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Illustrate decentralized diagnosability test and synthesis. More... #include "libfaudes.h" Go to the source code of this file.
Detailed DescriptionIllustrate decentralized diagnosability test and synthesis. /** @file diag_4_decentralizeddiagnosis.cpp
Illustrate decentralized diagnosability test and synthesis.
@ingroup Tutorials
@include diag_4_decentralizeddiagnosis.cpp
*/
#include "libfaudes.h"
using namespace faudes;
// Declare common variables
System plant, spec;
EventSet *alph1, *alph2;
EventSetVector alphVector;
std::string report;
// **********************************************************************
//
// Decentralized Language-Diagnosability Verification (condition is not fulfilled)
//
// Report to console
std::cout << "################################\n";
std::cout << "# decentralized language-diagnosability (system 1)\n";
std::cout << "# a) read data \n";
// Read subsystems and associated specifications and abstraction alphabets from files
plant = System("data/diag_system_4_decentralized1.gen");
spec = System("data/diag_specification_4_decentralized1.gen");
// Write subsystems and specifications to gen files (for html docu)
plant.Write("tmp_diag_system_4_decentralized1.gen");
spec.Write("tmp_diag_specification_4_decentralized1.gen");
// Write subsystems and specifications to png files (for inspection)
plant.GraphWrite("tmp_demo_system_4_decentralized1.png");
spec.GraphWrite("tmp_demo_specification_4_decentralized1.png");
// Relevant abstractions for the modular diagnosability verification (for HTML docu)
alphVector.Append(alph1 );
alphVector.Append(alph2 );
// Report to console
std::cout << "# b) run decentralized diagnosability test (expect result FAIL)\n";
// Test for modular diagnosability of the overall system
bool ok=IsCoDiagnosable(plant, spec, alphVector);
if(ok) {
std::cout << "The overall system G is co-diagnosable with respect to overall specification K." << std::endl;
} else {
std::cout << "The overall system G is not co-diagnosable with respect to overall specification K." << std::endl;
}
// Compute local decentralzed diagnosers for the example
GeneratorVector diagVector;
DecentralizedDiagnoser(plant,spec,alphVector,diagVector);
// Write diagnosers to .gen file (for html docu)
diagVector.At(0).Write("tmp_diag_diagnoser_4_decentralized1_1.gen");
diagVector.At(1).Write("tmp_diag_diagnoser_4_decentralized1_2.gen");
// Write diagnosers to png (for inspection)
diagVector.At(0).GraphWrite("tmp_demo_diagnoser_4_decentralized1_1.png");
diagVector.At(1).GraphWrite("tmp_demo_diagnoser_4_decentralized1_2.png");
// Record test case
FAUDES_TEST_DUMP("decentralized 1",ok);
// **********************************************************************
//
// Decentralized Language-Diagnosability Verification (condition is fulfilled)
//
// Report to console
std::cout << "################################\n";
std::cout << "# decentralized language-diagnosability (system 2)\n";
std::cout << "# a) read data \n";
// Read subsystems and associated specifications and abstraction alphabets from files
plant = System("data/diag_system_4_decentralized2.gen");
spec = System("data/diag_specification_4_decentralized2.gen");
// Write subsystems and specifications to gen files (for html docu)
plant.Write("tmp_diag_system_4_decentralized2.gen");
spec.Write("tmp_diag_specification_4_decentralized2.gen");
// Write subsystems and specifications to png files (for inspection)
plant.GraphWrite("tmp_demo_system_4_decentralized2.png");
spec.GraphWrite("tmp_demo_specification_4_decentralized2.png");
// Relevant abstractions for the modular diagnosability verification (for HTML docu)
alphVector.Clear();
alphVector.Append(alph1 );
alphVector.Append(alph2 );
// Report to console
std::cout << "# b) run decentralized diagnosability test (expect result FAIL)\n";
// Test for modular diagnosability of the overall system
ok=IsCoDiagnosable(plant, spec, alphVector);
if(ok) {
std::cout << "The overall system G is co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
} else {
std::cout << "The overall system G is not co-diagnosable with respect to overall specification K." << std::endl;
std::cout << "The overall system G is not co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
}
diagVector.Clear();
// Compute decentralized diagnosers for the local sites
DecentralizedDiagnoser(plant,spec,alphVector,diagVector);
// Write diagnosers to .gen file (for html docu)
diagVector.At(0).Write("tmp_diag_diagnoser_4_decentralized2_1.gen");
diagVector.At(1).Write("tmp_diag_diagnoser_4_decentralized2_2.gen");
