eliminate virtual methods from PythonDataObjects

Summary:
This patch eliminates a bunch of boilerplate from
PythonDataObjects, as well as the use of virtual methods.
In my opinion it also makes the Reset logic a lot more
clear and easy to follow.   The price is yet another
template.   I think it's worth it.

Reviewers: JDevlieghere, jasonmolenda, labath, zturner

Reviewed By: JDevlieghere, labath

Subscribers: lldb-commits

Tags: #lldb

Differential Revision: https://reviews.llvm.org/D68918

llvm-svn: 374916
This commit is contained in:
Lawrence D'Anna 2019-10-15 17:12:49 +00:00
parent e409f12131
commit d3bd5b3d71
2 changed files with 121 additions and 380 deletions

View File

@ -213,43 +213,19 @@ StructuredData::ObjectSP PythonObject::CreateStructuredObject() const {
}
// PythonString
PythonBytes::PythonBytes() : PythonObject() {}
PythonBytes::PythonBytes(llvm::ArrayRef<uint8_t> bytes) : PythonObject() {
SetBytes(bytes);
}
PythonBytes::PythonBytes(llvm::ArrayRef<uint8_t> bytes) { SetBytes(bytes); }
PythonBytes::PythonBytes(const uint8_t *bytes, size_t length) : PythonObject() {
PythonBytes::PythonBytes(const uint8_t *bytes, size_t length) {
SetBytes(llvm::ArrayRef<uint8_t>(bytes, length));
}
PythonBytes::PythonBytes(PyRefType type, PyObject *py_obj) : PythonObject() {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a string
}
PythonBytes::~PythonBytes() {}
bool PythonBytes::Check(PyObject *py_obj) {
if (!py_obj)
return false;
return PyBytes_Check(py_obj);
}
void PythonBytes::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonBytes::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
llvm::ArrayRef<uint8_t> PythonBytes::GetBytes() const {
if (!IsValid())
return llvm::ArrayRef<uint8_t>();
@ -290,36 +266,12 @@ PythonByteArray::PythonByteArray(const uint8_t *bytes, size_t length) {
Reset(PyRefType::Owned, PyByteArray_FromStringAndSize(str, length));
}
PythonByteArray::PythonByteArray(PyRefType type, PyObject *o) {
Reset(type, o);
}
PythonByteArray::PythonByteArray(const PythonBytes &object)
: PythonObject(object) {}
PythonByteArray::~PythonByteArray() {}
bool PythonByteArray::Check(PyObject *py_obj) {
if (!py_obj)
return false;
return PyByteArray_Check(py_obj);
}
void PythonByteArray::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonByteArray::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
llvm::ArrayRef<uint8_t> PythonByteArray::GetBytes() const {
if (!IsValid())
return llvm::ArrayRef<uint8_t>();
@ -357,17 +309,7 @@ Expected<PythonString> PythonString::FromUTF8(llvm::StringRef string) {
return Take<PythonString>(str);
}
PythonString::PythonString(PyRefType type, PyObject *py_obj) : PythonObject() {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a string
}
PythonString::PythonString(llvm::StringRef string) : PythonObject() {
SetString(string);
}
PythonString::PythonString() : PythonObject() {}
PythonString::~PythonString() {}
PythonString::PythonString(llvm::StringRef string) { SetString(string); }
bool PythonString::Check(PyObject *py_obj) {
if (!py_obj)
@ -382,29 +324,26 @@ bool PythonString::Check(PyObject *py_obj) {
return false;
}
void PythonString::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonString::Check(py_obj)) {
PythonObject::Reset();
return;
}
void PythonString::Convert(PyRefType &type, PyObject *&py_obj) {
#if PY_MAJOR_VERSION < 3
// In Python 2, Don't store PyUnicode objects directly, because we need
// access to their underlying character buffers which Python 2 doesn't
// provide.
if (PyUnicode_Check(py_obj)) {
PyObject *s = PyUnicode_AsUTF8String(result.get());
if (s == NULL)
PyObject *s = PyUnicode_AsUTF8String(py_obj);
if (s == nullptr) {
PyErr_Clear();
result.Reset(PyRefType::Owned, s);
if (type == PyRefType::Owned)
Py_DECREF(py_obj);
return;
}
if (type == PyRefType::Owned)
Py_DECREF(py_obj);
else
type = PyRefType::Owned;
py_obj = s;
}
#endif
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
llvm::StringRef PythonString::GetString() const {
