Esempio n. 1
0
int
main()
{
    int size = SIZE;
    int **arr;

    if (SIZE > MAX_SIZE) {
        printf("Unsupported size %d. Max supported = %d\n", SIZE,
               MAX_SIZE);
    }
    if (NUM_EP > SIZE) {
        printf("Number of endpoints %d greater than grid size %d\n",
               NUM_EP, SIZE);
    }

    arr = alloc_n_by_n_array(size);
    initialize_arr(arr, size);
    setup_puzzle(ref_arr, arr, size);

    printf("Problem:\n");
    printf("===============\n");
    print_arr(arr, size);

    printf("\nSolutions: \n");
    printf("===============\n");
    failure_count = 0;
    solution_count = 0;

    solve_puzzle(arr, size);
    printf("\nCompletions but no array full = %d\n", failure_count);
    printf("\nSolution count = %d\n", solution_count);
    print_cc();
}
Esempio n. 2
0
void print_inst(FILE* fptr, inst_t i) {
    if (i->label) {
        fprintf(fptr, "%s:", i->label);
    }

    if (i->op == OP_BR) {
        fprintf(fptr, "\t%s", opnames[i->op]);
        print_cc(fptr, i->ccode);
    } else
        fprintf(fptr, "\t%s ", opnames[i->op]);

    switch (i->op) {

            /* 3 operands */
        case OP_ADD:
        case OP_AND:
        case OP_ANDL:
        case OP_DIV:
        case OP_LDR:
        case OP_MUL:
        case OP_OR:
        case OP_ORL:
        case OP_STR:
        case OP_SUB:
            print_op(fptr, i->ops[0]);
            fprintf(fptr, ", ");
            print_op(fptr, i->ops[1]);
            fprintf(fptr, ", ");
            print_op(fptr, i->ops[2]);
            break;
            /* 2 operands */
        case OP_BR:
        case OP_SET:
        case OP_ST:
        case OP_STI:
        case OP_LD:
        case OP_LDI:
        case OP_LEA:
        case OP_NOT:
        case OP_NOTL:
            print_op(fptr, i->ops[0]);
            fprintf(fptr, ", ");
            print_op(fptr, i->ops[1]);
            break;

            /* one operand */
        case OP_JSRR:
        case OP_BRA:
        case OP_JMP:
        case OP_JSR:
            print_op(fptr, i->ops[0]);

        default:
            break;
    }
    fprintf(fptr, "\n");
}
bool generate_conservative_cover(TRel &tr, int kmax, const SS &state_space, const SS &initial_state, list<Region *> &minregs)
{

    set<string> Evs, problem_events;
    map<string,EvTRel *> tr_map = tr.get_map_trs();
    map<string,EvTRel *>::const_iterator itm;
    for(itm=tr_map.begin(); itm != tr_map.end(); ++itm)
    {
        Evs.insert(itm->first);
    }

    vector<list<Region *> > CCs(10);
    int i = 0;
    do
    {
        string cover_event = *(Evs.begin());
        set<string> localEvs;
        localEvs.insert(cover_event);
//		cout << "event a cobrir: " << cover_event << endl;
        CCs[i] = find_conservative_component(tr_map[cover_event],tr,kmax ,state_space,localEvs,minregs,problem_events);
//		cout << "Found a conservative component with " << CCs[i].size() << " places" << endl;
        if (not CCs[i].empty())
        {
            cout << endl << endl << "# Conservative component " << i << " --------------------"<< endl;
            print_cc(CCs[i],tr,initial_state,kmax,localEvs);
            ++i;
        }
        set<string> tmpEvs;
        set_union(localEvs.begin(),localEvs.end(),problem_events.begin(),problem_events.end(),inserter(localEvs, localEvs.begin()));
        set_difference(Evs.begin(),Evs.end(),localEvs.begin(),localEvs.end(),inserter(tmpEvs, tmpEvs.begin()));
        Evs = tmpEvs;

        if (i>=10) CCs.resize(CCs.size() + 10);

    }
    while (not Evs.empty());
    if (not problem_events.empty())
    {
        list<Region *> cc_problem;
        print_cc(cc_problem,tr,initial_state,kmax,problem_events);
    }
    return true;
}