// Write diagnosers to png (for inspection)
diagVector.At(0).GraphWrite("tmp_demo_diagnoser_4_decentralized2_1.png");
diagVector.At(1).GraphWrite("tmp_demo_diagnoser_4_decentralized2_2.png");
// Record test case
FAUDES_TEST_DUMP("decentralized 2",ok);
// **********************************************************************
//
// Decentralized Language-Diagnosability Verification (condition is not fulfilled)
//
// Report to console
std::cout << "################################\n";
std::cout << "# decentralized language-diagnosability (system 3)\n";
std::cout << "# a) read data \n";
// Read subsystems and associated specifications and abstraction alphabets from files
plant = System("data/diag_system_2_language.gen");
spec = System("data/diag_specification_2_language.gen");
// Write subsystems and specifications to png files (for inspection)
plant.GraphWrite("tmp_demo_system_2_language.png");
spec.GraphWrite("tmp_demo_specification_2_language.png");
// Relevant abstractions for the modular diagnosability verification (for HTML docu)
alphVector.Clear();
alph1 = new EventSet;
alph1->Insert("alpha");
alph1->Insert("beta");
alph2 = new EventSet();
alph2->Insert("alpha");
alphVector.Append(alph1 );
alphVector.Append(alph2 );
// Report to console
std::cout << "# b) run decentralized diagnosability test (expect result FAIL)\n";
// Test for modular diagnosability of the overall system
ok=IsCoDiagnosable(plant, spec, alphVector);
if(ok) {
std::cout << "The overall system G is co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
} else {
std::cout << "The overall system G is not co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
}
// Record test case
FAUDES_TEST_DUMP("decentralized 3",ok);
// **********************************************************************
//
// Decentralized Language-Diagnosability Verification for Application Example (condition is fulfilled)
//
// Report to console
std::cout << "################################\n";
std::cout << "# decentralized language-diagnosability (system sf/c1)\n";
std::cout << "# a) read data \n";
// Read subsystems and associated specifications and abstraction alphabets from files
System sf,c1,sfc1Spec;
sf = System("data/diag_system_4_decentralized_sf.gen");
c1 = System("data/diag_system_4_decentralized_c1.gen");
// Write generators (for html docu)
sf.Write("tmp_diag_system_4_decentralized_sf.gen");
c1.Write("tmp_diag_system_4_decentralized_c1.gen");
// Write generators (for inspection)
sf.GraphWrite("tmp_demo_system_4_decentralized_sf.png");
c1.GraphWrite("tmp_demo_system_4_decentralized_c1.png");
sfc1Spec = Generator("data/diag_specification_4_decentralized_sfc1.gen");
aParallel(sf,c1,plant);
aParallel(plant,sfc1Spec,spec);
// Write subsystems and specifications to png files (for inspection)
plant.GraphWrite("tmp_demo_system_4_decentralized_sfc1.png");
spec.GraphWrite("tmp_demo_specification_4_decentralized_sfc1.png");
// Observable events for the system components
alphVector.Clear();
alph1 = new EventSet();
*alph1 = plant.ObservableEvents() * sf.Alphabet();
alph2 = new EventSet();
*alph2 = plant.ObservableEvents() * c1.Alphabet();
alphVector.Append(alph1 );
alphVector.Append(alph2 );
// Report to console
std::cout << "# b) run decentralized diagnosability test (expect result PASS)\n";
// Test for modular diagnosability of the overall system
ok=IsCoDiagnosable(plant, spec, alphVector);
if(ok) {
std::cout << "The overall system G is co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
} else {
std::cout << "The overall system G is not co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
}
// Compute decentralized diagnosers for the local sites
SystemVector plantVector;
plantVector.Append(&sf);
plantVector.Append(&c1);
diagVector.Clear();
DecentralizedModularDiagnoser(plantVector,spec,diagVector);
// Write diagnosers to .gen file (for html docu)
diagVector.At(0).Write("tmp_diag_diagnoser_4_decentralized_sf.gen");
diagVector.At(1).Write("tmp_diag_diagnoser_4_decentralized_c1.gen");
// Write diagnosers to png (for inspection)
diagVector.At(0).GraphWrite("tmp_demo_diagnoser_4_decentralized_sf.png");
diagVector.At(1).GraphWrite("tmp_demo_diagnoser_4_decentralized_c1.png");
// Record test case
FAUDES_TEST_DUMP("decentralized sf/c1",ok);
// // **********************************************************************
//
// Abstraction-based Decentralized Language-Diagnosability Verification for Application Example (condition is fulfilled)
//
// Report to console
std::cout << "################################\n";
