mtc_2_functions.cpp File Reference

Tutorial, MtcSystem functions eg parallel, project etc. More...

#include "libfaudes.h"

Go to the source code of this file.

Functions

int main ()
 

Detailed Description

Tutorial, MtcSystem functions eg parallel, project etc.

/** @file mtc_2_functions.cpp
Tutorial, MtcSystem functions eg parallel, project etc.
@ingroup Tutorials
@include mtc_2_functions.cpp
*/
#include "libfaudes.h"
// Make the faudes namespace available to our program
using namespace faudes;
/////////////////
// main program
/////////////////
int main() {
{
// create generator which is not accessible and not strongly, but weakly coaccessible
MtcSystem original, accNotStrCoac, notAccStrCoac, strTrim;
// the implementation below allows the user to easily change the generators
// and to find out what the algorithms effect when being applied on them
Idx st1 = original.InsState("1");
Idx st2 = original.InsState("2");
Idx st3 = original.InsState("3");
Idx st4 = original.InsState("4");
Idx st5 = original.InsState("5");
Idx st6 = original.InsColoredState("6", "c6a");
Idx eva = original.InsEvent("a");
Idx evb = original.InsEvent("b");
Idx evc = original.InsEvent("c");
Idx evd = original.InsEvent("d");
original.InsColor(st3, "c3");
original.InsColor(st4, "c4");
original.InsColor(st6, "c6b");
original.SetTransition(st1, eva, st2);
original.SetTransition(st2, evb, st3);
original.SetTransition(st2, evc, st4);
original.SetTransition(st4, evc, st6);
original.SetTransition(st5, eva, st4);
original.SetTransition(st6, evd, st1);
original.SetTransition(st3, evd, st3);
original.SetInitState(st1);
original.Write("tmp_mtc_functions_1a_not_trim.gen");
original.GraphWrite("tmp_mtc_functions_1a_not_trim.png");
////////////////////////////////////////////////////
// analyze a generator's accessibility properties
////////////////////////////////////////////////////
if (!original.IsAccessible())
std::cout << std::endl << "Original generator is not accessible" << std::endl;
if (!original.IsStronglyCoaccessible())
std::cout << "Original generator is not strongly coaccessible" << std::endl;
if (!original.IsStronglyTrim())
std::cout << "Original generator is not strongly trim" << std::endl << std::endl;
////////////////////////////////////////////////////
// generate accessible version of original generator
////////////////////////////////////////////////////
accNotStrCoac = original;
accNotStrCoac.Accessible();
accNotStrCoac.Write("tmp_mtc_functions_1b_acc.gen");
accNotStrCoac.GraphWrite("tmp_mtc_functions_1b_acc.png");
if (accNotStrCoac.IsAccessible())
std::cout << "accNotStrCoac is accessible" << std::endl;
if (!accNotStrCoac.IsStronglyTrim())
std::cout << "accNotStrCoac is not strongly trim" << std::endl << std::endl;
// generate strongly coaccessible version of original generator
notAccStrCoac = original;
notAccStrCoac.StronglyCoaccessible();
notAccStrCoac.Write("tmp_mtc_functions_1c_str_trim.gen");
notAccStrCoac.GraphWrite("tmp_mtc_functions_1c_str_trim.png");
if (notAccStrCoac.IsStronglyCoaccessible())
std::cout << "notAccStrCoac is strongly coaccessible" << std::endl;
if (!notAccStrCoac.IsStronglyTrim())
std::cout << "notAccStrCoac is not strongly trim" << std::endl << std::endl;
// generate trim version of original generator
strTrim = original;
strTrim.StronglyTrim();
strTrim.Write("tmp_mtc_functions_1d_str_trim.gen");
strTrim.GraphWrite("tmp_mtc_functions_1d_str_trim.png");
if (strTrim.IsAccessible())
std::cout << "strTrim is accessible" << std::endl;
if (strTrim.IsStronglyCoaccessible())
std::cout << "strTrim is strongly coaccessible" << std::endl;
if (strTrim.IsStronglyTrim())
std::cout << "strTrim is strongly trim" << std::endl << std::endl;
}
{
// create nondeterministic generator nondet, deterministic version to compute shall be saved as det
MtcSystem nondet, det;
// the implementation below allows the user to easily change the generators
// and to find out what the algorithms effect when being applied on them
