/* * * Tests for C++ wrappers. */ #include #include #include #include #include #include #include "tests/test_cpp.upbdefs.h" #include "tests/upb_test.h" #include "upb/def.h" #include "upb/handlers.h" #include "upb/pb/decoder.h" #include "upb/pb/textprinter.h" #include "upb/port_def.inc" #include "upb/upb.h" template void AssertInsert(T* const container, const typename T::value_type& val) { bool inserted = container->insert(val).second; ASSERT(inserted); } // // Tests for registering and calling handlers in all their variants. // This test code is very repetitive because we have to declare each // handler function variant separately, and they all have different // signatures so it does not lend itself well to templates. // // We test three handler types: // StartMessage (no data params) // Int32 (1 data param (int32_t)) // String Buf (2 data params (const char*, size_t)) // // For each handler type we test all 8 handler variants: // (handler data?) x (function/method) x (returns {void, success}) // // The one notable thing we don't test at the moment is // StartSequence/StartString handlers: these are different from StartMessage() // in that they return void* for the sub-closure. But this is exercised in // other tests. // static const int kExpectedHandlerData = 1232323; class StringBufTesterBase { public: static const int kFieldNumber = 3; StringBufTesterBase() : seen_(false), handler_data_val_(0) {} void CallAndVerify(upb::Sink sink, upb::FieldDefPtr f) { upb_selector_t start; ASSERT(upb_handlers_getselector(f.ptr(), UPB_HANDLER_STARTSTR, &start)); upb_selector_t str; ASSERT(upb_handlers_getselector(f.ptr(), UPB_HANDLER_STRING, &str)); ASSERT(!seen_); upb::Sink sub; sink.StartMessage(); sink.StartString(start, 0, &sub); size_t ret = sub.PutStringBuffer(str, &buf_, 5, &handle_); ASSERT(seen_); ASSERT(len_ == 5); ASSERT(ret == 5); ASSERT(handler_data_val_ == kExpectedHandlerData); } protected: bool seen_; int handler_data_val_; size_t len_; char buf_; upb_bufhandle handle_; }; // Test 8 combinations of: // (handler data?) x (buffer handle?) x (function/method) // // Then we add one test each for this variation: to prevent combinatorial // explosion of these tests we don't test the full 16 combinations, but // rely on our knowledge that the implementation processes the return wrapping // in a second separate and independent stage: // // (function/method) class StringBufTesterVoidMethodNoHandlerDataNoHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidMethodNoHandlerDataNoHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: void Handler(const char *buf, size_t len) { ASSERT(buf == &buf_); seen_ = true; len_ = len; } }; class StringBufTesterVoidMethodNoHandlerDataWithHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidMethodNoHandlerDataWithHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: void Handler(const char *buf, size_t len, const upb_bufhandle* handle) { ASSERT(buf == &buf_); ASSERT(handle == &handle_); seen_ = true; len_ = len; } }; class StringBufTesterVoidMethodWithHandlerDataNoHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidMethodWithHandlerDataNoHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler( f, UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: void Handler(const int* hd, const char *buf, size_t len) { ASSERT(buf == &buf_); handler_data_val_ = *hd; seen_ = true; len_ = len; } }; class StringBufTesterVoidMethodWithHandlerDataWithHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidMethodWithHandlerDataWithHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler( f, UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: void Handler(const int* hd, const char* buf, size_t len, const upb_bufhandle* handle) { ASSERT(buf == &buf_); ASSERT(handle == &handle_); handler_data_val_ = *hd; seen_ = true; len_ = len; } }; class StringBufTesterVoidFunctionNoHandlerDataNoHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidFunctionNoHandlerDataNoHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: static void Handler(ME* t, const char *buf, size_t len) { ASSERT(buf == &t->buf_); t->seen_ = true; t->len_ = len; } }; class StringBufTesterVoidFunctionNoHandlerDataWithHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidFunctionNoHandlerDataWithHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: static void Handler(ME* t, const char* buf, size_t len, const upb_bufhandle* handle) { ASSERT(buf == &t->buf_); ASSERT(handle == &t->handle_); t->seen_ = true; t->len_ = len; } }; class