std::cout << "# Abstraction-based decentralized language-diagnosability (system sf/c1)\n";
std::cout << "# a) read data \n";
// Compute abstracted system components and verify the loop-preserving observer condition
System sfAbst, c1Abst;
EventSet abstAlph;
if(IsLoopPreservingObserver(sf,abstAlph) )
std::cout << "The abstraction for SF is a loop-preserving observer" << std::endl;
else
std::cout << "The abstraction for SF is not a loop-preserving observer" << std::endl;
aProject(sf,abstAlph,sfAbst);
sfAbst.Write("tmp_diag_system_4_decentralized_sf_abstracted.gen");
sfAbst.GraphWrite("tmp_demo_system_4_decentralized_sf_abstracted.png");
abstAlph.Read("data/diag_abstAlph_4_decentralized_c1.alph","Alphabet");
if(IsLoopPreservingObserver(c1,abstAlph) )
std::cout << "The abstraction for C1 is a loop-preserving observer" << std::endl;
else
std::cout << "The abstraction for C1 is not a loop-preserving observer" << std::endl;
aProject(c1,abstAlph,c1Abst);
c1Abst.Write("tmp_diag_system_4_decentralized_c1_abstracted.gen");
c1Abst.GraphWrite("tmp_demo_system_4_decentralized_c1_abstracted.png");
sfc1Spec = Generator("data/diag_specification_4_decentralized_sfc1.gen");
aParallel(sfAbst,c1Abst,plant);
aParallel(plant,sfc1Spec,spec);
// Write subsystems and specifications to png files (for inspection)
plant.GraphWrite("tmp_demo_system_4_decentralized_sfc1_abstracted.png");
spec.GraphWrite("tmp_demo_specification_4_decentralized_sfc1_abstract.png");
// Observable events for the system components
alphVector.Clear();
*alph1 = plant.ObservableEvents() * sfAbst.Alphabet();
*alph2 = plant.ObservableEvents() * c1Abst.Alphabet();
alphVector.Append(alph1);
alphVector.Append(alph2);
// Report to console
std::cout << "# b) run decentralized diagnosability test (expect result PASS)\n";
// Test for modular diagnosability of the overall system
ok=IsCoDiagnosable(plant, spec, alphVector);
if(ok) {
std::cout << "The overall system G is co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
} else {
std::cout << "The overall system G is not co-diagnosable with respect to overall specification K." << std::endl;
std::cout << report << std::endl;
}
// // Record test case
// FAUDES_TEST_DUMP("decentralized abstracted sf/c1",ok);
// // Done
// cout << endl;
return 0;
}
#define FAUDES_TEST_DUMP(mes, dat) Test protocol record macro ("mangle" filename for platform independance) Definition: cfl_utils.h:478 void Read(const std::string &rFileName, const std::string &rLabel="", const Type *pContext=0) Read configuration data from file with label specified. Definition: cfl_types.cpp:261 void DecentralizedModularDiagnoser(const std::vector< const System * > &rGens, const Generator &rSpec, std::vector< Diagnoser * > &rDiags, std::string &rReportString) Function that computes decentralized diagnosers for the respective subsystems of a composed (modular)... Definition: diag_decentralizeddiagnosis.cpp:317 bool IsLoopPreservingObserver(const System &rGen, const EventSet &rHighAlph) Verifies a loop-preserving observer. Definition: diag_languagediagnosis.cpp:645 bool DecentralizedDiagnoser(const System &rGen, const Generator &rSpec, const std::vector< const EventSet * > &rAlphabets, std::vector< Diagnoser * > &rDiags, std::string &rReportString) Computes decentralized diagnosers for multiple local sites. Definition: diag_decentralizeddiagnosis.cpp:293 vGenerator Generator Plain generator, api typedef for generator with no attributes. Definition: cfl_generator.h:3240 TBaseVector< System > SystemVector Convenience typedef for vectors of systems. Definition: cfl_cgenerator.h:927 TcGenerator< AttributeVoid, AttributeVoid, AttributeCFlags, AttributeVoid > System Convenience typedef for std System. Definition: cfl_cgenerator.h:921 TBaseVector< Generator > GeneratorVector Convenience typedef for vectors og generators. Definition: cfl_generator.h:3246 void aParallel(const Generator &rGen1, const Generator &rGen2, Generator &rResGen) Parallel composition. Definition: cfl_parallel.cpp:51 void aProject(const Generator &rGen, const EventSet &rProjectAlphabet, Generator &rResGen) Deterministic projection. Definition: cfl_project.cpp:1417 Includes all libFAUDES headers, incl plugings bool IsCoDiagnosable(const System &rGen, const Generator &rSpec, const vector< const EventSet * > &rAlphabets, std::string &rReportString) Definition: diag_decentralizeddiagnosis.cpp:24 Definition in file diag_4_decentralizeddiagnosis.cpp. Function Documentation◆ main()
Definition at line 12 of file diag_4_decentralizeddiagnosis.cpp. libFAUDES 2.32f --- 2024.12.22 --- c++ api documentaion by doxygen |