmt, arg);
FormatArgs(fmt, args...);
}
template <typename T> void FormatArgs(std::string &fmt, T arg) const {
fmt += python::PythonFormat<T>::format;
}
void FormatArgs(std::string &fmt) const {}
// The lifetime is managed by the ScriptInterpreter
ScriptInterpreterPythonImpl &m_interpreter;
};
template <>
StructuredData::ArraySP
ScriptedPythonInterface::ExtractValueFromPythonObject<StructuredData::ArraySP>(
python::PythonObject &p, Status &error);
template <>
StructuredData::DictionarySP
ScriptedPythonInterface::ExtractValueFromPythonObject<
StructuredData::DictionarySP>(python::PythonObject &p, Status &error);
template <>
Status ScriptedPythonInterface::ExtractValueFromPythonObject<Status>(
python::PythonObject &p, Status &error);
template <>
Event *ScriptedPythonInterface::ExtractValueFromPythonObject<Event *>(
python::PythonObject &p, Status &error);
template <>
SymbolContext
ScriptedPythonInterface::ExtractValueFromPythonObject<SymbolContext>(
python::PythonObject &p, Status &error);
template <>
lldb::StreamSP
ScriptedPythonInterface::ExtractValueFromPythonObject<lldb::StreamSP>(
python::PythonObject &p, Status &error);
template <>
lldb::ThreadSP
ScriptedPythonInterface::ExtractValueFromPythonObject<lldb::ThreadSP>(
python::PythonObject &p, Status &error);
template <>
lldb::StackFrameSP
ScriptedPythonInterface::ExtractValueFromPythonObject<lldb::StackFrameSP>(
python::PythonObject &p, Status &error);
template <>
lldb::BreakpointSP
ScriptedPythonInterface::ExtractValueFromPythonObject<lldb::BreakpointSP>(
python::PythonObject &p, Status &error);
template <>
lldb::BreakpointLocationSP
ScriptedPythonInterface::ExtractValueFromPythonObject<
lldb::BreakpointLocationSP>(python::PythonObject &p, Status &error);
template <>
lldb::ProcessAttachInfoSP ScriptedPythonInterface::ExtractValueFromPythonObject<
lldb::ProcessAttachInfoSP>(python::PythonObject &p, Status &error);
template <>
lldb::ProcessLaunchInfoSP ScriptedPythonInterface::ExtractValueFromPythonObject<
lldb::ProcessLaunchInfoSP>(python::PythonObject &p, Status &error);
template <>
lldb::DataExtractorSP
ScriptedPythonInterface::ExtractValueFromPythonObject<lldb::DataExtractorSP>(
python::PythonObject &p, Status &error);
template <>
std::optional<MemoryRegionInfo>
ScriptedPythonInterface::ExtractValueFromPythonObject<
std::optional<MemoryRegionInfo>>(python::PythonObject &p, Status &error);
template <>
lldb::ExecutionContextRefSP
ScriptedPythonInterface::ExtractValueFromPythonObject<
lldb::ExecutionContextRefSP>(python::PythonObject &p, Status &error);
template <>
lldb::DescriptionLevel
ScriptedPythonInterface::ExtractValueFromPythonObject<lldb::DescriptionLevel>(
python::PythonObject &p, Status &error);
template <>
lldb::StackFrameListSP
ScriptedPythonInterface::ExtractValueFromPythonObject<lldb::StackFrameListSP>(
python::PythonObject &p, Status &error);
} // namespace lldb_private
#endif // LLDB_ENABLE_PYTHON
#endif // LLDB_PLUGINS_SCRIPTINTERPRETER_PYTHON_INTERFACES_SCRIPTEDPYTHONINTERFACE_H