Idx st1 = nondet.InsState("1");
Idx st2 = nondet.InsState("2");
Idx st3 = nondet.InsState("3");
Idx st4 = nondet.InsState("4");
Idx st5 = nondet.InsState("5");
Idx st6 = nondet.InsColoredState("6", "c6a");
Idx eva = nondet.InsEvent("a");
Idx evb = nondet.InsEvent("b");
Idx evc = nondet.InsEvent("c");
nondet.InsColor(st3, "c3");
nondet.InsColor(st4, "c4");
nondet.InsColor(st5, "c5");
nondet.InsColor(st6, "c6b");
nondet.SetTransition(st1, eva, st2);
nondet.SetTransition(st2, evb, st3);
nondet.SetTransition(st2, evb, st4);
nondet.SetTransition(st4, evc, st6);
nondet.SetTransition(st5, eva, st4);
nondet.SetInitState(st1);
nondet.SetInitState(st5);
nondet.Write("tmp_mtc_functions_2a_nondet.gen");
nondet.GraphWrite("tmp_mtc_functions_2a_nondet.png");
//////////////////////////////////////////////////
// make nondeterministic generator deterministic
//////////////////////////////////////////////////
mtcDeterministic(nondet, det);
det.Write("tmp_mtc_functions_2b_det.gen");
det.GraphWrite("tmp_mtc_functions_2b_det.png");
}
{
EventSet evset;
evset.Insert("a");
evset.Insert("b");
evset.Insert("d");
MtcSystem original, projected;
Idx st1 = original.InsState("1");
Idx st2 = original.InsState("2");
Idx st3 = original.InsState("3");
Idx st4 = original.InsState("4");
Idx st5 = original.InsState("5");
Idx eva = original.InsEvent("a");
Idx evb = original.InsEvent("b");
Idx evc = original.InsEvent("c");
Idx evd = original.InsEvent("d");
original.InsColor(st2, "color2");
original.InsColor(st3, "color3");
original.SetTransition(st1, eva, st2);
original.SetTransition(st2, evb, st3);
original.SetTransition(st2, evc, st4);
original.SetTransition(st3, evc, st5);
original.SetTransition(st4, evb, st5);
original.SetTransition(st5, evd, st1);
original.SetInitState(st1);
original.StateNamesEnabled(false);
original.Write("tmp_mtc_functions_3a_system.gen");
original.GraphWrite("tmp_mtc_functions_3a_system.png");
// Write state sets for colored and uncolored states to console
// original.ColoredStates().Write();
// original.UncoloredStates().Write();
//////////////////////////////////////////////////////////////
// compute projection for alphabet evset and the original
// generator result is deterministic and saved in projected
//////////////////////////////////////////////////////////////
mtcProject(original, evset, projected);
projected.Write("tmp_mtc_functions_3b_projected.gen");
projected.GraphWrite("tmp_mtc_functions_3b_projected.png");
//////////////////////////////////////////////////////////////
// compute original generator to its projected version for the
// alphabet evset result is nondeterministic
//////////////////////////////////////////////////////////////
mtcProjectNonDet(original, evset);
original.Write("tmp_mtc_functions_3c_projected_nondet.gen");
original.GraphWrite("tmp_mtc_functions_3c_projected_nondet.png");
}
{
// create two generators for parallel composition and compose them to gen_ab
MtcSystem gen_a, gen_b, gen_ab;
// generator a
Idx sta1 = gen_a.InsInitState("1");
Idx sta2 = gen_a.InsState("2");
gen_a.InsColor(sta2, "Color_1");
Idx evaa = gen_a.InsEvent("a");
Idx evab = gen_a.InsEvent("b");
gen_a.SetTransition(sta1, evaa, sta2);
gen_a.SetTransition(sta2, evab, sta1);
gen_a.Write("tmp_mtc_functions_4a_system.gen");
gen_a.GraphWrite("tmp_mtc_functions_4a_system.png");
// generator b
Idx stb1 = gen_b.InsInitState("1");
Idx stb2 = gen_b.InsState("2");
gen_b.InsColor(stb1, "Color_1");
gen_b.InsColor(stb2, "Color_2");
Idx evba = gen_b.InsEvent("a");
Idx evbc = gen_b.InsEvent("c");
gen_b.SetTransition(sta1, evba, sta2);
gen_b.SetTransition(sta2, evbc, sta1);
gen_b.Write("tmp_mtc_functions_4b_system.gen");
gen_b.GraphWrite("tmp_mtc_functions_4b_system.png");
/////////////////////////////////////////////
// Compute the parallel composition gen_ab of
// these two colored marking generators
/////////////////////////////////////////////
mtcParallel(gen_a, gen_b, gen_ab);