StringBufTesterVoidFunctionWithHandlerDataNoHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidFunctionWithHandlerDataNoHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler( f, UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: static void Handler(ME* t, const int* hd, const char *buf, size_t len) { ASSERT(buf == &t->buf_); t->handler_data_val_ = *hd; t->seen_ = true; t->len_ = len; } }; class StringBufTesterVoidFunctionWithHandlerDataWithHandle : public StringBufTesterBase { public: typedef StringBufTesterVoidFunctionWithHandlerDataWithHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler( f, UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: static void Handler(ME* t, const int* hd, const char* buf, size_t len, const upb_bufhandle* handle) { ASSERT(buf == &t->buf_); ASSERT(handle == &t->handle_); t->handler_data_val_ = *hd; t->seen_ = true; t->len_ = len; } }; class StringBufTesterSizeTMethodNoHandlerDataNoHandle : public StringBufTesterBase { public: typedef StringBufTesterSizeTMethodNoHandlerDataNoHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: size_t Handler(const char *buf, size_t len) { ASSERT(buf == &buf_); seen_ = true; len_ = len; return len; } }; class StringBufTesterBoolMethodNoHandlerDataNoHandle : public StringBufTesterBase { public: typedef StringBufTesterBoolMethodNoHandlerDataNoHandle ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStringHandler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: bool Handler(const char *buf, size_t len) { ASSERT(buf == &buf_); seen_ = true; len_ = len; return true; } }; class StartMsgTesterBase { public: // We don't need the FieldDef it will create, but the test harness still // requires that we provide one. static const int kFieldNumber = 3; StartMsgTesterBase() : seen_(false), handler_data_val_(0) {} void CallAndVerify(upb::Sink sink, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(!seen_); sink.StartMessage(); ASSERT(seen_); ASSERT(handler_data_val_ == kExpectedHandlerData); } protected: bool seen_; int handler_data_val_; }; // Test all 8 combinations of: // (handler data?) x (function/method) x (returns {void, bool}) class StartMsgTesterVoidFunctionNoHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterVoidFunctionNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler(UpbMakeHandler(&Handler))); handler_data_val_ = kExpectedHandlerData; } private: //static void Handler(ME* t) { static void Handler(ME* t) { t->seen_ = true; } }; class StartMsgTesterBoolFunctionNoHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterBoolFunctionNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler(UpbMakeHandler(&Handler))); handler_data_val_ = kExpectedHandlerData; } private: static bool Handler(ME* t) { t->seen_ = true; return true; } }; class StartMsgTesterVoidMethodNoHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterVoidMethodNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler(UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: void Handler() { seen_ = true; } }; class StartMsgTesterBoolMethodNoHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterBoolMethodNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler(UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: bool Handler() { seen_ = true; return true; } }; class StartMsgTesterVoidFunctionWithHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterVoidFunctionWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler( UpbBind(&Handler, new int(kExpectedHandlerData)))); } private: static void Handler(ME* t, const int* hd) { t->handler_data_val_ = *hd; t->seen_ = true; } }; class StartMsgTesterBoolFunctionWithHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterBoolFunctionWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler( UpbBind(&Handler, new int(kExpectedHandlerData)))); } private: static bool Handler(ME* t, const int* hd) { t->handler_data_val_ = *hd; t->seen_ = true; return true; } }; class StartMsgTesterVoidMethodWithHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterVoidMethodWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler( UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: void Handler(const int* hd) { handler_data_val_ = *hd; seen_ = true; } }; class StartMsgTesterBoolMethodWithHandlerData : public StartMsgTesterBase { public: typedef StartMsgTesterBoolMethodWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { UPB_UNUSED(f); ASSERT(h.SetStartMessageHandler( UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: bool Handler(const