@ -468,18 +407,7 @@ StructuredData::StringSP PythonString::CreateStructuredString() const {
// PythonInteger
PythonInteger::PythonInteger() : PythonObject() {}
PythonInteger::PythonInteger(PyRefType type, PyObject *py_obj)
: PythonObject() {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a integer type
}
PythonInteger::PythonInteger(int64_t value) : PythonObject() {
SetInteger(value);
}
PythonInteger::~PythonInteger() {}
PythonInteger::PythonInteger(int64_t value) { SetInteger(value); }
bool PythonInteger::Check(PyObject *py_obj) {
if (!py_obj)
@ -494,16 +422,7 @@ bool PythonInteger::Check(PyObject *py_obj) {
#endif
}
void PythonInteger::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonInteger::Check(py_obj)) {
PythonObject::Reset();
return;
}
void PythonInteger::Convert(PyRefType &type, PyObject *&py_obj) {
#if PY_MAJOR_VERSION < 3
// Always store this as a PyLong, which makes interoperability between Python
// 2.x and Python 3.x easier. This is only necessary in 2.x, since 3.x
@ -512,16 +431,23 @@ void PythonInteger::Reset(PyRefType type, PyObject *py_obj) {
// Since we converted the original object to a different type, the new
// object is an owned object regardless of the ownership semantics
// requested by the user.
result.Reset(PyRefType::Owned, PyLong_FromLongLong(PyInt_AsLong(py_obj)));
long long value = PyInt_AsLong(py_obj);
PyObject *l = nullptr;
if (!PyErr_Occurred())
l = PyLong_FromLongLong(value);
if (l == nullptr) {
PyErr_Clear();
if (type == PyRefType::Owned)
Py_DECREF(py_obj);
return;
}
if (type == PyRefType::Owned)
Py_DECREF(py_obj);
else
type = PyRefType::Owned;
py_obj = l;
}
#endif
assert(PyLong_Check(result.get()) &&
"Couldn't get a PyLong from this PyObject");
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
int64_t PythonInteger::GetInteger() const {
@ -555,11 +481,6 @@ StructuredData::IntegerSP PythonInteger::CreateStructuredInteger() const {
// PythonBoolean
PythonBoolean::PythonBoolean(PyRefType type, PyObject *py_obj)
: PythonObject() {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a boolean type
}
PythonBoolean::PythonBoolean(bool value) {
SetValue(value);
}
@ -568,21 +489,6 @@ bool PythonBoolean::Check(PyObject *py_obj) {
return py_obj ? PyBool_Check(py_obj) : false;
}
void PythonBoolean::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonBoolean::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
bool PythonBoolean::GetValue() const {
return m_py_obj ? PyObject_IsTrue(m_py_obj) : false;
}
@ -599,42 +505,21 @@ StructuredData::BooleanSP PythonBoolean::CreateStructuredBoolean() const {
// PythonList
PythonList::PythonList(PyInitialValue value) : PythonObject() {
PythonList::PythonList(PyInitialValue value) {
if (value == PyInitialValue::Empty)
Reset(PyRefType::Owned, PyList_New(0));
}
PythonList::PythonList(int list_size) : PythonObject() {
PythonList::PythonList(int list_size) {
Reset(PyRefType::Owned, PyList_New(list_size));
}
PythonList::PythonList(PyRefType type, PyObject *py_obj) : PythonObject() {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a list
}
PythonList::~PythonList() {}
bool PythonList::Check(PyObject *py_obj) {
if (!py_obj)
return false;
return PyList_Check(py_obj);
}
void PythonList::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonList::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
uint32_t PythonList::GetSize() const {
if (IsValid())
return PyList_GET_SIZE(m_py_obj);
@ -676,19 +561,15 @@ StructuredData::ArraySP PythonList::CreateStructuredArray() const {
// PythonTuple
PythonTuple::PythonTuple(PyInitialValue value) : PythonObject() {
PythonTuple::PythonTuple(PyInitialValue value) {
if (value == PyInitialValue::Empty)
Reset(PyRefType::Owned, PyTuple_New(0));
}
PythonTuple::PythonTuple(int tuple_size) : PythonObject() {
PythonTuple::PythonTuple(int tuple_size) {
Reset(PyRefType::Owned, PyTuple_New(tuple_size));
}
PythonTuple::PythonTuple(PyRefType type, PyObject *py_obj) : PythonObject() {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a tuple
