//============================================================================= /** * @file recursive_union.cpp * * test union that contains a sequence of itself * * @author Jeff Parsons */ //============================================================================= #include "recursive_union.h" const CORBA::ULong MAX_DEPTH = 3; const CORBA::ULong MAX_SEQ_LENGTH = 2; // ************************************************************************ // Test_Recursive_Union // ************************************************************************ Test_Recursive_Union::Test_Recursive_Union (void) : opname_ (CORBA::string_dup ("test_recursive_union")) { } Test_Recursive_Union::~Test_Recursive_Union (void) { CORBA::string_free (this->opname_); this->opname_ = 0; // the other data members will be freed as they are "_var"s and objects // (rather than pointers to objects) } const char * Test_Recursive_Union::opname () const { return this->opname_; } void Test_Recursive_Union::dii_req_invoke (CORBA::Request *req) { req->add_in_arg ("s1") <<= this->in_; req->add_inout_arg ("s2") <<= this->inout_.in (); req->add_out_arg ("s3") <<= this->out_.in (); req->set_return_type (Param_Test::_tc_Recursive_Union); req->invoke (); const Param_Test::Recursive_Union *tmp = 0; req->return_value () >>= tmp; this->ret_ = new Param_Test::Recursive_Union (*tmp); CORBA::NamedValue_ptr o2 = req->arguments ()->item (1); *o2->value () >>= tmp; this->inout_ = new Param_Test::Recursive_Union (*tmp); CORBA::NamedValue_ptr o3 = req->arguments ()->item (2); *o3->value () >>= tmp; this->out_ = new Param_Test::Recursive_Union (*tmp); } int Test_Recursive_Union::init_parameters (Param_Test_ptr) { // The client calls init_parameters() before the first // call and reset_parameters() after each call. For this // test, we want the same thing to happen each time. return this->reset_parameters (); } int Test_Recursive_Union::reset_parameters (void) { // Since these are _vars, we do this the first call and // every call thereafter (if any). this->inout_ = new Param_Test::Recursive_Union; this->out_ = new Param_Test::Recursive_Union; this->ret_ = new Param_Test::Recursive_Union; // value generator Generator *gen = GENERATOR::instance (); // Set the depth of recursion. CORBA::ULong depth = (CORBA::ULong) (gen->gen_long () % MAX_DEPTH) + 1; // Create a nested union to put in inout_. Param_Test::nested_rec_union nru; nru.value (0); this->inout_->nested_member (nru); // Call the recursive helper function. to initialize in_. this->deep_init (this->in_, gen, depth); return 0; } int Test_Recursive_Union::run_sii_test (Param_Test_ptr objref) { try { Param_Test::Recursive_Union_out out (this->out_.out ()); this->ret_ = objref->test_recursive_union (this->in_, this->inout_.inout (), out); return 0; } catch (const CORBA::Exception& ex) { ex._tao_print_exception ("Test_Recursive_Union::run_sii_test\n"); } return -1; } CORBA::Boolean Test_Recursive_Union::check_validity (void) { // Pair in_ with each of the returned values and call the // helper function with that pair. if (this->deep_check (this->in_, this->inout_.in ()) == 0) { ACE_DEBUG ((LM_DEBUG, "mismatch of inout arg\n")); return 0; } if (this->deep_check (this->in_, this->out_.in ()) == 0) { ACE_DEBUG ((LM_DEBUG, "mismatch of out arg\n")); return 0; } if (this->deep_check (this->in_, this->ret_.in ()) == 0) { ACE_DEBUG ((LM_DEBUG, "mismatch of ret value\n")); return 0; } // If we get this far, all is correct. return 1; } CORBA::Boolean Test_Recursive_Union::check_validity (CORBA::Request_ptr) { return this->check_validity (); } void Test_Recursive_Union::print_values (void) { } // Private helper function to recursively initialize the union. void Test_Recursive_Union::deep_init (Param_Test::Recursive_Union &ru, Generator *gen, CORBA::ULong level) { if (level == 1) // No more recursion, just insert a nested_rec_union. { CORBA::ULong nested_depth = (CORBA::ULong) (gen->gen_long () % MAX_DEPTH) + 1; Param_Test::nested_rec_union nru; this->deep_init_nested (nru, gen, nested_depth); ru.nested_member (nru); Param_Test::RecUnionSeq tmp (MAX_SEQ_LENGTH); ru.rec_member (tmp); return; } else { // Generate a member sequence. CORBA::ULong len = (CORBA::ULong) (gen->gen_long () % MAX_SEQ_LENGTH) + 1; // This line is TAO-specific, but some compilers we support // are broken in their handling of the portable scoped typedef // required by CORBA 2.3 Param_Test::RecUnionSeq tmp (MAX_SEQ_LENGTH); tmp.length (len); ru.rec_member (tmp); // We recurse for each element of the member sequence. for (CORBA::ULong i = 0; i < len; i++) { this->deep_init (ru.rec_member ()[i], gen, level - 1); } } } // Private helper function to recursively initialize the nested union. void Test_Recursive_Union::deep_init_nested (Param_Test::nested_rec_union &nu, Generator *gen, CORBA::ULong level) { if (level == 1) // No more recursion { nu.value (gen->gen_long ()); return; } else { // Generate a sequence length. CORBA::ULong len = (CORBA::ULong) (gen->gen_long () % MAX_SEQ_LENGTH) + 1; // This line is TAO-specific, but some compilers we support // are broken in their handling of the portable scoped typedef // required by CORBA 2.3 Param_Test::NestedSeq tmp (MAX_SEQ_LENGTH); tmp.length (len); nu.nested_rec_member (tmp); // We recurse for each element of the member sequence. for (CORBA::ULong i = 0; i < len; i++) { this->deep_init_nested (nu.nested_rec_member ()[i], gen, level - 1); } } } // Private helper function for check_validity (so we can recurse). CORBA::Boolean Test_Recursive_Union::deep_check (const Param_Test::Recursive_Union &in_union, const Param_Test::Recursive_Union &test_union) { // Do the discriminators match? if (in_union._d () != test_union._d ()) { ACE_DEBUG ((LM_DEBUG, "mismatch of Recursive_Union discriminators\n")); return 0; } switch (in_union._d ()) { // Active member is the Recursive_Union sequence. case 0: { // Do the sequence lengths match? if (in_union.rec_member ().length () != test_union.rec_member ().length ()) { ACE_DEBUG ((LM_DEBUG, "mismatch of Recursive_Union member sequence lengths\n")); return 0; } for (CORBA::ULong i = 0; i < in_union.rec_member ().length (); i++) { if (!this->deep_check (in_union.rec_member ()[i], test_union.rec_member ()[i])) { ACE_DEBUG ((LM_DEBUG, "mismatch of contained Recursive_Unions\n")); return 0; } } break; } // Active member is the nested union. case 1: return this->deep_check_nested (in_union.nested_member (), test_union.nested_member ()); default: ACE_DEBUG ((LM_DEBUG, "bad discriminator value\n")); break; } return 1; } CORBA::Boolean Test_Recursive_Union::deep_check_nested (const Param_Test::nested_rec_union &in, const Param_Test::nested_rec_union &test) { if (in._d () != test._d ()) { ACE_DEBUG ((LM_DEBUG, "mismatch of nested union discriminators\n")); return 0; } switch (in._d ()) { // Active member is the long integer. case 0: // Do the nested_rec_union member values match? if (in.value () != test.value ()) { ACE_DEBUG ((LM_DEBUG, "mismatch of nested_rec_union member values\n")); return 0; } break; // Active member is the recursive sequence. case 1: { // Do the sequence lengths match? if (in.nested_rec_member ().length () != test.nested_rec_member ().length ()) { ACE_DEBUG ((LM_DEBUG, "mismatch of nested_rec_union member sequence lengths\n")); return 0; } for (CORBA::ULong i = 0; i < in.nested_rec_member ().length (); i++) { if (!this->deep_check_nested (in.nested_rec_member ()[i], test.nested_rec_member ()[i])) { ACE_DEBUG ((LM_DEBUG, "mismatch of contained nested_rec_unions\n")); return 0; } } } } return 1; }