int* hd) { handler_data_val_ = *hd; seen_ = true; return true; } }; class Int32ValueTesterBase { public: static const int kFieldNumber = 1; Int32ValueTesterBase() : seen_(false), val_(0), handler_data_val_(0) {} void CallAndVerify(upb::Sink sink, upb::FieldDefPtr f) { upb_selector_t s; ASSERT(upb_handlers_getselector(f.ptr(), UPB_HANDLER_INT32, &s)); ASSERT(!seen_); sink.PutInt32(s, 5); ASSERT(seen_); ASSERT(handler_data_val_ == kExpectedHandlerData); ASSERT(val_ == 5); } protected: bool seen_; int32_t val_; int handler_data_val_; }; // Test all 8 combinations of: // (handler data?) x (function/method) x (returns {void, bool}) class ValueTesterInt32VoidFunctionNoHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32VoidFunctionNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler(f, UpbMakeHandler(&Handler))); handler_data_val_ = kExpectedHandlerData; } private: static void Handler(ME* t, int32_t val) { t->val_ = val; t->seen_ = true; } }; class ValueTesterInt32BoolFunctionNoHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32BoolFunctionNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler(f, UpbMakeHandler(&Handler))); handler_data_val_ = kExpectedHandlerData; } private: static bool Handler(ME* t, int32_t val) { t->val_ = val; t->seen_ = true; return true; } }; class ValueTesterInt32VoidMethodNoHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32VoidMethodNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: void Handler(int32_t val) { val_ = val; seen_ = true; } }; class ValueTesterInt32BoolMethodNoHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32BoolMethodNoHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler(f, UpbMakeHandler(&ME::Handler))); handler_data_val_ = kExpectedHandlerData; } private: bool Handler(int32_t val) { val_ = val; seen_ = true; return true; } }; class ValueTesterInt32VoidFunctionWithHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32VoidFunctionWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler( f, UpbBind(&Handler, new int(kExpectedHandlerData)))); } private: static void Handler(ME* t, const int* hd, int32_t val) { t->val_ = val; t->handler_data_val_ = *hd; t->seen_ = true; } }; class ValueTesterInt32BoolFunctionWithHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32BoolFunctionWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler( f, UpbBind(&Handler, new int(kExpectedHandlerData)))); } private: static bool Handler(ME* t, const int* hd, int32_t val) { t->val_ = val; t->handler_data_val_ = *hd; t->seen_ = true; return true; } }; class ValueTesterInt32VoidMethodWithHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32VoidMethodWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler( f, UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: void Handler(const int* hd, int32_t val) { val_ = val; handler_data_val_ = *hd; seen_ = true; } }; class ValueTesterInt32BoolMethodWithHandlerData : public Int32ValueTesterBase { public: typedef ValueTesterInt32BoolMethodWithHandlerData ME; void Register(upb::HandlersPtr h, upb::FieldDefPtr f) { ASSERT(h.SetInt32Handler( f, UpbBind(&ME::Handler, new int(kExpectedHandlerData)))); } private: bool Handler(const int* hd, int32_t val) { val_ = val; handler_data_val_ = *hd; seen_ = true; return true; } }; template void RegisterHandlers(const void* closure, upb::Handlers* h_ptr) { T* tester = const_cast(static_cast(closure)); upb::HandlersPtr h(h_ptr); upb::FieldDefPtr f = h.message_def().FindFieldByNumber(T::kFieldNumber); ASSERT(f); tester->Register(h, f); } template void TestHandler() { T tester; upb::SymbolTable symtab; upb::HandlerCache cache(&RegisterHandlers, &tester); upb::MessageDefPtr md(upb_test_TestMessage_getmsgdef(symtab.ptr())); ASSERT(md); upb::FieldDefPtr f = md.FindFieldByNumber(T::kFieldNumber); ASSERT(f); const upb::Handlers* h = cache.Get(md); upb::Sink sink(h, &tester); tester.CallAndVerify(sink, f); } class T1 {}; class T2 {}; template void DoNothingHandler(C* closure) { UPB_UNUSED(closure); } template void DoNothingInt32Handler(C* closure, int32_t val) { UPB_UNUSED(closure); UPB_UNUSED(val); } template class DoNothingStartHandler { public: // We wrap these functions inside of a class for a somewhat annoying reason. // UpbMakeHandler() is a macro, so we can't say // UpbMakeHandler(DoNothingStartHandler) // // because otherwise the preprocessor gets confused at the comma and tries to // make it two macro arguments. The usual solution doesn't work either: // UpbMakeHandler((DoNothingStartHandler)) // // If we do that