}
PythonTuple::PythonTuple(std::initializer_list<PythonObject> objects) {
m_py_obj = PyTuple_New(objects.size());
@ -712,29 +593,12 @@ PythonTuple::PythonTuple(std::initializer_list<PyObject *> objects) {
}
}
PythonTuple::~PythonTuple() {}
bool PythonTuple::Check(PyObject *py_obj) {
if (!py_obj)
return false;
return PyTuple_Check(py_obj);
}
void PythonTuple::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonTuple::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
uint32_t PythonTuple::GetSize() const {
if (IsValid())
return PyTuple_GET_SIZE(m_py_obj);
@ -768,18 +632,11 @@ StructuredData::ArraySP PythonTuple::CreateStructuredArray() const {
// PythonDictionary
PythonDictionary::PythonDictionary(PyInitialValue value) : PythonObject() {
PythonDictionary::PythonDictionary(PyInitialValue value) {
if (value == PyInitialValue::Empty)
Reset(PyRefType::Owned, PyDict_New());
}
PythonDictionary::PythonDictionary(PyRefType type, PyObject *py_obj)
: PythonObject() {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a dictionary
}
PythonDictionary::~PythonDictionary() {}
bool PythonDictionary::Check(PyObject *py_obj) {
if (!py_obj)
return false;
@ -787,21 +644,6 @@ bool PythonDictionary::Check(PyObject *py_obj) {
return PyDict_Check(py_obj);
}
void PythonDictionary::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonDictionary::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
uint32_t PythonDictionary::GetSize() const {
if (IsValid())
return PyDict_Size(m_py_obj);
@ -841,14 +683,6 @@ PythonDictionary::CreateStructuredDictionary() const {
return result;
}
PythonModule::PythonModule() : PythonObject() {}
PythonModule::PythonModule(PyRefType type, PyObject *py_obj) {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a module
}
PythonModule::~PythonModule() {}
PythonModule PythonModule::BuiltinsModule() {
#if PY_MAJOR_VERSION >= 3
return AddModule("builtins");
@ -890,33 +724,10 @@ bool PythonModule::Check(PyObject *py_obj) {
return PyModule_Check(py_obj);
}
void PythonModule::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonModule::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
PythonDictionary PythonModule::GetDictionary() const {
return PythonDictionary(PyRefType::Borrowed, PyModule_GetDict(m_py_obj));
}
PythonCallable::PythonCallable() : PythonObject() {}
PythonCallable::PythonCallable(PyRefType type, PyObject *py_obj) {
Reset(type, py_obj); // Use "Reset()" to ensure that py_obj is a callable
}
PythonCallable::~PythonCallable() {}
bool PythonCallable::Check(PyObject *py_obj) {
if (!py_obj)
return false;
@ -924,21 +735,6 @@ bool PythonCallable::Check(PyObject *py_obj) {
return PyCallable_Check(py_obj);
}
void PythonCallable::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonCallable::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
PythonCallable::ArgInfo PythonCallable::GetNumInitArguments() const {
ArgInfo result = {0, false, false, false};
if (!IsValid())
@ -1011,12 +807,6 @@ operator()(std::initializer_list<PythonObject> args) {
PyObject_CallObject(m_py_obj, arg_tuple.get()));
}
PythonFile::PythonFile() : PythonObject() {}
PythonFile::PythonFile(PyRefType type, PyObject *o) { Reset(type, o); }
PythonFile::~PythonFile() {}
bool PythonFile::Check(PyObject *py_obj) {
if (!py_obj)
return false;
@ -1047,21 +837,6 @@ bool PythonFile::Check(PyObject *py_obj) {
#endif
}
void PythonFile::Reset(PyRefType type, PyObject *py_obj) {
// Grab the desired reference type so that if we end up rejecting `py_obj` it
// still gets decremented if necessary.
PythonObject result(type, py_obj);
if (!PythonFile::Check(py_obj)) {
PythonObject::Reset();
return;
}
// Calling PythonObject::Reset(const PythonObject&) will lead to stack
// overflow since it calls back into the virtual implementation.
PythonObject::Reset(PyRefType::Borrowed, result.get());
}
FileUP PythonFile::GetUnderlyingFile() const {
if (!IsValid())
return nullptr;