gen_ab.Write("tmp_mtc_functions_4c_parallel.gen");
gen_ab.GraphWrite("tmp_mtc_functions_4c_parallel.png");
}
{
// create model model and specification spec for
// computing a strongly nonblocking supervisor sup
MtcSystem model, spec, sup, sup_nb;
// generator model
Idx stm1 = model.InsInitState("1");
Idx stm2 = model.InsState("2");
Idx stm3 = model.InsState("3");
Idx stm4 = model.InsState("4");
Idx stm5 = model.InsState("5");
Idx stm6 = model.InsState("6");
model.InsColor(stm1, "Color_1");
model.InsColor(stm6, "Color_2");
Idx evma = model.InsControllableEvent("a");
Idx evmb = model.InsControllableEvent("b");
Idx evmc = model.InsControllableEvent("c");
model.SetTransition(stm1, evmb, stm2);
model.SetTransition(stm2, evma, stm3);
model.SetTransition(stm2, evmc, stm4);
model.SetTransition(stm4, evma, stm6);
model.SetTransition(stm1, evmc, stm5);
model.SetTransition(stm5, evmb, stm6);
model.SetTransition(stm6, evma, stm1);
model.Write("tmp_mtc_functions_5_plant.gen");
model.GraphWrite("tmp_mtc_functions_5_plant.png");
// generator spec
Idx sts1 = spec.InsInitState("1");
Idx sts2 = spec.InsState("2");
Idx evsb = spec.InsControllableEvent("b");
Idx evsc = spec.InsControllableEvent("c");
spec.SetTransition(sts1, evsb, sts2);
spec.SetTransition(sts2, evsc, sts1);
spec.Write("tmp_mtc_functions_5_spec.gen");
spec.GraphWrite("tmp_mtc_functions_5_spec.png");
/////////////////////////////////////////////////////////
// Inverse projection adds missing events by inserting
// self-loops into all automaton's states
/////////////////////////////////////////////////////////
mtcInvProject(spec, model.Alphabet());
spec.Write("tmp_mtc_functions_5_spec_invpro.gen");
spec.GraphWrite("tmp_mtc_functions_5_spec_invpro.png");
/////////////////////////////////////////////////////////
// Supervisor computation
/////////////////////////////////////////////////////////
mtcSupConClosed(model, spec, sup);
sup.Write("tmp_mtc_functions_5_super.gen");
sup.GraphWrite("tmp_mtc_functions_5_super.png");
/////////////////////////////////////////////
// Nonblocking supervisor computation
/////////////////////////////////////////////
mtcSupConNB(model, spec, sup_nb);
sup_nb.Write("tmp_mtc_functions_5_supernb.gen");
sup_nb.GraphWrite("tmp_mtc_functions_5_supernb.png");
}
}
bool Insert(const Idx &rIndex)
Add an element by index.
int main(int argc, char *argv[])
Definition: fts2ftx.cpp:59
NameSet EventSet
Convenience typedef for plain event sets.
Definition: cfl_nameset.h:533
void mtcSupConNB(const MtcSystem &rPlantGen, const MtcSystem &rSpecGen, MtcSystem &rResGen)
Nonblocking Supremal Controllable Sublanguage (wrapper function)
Definition: mtc_supcon.cpp:41
void mtcProject(const MtcSystem &rGen, const EventSet &rProjectAlphabet, MtcSystem &rResGen)
Minimized Deterministic projection.
void mtcSupConClosed(const MtcSystem &rPlantGen, const MtcSystem &rSpecGen, MtcSystem &rResGen)
Supremal Controllable Sublanguage (wrapper function)
Definition: mtc_supcon.cpp:130
void mtcInvProject(MtcSystem &rGen, const EventSet &rProjectAlphabet)
Inverse projection.
void mtcProjectNonDet(MtcSystem &rGen, const EventSet &rProjectAlphabet)
Project generator to alphabet rProjectAlphabet.
void mtcDeterministic(const MtcSystem &rGen, MtcSystem &rResGen)
Make generator deterministic.
Definition: mtc_project.cpp:73
void mtcParallel(const MtcSystem &rGen1, const MtcSystem &rGen2, MtcSystem &rResGen)
Parallel composition of two colored marking generators, controllability status is observed.
Includes all libFAUDES headers, incl plugings
libFAUDES resides within the namespace faudes.
uint32_t Idx
Type definition for index type (allways 32bit)
TmtcGenerator< AttributeVoid, AttributeColoredState, AttributeCFlags, AttributeVoid > MtcSystem

Definition in file mtc_2_functions.cpp.

Function Documentation

◆ main()

int main ( void  )

Definition at line 23 of file mtc_2_functions.cpp.

libFAUDES 2.32f --- 2024.12.22 --- c++ api documentaion by doxygen