the macro expands correctly, but then it tries to pass that // parenthesized expression as a template parameter, ie. Type<(F)>, which // isn't legal C++ (Clang will compile it but complains with // warning: address non-type template argument cannot be surrounded by // parentheses // // This two-level thing allows us to effectively pass two template parameters, // but without any commas: // UpbMakeHandler(DoNothingStartHandler::Handler) template static R* Handler(C* closure) { UPB_UNUSED(closure); return NULL; } template static R* String(C* closure, size_t size_len) { UPB_UNUSED(closure); UPB_UNUSED(size_len); return NULL; } }; template void DoNothingStringBufHandler(C* closure, const char *buf, size_t len) { UPB_UNUSED(closure); UPB_UNUSED(buf); UPB_UNUSED(len); } template void DoNothingEndMessageHandler(C* closure, upb_status *status) { UPB_UNUSED(closure); UPB_UNUSED(status); } void RegisterMismatchedTypes(const void* closure, upb::Handlers* h_ptr) { upb::HandlersPtr h(h_ptr); upb::MessageDefPtr md(h.message_def()); ASSERT(md); upb::FieldDefPtr i32 = md.FindFieldByName("i32"); upb::FieldDefPtr r_i32 = md.FindFieldByName("r_i32"); upb::FieldDefPtr str = md.FindFieldByName("str"); upb::FieldDefPtr r_str = md.FindFieldByName("r_str"); upb::FieldDefPtr msg = md.FindFieldByName("msg"); upb::FieldDefPtr r_msg = md.FindFieldByName("r_msg"); ASSERT(i32); ASSERT(r_i32); ASSERT(str); ASSERT(r_str); ASSERT(msg); ASSERT(r_msg); // Establish T1 as the top-level closure type. ASSERT(h.SetInt32Handler(i32, UpbMakeHandler(DoNothingInt32Handler))); // Now any other attempt to set another handler with T2 as the top-level // closure should fail. But setting these same handlers with T1 as the // top-level closure will succeed. ASSERT(!h.SetStartMessageHandler(UpbMakeHandler(DoNothingHandler))); ASSERT(h.SetStartMessageHandler(UpbMakeHandler(DoNothingHandler))); ASSERT( !h.SetEndMessageHandler(UpbMakeHandler(DoNothingEndMessageHandler))); ASSERT( h.SetEndMessageHandler(UpbMakeHandler(DoNothingEndMessageHandler))); ASSERT(!h.SetStartStringHandler( str, UpbMakeHandler(DoNothingStartHandler::String))); ASSERT(h.SetStartStringHandler( str, UpbMakeHandler(DoNothingStartHandler::String))); ASSERT(!h.SetEndStringHandler(str, UpbMakeHandler(DoNothingHandler))); ASSERT(h.SetEndStringHandler(str, UpbMakeHandler(DoNothingHandler))); ASSERT(!h.SetStartSubMessageHandler( msg, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(h.SetStartSubMessageHandler( msg, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT( !h.SetEndSubMessageHandler(msg, UpbMakeHandler(DoNothingHandler))); ASSERT( h.SetEndSubMessageHandler(msg, UpbMakeHandler(DoNothingHandler))); ASSERT(!h.SetStartSequenceHandler( r_i32, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(h.SetStartSequenceHandler( r_i32, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(!h.SetEndSequenceHandler( r_i32, UpbMakeHandler(DoNothingHandler))); ASSERT(h.SetEndSequenceHandler( r_i32, UpbMakeHandler(DoNothingHandler))); ASSERT(!h.SetStartSequenceHandler( r_msg, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(h.SetStartSequenceHandler( r_msg, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(!h.SetEndSequenceHandler( r_msg, UpbMakeHandler(DoNothingHandler))); ASSERT(h.SetEndSequenceHandler( r_msg, UpbMakeHandler(DoNothingHandler))); ASSERT(!h.SetStartSequenceHandler( r_str, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(h.SetStartSequenceHandler( r_str, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(!h.SetEndSequenceHandler( r_str, UpbMakeHandler(DoNothingHandler))); ASSERT(h.SetEndSequenceHandler( r_str, UpbMakeHandler(DoNothingHandler))); // By setting T1 as the return type for the Start* handlers we have // established T1 as the type of the sequence and string frames. // Setting callbacks that use T2 should fail, but T1 should succeed. ASSERT( !h.SetStringHandler(str, UpbMakeHandler(DoNothingStringBufHandler))); ASSERT( h.SetStringHandler(str, UpbMakeHandler(DoNothingStringBufHandler))); ASSERT(!h.SetInt32Handler(r_i32, UpbMakeHandler(DoNothingInt32Handler))); ASSERT(h.SetInt32Handler(r_i32, UpbMakeHandler(DoNothingInt32Handler))); ASSERT(!h.SetStartSubMessageHandler( r_msg, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(h.SetStartSubMessageHandler( r_msg, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(!h.SetEndSubMessageHandler(r_msg, UpbMakeHandler(DoNothingHandler))); ASSERT(h.SetEndSubMessageHandler(r_msg, UpbMakeHandler(DoNothingHandler))); ASSERT(!h.SetStartStringHandler( r_str, UpbMakeHandler(DoNothingStartHandler::String))); ASSERT(h.SetStartStringHandler( r_str, UpbMakeHandler(DoNothingStartHandler::String))); ASSERT( !h.SetEndStringHandler(r_str, UpbMakeHandler(DoNothingHandler))); ASSERT(h.SetEndStringHandler(r_str, UpbMakeHandler(DoNothingHandler))); ASSERT(!h.SetStringHandler(r_str, UpbMakeHandler(DoNothingStringBufHandler))); ASSERT(h.SetStringHandler(r_str, UpbMakeHandler(DoNothingStringBufHandler))); } void