View File

@ -25,6 +25,25 @@
// Expected<> is considered deprecated and should not be
// used in new code. If you need to use it, fix it first.
//
//
// TODOs for this file
//
// * Make all methods safe for exceptions.
//
// * Eliminate method signatures that must translate exceptions into
// empty objects or NULLs. Almost everything here should return
// Expected<>. It should be acceptable for certain operations that
// can never fail to assert instead, such as the creation of
// PythonString from a string literal.
//
// * Elimintate Reset(), and make all non-default constructors private.
// Python objects should be created with Retain<> or Take<>, and they
// should be assigned with operator=
//
// * Eliminate default constructors, make python objects always
// nonnull, and use optionals where necessary.
//
#ifndef LLDB_PLUGINS_SCRIPTINTERPRETER_PYTHON_PYTHONDATAOBJECTS_H
#define LLDB_PLUGINS_SCRIPTINTERPRETER_PYTHON_PYTHONDATAOBJECTS_H
@ -170,20 +189,15 @@ public:
rhs.m_py_obj = nullptr;
}
virtual ~PythonObject() { Reset(); }
~PythonObject() { Reset(); }
void Reset() {
// Avoid calling the virtual method since it's not necessary
// to actually validate the type of the PyObject if we're
// just setting to null.
if (m_py_obj && Py_IsInitialized())
Py_DECREF(m_py_obj);
m_py_obj = nullptr;
}
void Reset(const PythonObject &rhs) {
// Avoid calling the virtual method if it's not necessary
// to actually validate the type of the PyObject.
if (!rhs.IsValid())
Reset();
else
@ -196,9 +210,7 @@ public:
// PyRefType doesn't make sense, and the copy constructor should be used.
void Reset(PyRefType type, const PythonObject &ref) = delete;
// FIXME We shouldn't have virtual anything. PythonObject should be a
// strictly pass-by-value type.
virtual void Reset(PyRefType type, PyObject *py_obj) {
void Reset(PyRefType type, PyObject *py_obj) {
if (py_obj == m_py_obj)
return;
@ -376,22 +388,38 @@ llvm::Expected<long long> As<long long>(llvm::Expected<PythonObject> &&obj);
} // namespace python
class PythonBytes : public PythonObject {
template <class T> class TypedPythonObject : public PythonObject {
public:
PythonBytes();
// override to perform implicit type conversions on Reset
// This can be eliminated once we drop python 2 support.
static void Convert(PyRefType &type, PyObject *&py_obj) {}
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) {
Reset();
if (!py_obj)
return;
T::Convert(type, py_obj);
if (T::Check(py_obj))
PythonObject::Reset(type, py_obj);
else if (type == PyRefType::Owned)
Py_DECREF(py_obj);
}
TypedPythonObject(PyRefType type, PyObject *py_obj) { Reset(type, py_obj); }
TypedPythonObject() {}
};
class PythonBytes : public TypedPythonObject<PythonBytes> {
public:
using TypedPythonObject::TypedPythonObject;
explicit PythonBytes(llvm::ArrayRef<uint8_t> bytes);
PythonBytes(const uint8_t *bytes, size_t length);
PythonBytes(PyRefType type, PyObject *o);
~PythonBytes() override;
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
llvm::ArrayRef<uint8_t> GetBytes() const;
size_t GetSize() const;
@ -401,23 +429,15 @@ public:
StructuredData::StringSP CreateStructuredString() const;
};
class PythonByteArray : public PythonObject {
class PythonByteArray : public TypedPythonObject<PythonByteArray> {
public:
PythonByteArray();
using TypedPythonObject::TypedPythonObject;
explicit PythonByteArray(llvm::ArrayRef<uint8_t> bytes);
PythonByteArray(const uint8_t *bytes, size_t length);
PythonByteArray(PyRefType type, PyObject *o);
PythonByteArray(const PythonBytes &object);
~PythonByteArray() override;
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
llvm::ArrayRef<uint8_t> GetBytes() const;
size_t GetSize() const;
@ -427,22 +447,17 @@ public:
StructuredData::StringSP CreateStructuredString() const;
};
class PythonString : public PythonObject {
class PythonString : public TypedPythonObject<PythonString> {
public:
using TypedPythonObject::TypedPythonObject;
static llvm::Expected<PythonString> FromUTF8(llvm::StringRef string);
PythonString();
explicit PythonString(llvm::StringRef string); // safe, null on error
PythonString(PyRefType type, PyObject *o);
PythonString() : TypedPythonObject() {} // MSVC requires this for some reason
~PythonString() override;
explicit PythonString(llvm::StringRef string); // safe, null on error
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
static void Convert(PyRefType &type, PyObject *&py_obj);
llvm::StringRef GetString() const; // safe, empty string on error
@ -455,20 +470,16 @@ public:
StructuredData::StringSP CreateStructuredString() const;
};
class PythonInteger : public PythonObject {