RegisterMismatchedTypes2(const void* closure, upb::Handlers* h_ptr) { upb::HandlersPtr h(h_ptr); upb::MessageDefPtr md(h.message_def()); ASSERT(md); upb::FieldDefPtr i32 = md.FindFieldByName("i32"); upb::FieldDefPtr r_i32 = md.FindFieldByName("r_i32"); upb::FieldDefPtr str = md.FindFieldByName("str"); upb::FieldDefPtr r_str = md.FindFieldByName("r_str"); upb::FieldDefPtr msg = md.FindFieldByName("msg"); upb::FieldDefPtr r_msg = md.FindFieldByName("r_msg"); ASSERT(i32); ASSERT(r_i32); ASSERT(str); ASSERT(r_str); ASSERT(msg); ASSERT(r_msg); // For our second test we do the same in reverse. We directly set the type of // the frame and then observe failures at registering a Start* handler that // returns a different type. // First establish the type of a sequence frame directly. ASSERT(h.SetInt32Handler(r_i32, UpbMakeHandler(DoNothingInt32Handler))); // Now setting a StartSequence callback that returns a different type should // fail. ASSERT(!h.SetStartSequenceHandler( r_i32, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(h.SetStartSequenceHandler( r_i32, UpbMakeHandler(DoNothingStartHandler::Handler))); // Establish a string frame directly. ASSERT(h.SetStringHandler(r_str, UpbMakeHandler(DoNothingStringBufHandler))); // Fail setting a StartString callback that returns a different type. ASSERT(!h.SetStartStringHandler( r_str, UpbMakeHandler(DoNothingStartHandler::String))); ASSERT(h.SetStartStringHandler( r_str, UpbMakeHandler(DoNothingStartHandler::String))); // The previous established T1 as the frame for the r_str sequence. ASSERT(!h.SetStartSequenceHandler( r_str, UpbMakeHandler(DoNothingStartHandler::Handler))); ASSERT(h.SetStartSequenceHandler( r_str, UpbMakeHandler(DoNothingStartHandler::Handler))); } void TestMismatchedTypes() { // First create a schema for our test. upb::SymbolTable symtab; upb::HandlerCache handler_cache(&RegisterMismatchedTypes, nullptr); upb::HandlerCache handler_cache2(&RegisterMismatchedTypes2, nullptr); const upb::MessageDefPtr md(upb_test_TestMessage_getmsgdef(symtab.ptr())); // Now test the type-checking in handler registration. handler_cache.Get(md); handler_cache2.Get(md); } class IntIncrementer { public: explicit IntIncrementer(int* x) : x_(x) { (*x_)++; } ~IntIncrementer() { (*x_)--; } static void Handler(void* closure, const IntIncrementer* incrementer, int32_t x) { UPB_UNUSED(closure); UPB_UNUSED(incrementer); UPB_UNUSED(x); } private: int* x_; }; void RegisterIncrementor(const void* closure, upb::Handlers* h_ptr) { const int* x = static_cast(closure); upb::HandlersPtr h(h_ptr); upb::FieldDefPtr f = h.message_def().FindFieldByName("i32"); h.SetInt32Handler(f, UpbBind(&IntIncrementer::Handler, new IntIncrementer(const_cast(x)))); } void TestHandlerDataDestruction() { int x = 0; { upb::SymbolTable symtab; upb::HandlerCache cache(&RegisterIncrementor, &x); upb::MessageDefPtr md(upb_test_TestMessage_getmsgdef(symtab.ptr())); cache.Get(md); ASSERT(x == 1); } ASSERT(x == 0); } void TestIteration() { upb::SymbolTable symtab; upb::MessageDefPtr md(upb_test_TestMessage_getmsgdef(symtab.ptr())); // Test range-based for on both fields and oneofs (with the iterator adaptor). int field_count = 0; for (auto field : md.fields()) { UPB_UNUSED(field); field_count++; } ASSERT(field_count == md.field_count()); int oneof_count = 0; for (auto oneof : md.oneofs()) { UPB_UNUSED(oneof); oneof_count++; } ASSERT(oneof_count == md.oneof_count()); } void TestArena() { int n = 100000; struct Decrementer { Decrementer(int* _p) : p(_p) {} ~Decrementer() { (*p)--; } int* p; }; { upb::Arena arena; for (int i = 0; i < n; i++) { arena.Own(new Decrementer(&n)); // Intersperse allocation and ensure we can write to it. int* val = static_cast(upb_arena_malloc(arena.ptr(), sizeof(int))); *val = i; } // Test a large allocation. upb_arena_malloc(arena.ptr(), 1000000); } ASSERT(n == 0); } extern "C" { int run_tests(int argc, char *argv[]) { TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestHandler(); TestMismatchedTypes(); TestHandlerDataDestruction(); TestIteration(); TestArena(); return 0; } }