class PythonInteger : public TypedPythonObject<PythonInteger> {
public:
PythonInteger();
explicit PythonInteger(int64_t value);
PythonInteger(PyRefType type, PyObject *o);
using TypedPythonObject::TypedPythonObject;
~PythonInteger() override;
PythonInteger() : TypedPythonObject() {} // MSVC requires this for some reason
explicit PythonInteger(int64_t value);
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
static void Convert(PyRefType &type, PyObject *&py_obj);
int64_t GetInteger() const;
@ -477,21 +488,14 @@ public:
StructuredData::IntegerSP CreateStructuredInteger() const;
};
class PythonBoolean : public PythonObject {
class PythonBoolean : public TypedPythonObject<PythonBoolean> {
public:
PythonBoolean() = default;
explicit PythonBoolean(bool value);
PythonBoolean(PyRefType type, PyObject *o);
using TypedPythonObject::TypedPythonObject;
~PythonBoolean() override = default;
explicit PythonBoolean(bool value);
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
bool GetValue() const;
void SetValue(bool value);
@ -499,22 +503,17 @@ public:
StructuredData::BooleanSP CreateStructuredBoolean() const;
};
class PythonList : public PythonObject {
class PythonList : public TypedPythonObject<PythonList> {
public:
PythonList() {}
using TypedPythonObject::TypedPythonObject;
PythonList() : TypedPythonObject() {} // MSVC requires this for some reason
explicit PythonList(PyInitialValue value);
explicit PythonList(int list_size);
PythonList(PyRefType type, PyObject *o);
~PythonList() override;
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
uint32_t GetSize() const;
PythonObject GetItemAtIndex(uint32_t index) const;
@ -526,24 +525,17 @@ public:
StructuredData::ArraySP CreateStructuredArray() const;
};
class PythonTuple : public PythonObject {
class PythonTuple : public TypedPythonObject<PythonTuple> {
public:
PythonTuple() {}
using TypedPythonObject::TypedPythonObject;
explicit PythonTuple(PyInitialValue value);
explicit PythonTuple(int tuple_size);
PythonTuple(PyRefType type, PyObject *o);
PythonTuple(std::initializer_list<PythonObject> objects);
PythonTuple(std::initializer_list<PyObject *> objects);
~PythonTuple() override;
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
uint32_t GetSize() const;
PythonObject GetItemAtIndex(uint32_t index) const;
@ -553,21 +545,16 @@ public:
StructuredData::ArraySP CreateStructuredArray() const;
};
class PythonDictionary : public PythonObject {
class PythonDictionary : public TypedPythonObject<PythonDictionary> {
public:
PythonDictionary() {}
explicit PythonDictionary(PyInitialValue value);
PythonDictionary(PyRefType type, PyObject *o);
using TypedPythonObject::TypedPythonObject;
~PythonDictionary() override;
PythonDictionary() : TypedPythonObject() {} // MSVC requires this for some reason
explicit PythonDictionary(PyInitialValue value);
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
uint32_t GetSize() const;
PythonList GetKeys() const;
@ -578,12 +565,9 @@ public:
StructuredData::DictionarySP CreateStructuredDictionary() const;
};
class PythonModule : public PythonObject {
class PythonModule : public TypedPythonObject<PythonModule> {
public:
PythonModule();
PythonModule(PyRefType type, PyObject *o);
~PythonModule() override;
using TypedPythonObject::TypedPythonObject;
static bool Check(PyObject *py_obj);
@ -608,16 +592,13 @@ public:
llvm::Expected<PythonObject> Get(const char *name);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
PythonDictionary GetDictionary() const;
};
class PythonCallable : public PythonObject {
class PythonCallable : public TypedPythonObject<PythonCallable> {
public:
using TypedPythonObject::TypedPythonObject;
struct ArgInfo {
size_t count;
bool is_bound_method : 1;
@ -625,18 +606,8 @@ public:
bool has_kwargs : 1;
};
PythonCallable();
PythonCallable(PyRefType type, PyObject *o);
~PythonCallable() override;
static bool Check(PyObject *py_obj);
// Bring in the no-argument base class version
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
ArgInfo GetNumArguments() const;
// If the callable is a Py_Class, then find the number of arguments
@ -655,19 +626,14 @@ public:
}
};
class PythonFile : public PythonObject {
class PythonFile : public TypedPythonObject<PythonFile> {
public:
PythonFile();
PythonFile(PyRefType type, PyObject *o);
using TypedPythonObject::TypedPythonObject;
~PythonFile() override;
PythonFile() : TypedPythonObject() {} // MSVC requires this for some reason
static bool Check(PyObject *py_obj);
using PythonObject::Reset;
void Reset(PyRefType type, PyObject *py_obj) override;
static llvm::Expected<PythonFile> FromFile(File &file,
const char *mode = nullptr);