// show frequency
void show_frequency(long int freq) {
tft.setTextSize(2);
tft.setTextColor(WHITE);
uint8_t zaehler;
uint8_t digits[10];
zaehler = 8;
while (zaehler--) {
digits[zaehler] = ExtractDigit (freq, zaehler);
// Serial.print(digits[zaehler]);
// Serial.print(".");
// 7: 10Mhz, 6: 1Mhz, 5: 100khz, 4: 10khz, 3: 1khz, 2: 100Hz, 1: 10Hz, 0: 1Hz
}
// Serial.print("xxxxxxxxxxxxx");
zaehler = 8;
while (zaehler--) { // counts from 7 to 0
if (zaehler < 6) sch = 7; // (khz)
if (zaehler < 3) sch = 14; // (Hz)
if (digits[zaehler] != digits_old[zaehler] || !freq_flag) { // digit has changed (or frequency is displayed for the first time after power on)
if (zaehler == 7) {
sch = 0;
tft.setCursor(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency); // set print position
tft.fillRect(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency, font_width,16,BLACK); // delete old digit
if (digits[7] != 0) tft.print(digits[zaehler]); // write new digit in white
}
if (zaehler == 6) {
sch = 0;
tft.setCursor(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency); // set print position
tft.fillRect(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency, font_width,16,BLACK); // delete old digit
if (digits[6]!=0 || digits[7] != 0) tft.print(digits[zaehler]); // write new digit in white
}
if (zaehler == 5) {
sch = 7;
tft.setCursor(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency); // set print position
tft.fillRect(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency, font_width,16,BLACK); // delete old digit
if (digits[5] != 0 || digits[6]!=0 || digits[7] != 0) tft.print(digits[zaehler]); // write new digit in white
}
if (zaehler < 5) {
// print the digit
tft.setCursor(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency); // set print position
tft.fillRect(pos_x_frequency + font_width * (8-zaehler) + sch,pos_y_frequency, font_width,16,BLACK); // delete old digit
tft.print(digits[zaehler]); // write new digit in white
}
digits_old[zaehler] = digits[zaehler];
}
}
tft.setTextSize(1);
if (digits[7] == 0 && digits[6] == 0)
tft.fillRect(pos_x_frequency + font_width * 3,pos_y_frequency + 11, 3, 3, BLACK);
else tft.fillRect(pos_x_frequency + font_width * 3,pos_y_frequency + 11, 3, 3, YELLOW);
tft.fillRect(pos_x_frequency + font_width * 7 -4, pos_y_frequency + 11, 3, 3, YELLOW);
if (!freq_flag) {
tft.setCursor(pos_x_frequency + font_width * 9 + 16,pos_y_frequency + 7); // set print position
tft.setTextColor(GREEN);
tft.print("Hz");
}
freq_flag = 1;
tft.setTextColor(WHITE);
} // END VOID SHOW-FREQUENCY
void cAppliMergeCloud::CreateGrapheConx()
{
mRecouvrTot = mVSoms.size(); // Recouvrement total
// Couple d'homologues
std::string aKSH = "NKS-Set-Homol@@"+ mParam.ExtHom().Val();
std::string aKAH = "NKS-Assoc-CplIm2Hom@@"+ mParam.ExtHom().Val();
std::vector<tMCArc *> aVAddCur;
const cInterfChantierNameManipulateur::tSet * aSetHom = ICNM()->Get(aKSH);
for (int aKH=0 ; aKH<int(aSetHom->size()) ; aKH++)
{
const std::string & aNameFile = (*aSetHom)[aKH];
std::string aFullNF = Dir() + aNameFile;
if (sizeofile(aFullNF.c_str()) > mParam.MinSzFilHom().Val())
{
std::pair<std::string,std::string> aPair = ICNM()->Assoc2To1(aKAH,aNameFile,false);
tMCSom * aS1 = SomOfName(aPair.first);
tMCSom * aS2 = SomOfName(aPair.second);
// if ((aS1!=0) && (aS2!=0) && (sizeofile(aNameFile.c_str())>mParam.MinSzFilHom().Val()))
// MPD : redondant + erreur car pas aFullNF
if ((aS1!=0) && (aS2!=0) )
{
tMCArc * anArc = TestAddNewarc(aS1,aS2);
if (anArc)
aVAddCur.push_back(anArc);
}
}
}
// Ajout recursif des voisin
while (! aVAddCur.empty())
{
std::cout << "ADD " << aVAddCur.size() << "\n";
std::vector<tMCArc *> aVAddNew;
for (int aK=0 ; aK<int(aVAddCur.size()) ; aK++)
{
tMCArc & anArc = *(aVAddCur[aK]);
AddVoisVois(aVAddNew,anArc.s1(),anArc.s2());
AddVoisVois(aVAddNew,anArc.s2(),anArc.s1());
}
aVAddCur = aVAddNew;
}
// Calcul des voisins proches (contenu dans Apero ChImSec)
for (int aK=0 ; aK<int(mVSoms.size()) ; aK++)
{
tMCSom * aS1 = mVSoms[aK];
const cOneSolImageSec * aSol = aS1->attr()->SolOfCostPerIm(mParam.CostPerImISOM().Val());
if (aSol)
{
for
(
std::list<std::string>::const_iterator itS=aSol->Images().begin();
itS !=aSol->Images().end();
itS++
)
{
tMCSom * aS2 = SomOfName(*itS);
if (aS2)
{
tMCArc * anArc = mGr.arc_s1s2(*aS1,*aS2);
if (anArc)
{
// anArc->sym_flag_set_kth_true(mFlagCloseN);
anArc->flag_set_kth_true(mFlagCloseN);
aS1->attr()->AddCloseVois(aS2->attr());
}
// std::cout << "AAAaA :" << anArc << "\n";
}
}
}
}
// Na pas effacer, permet de voir le graphe des close image en cas de doute
if (1)
{
for (int aK=0 ; aK<int(mVSoms.size()) ; aK++)
{
tMCSom * aS1 = mVSoms[aK];
std::cout << aS1->attr()->IMM()->mNameIm
<< " All: " << aS1->nb_succ(mSubGrAll)
<< " Closed: " << aS1->nb_succ(mSubGrCloseN) ;
std::cout << " ";
for (tArcIter itA = aS1->begin(mSubGrCloseN) ; itA.go_on() ; itA++)
{
const std::string & aN2 = (*itA).s2().attr()->IMM()->mNameIm;
std::cout << ExtractDigit(StdPrefixGen(aN2),"0000") << " ";
}
std::cout << "\n";
}
}
mRecMoy = mRecouvrTot / mVSoms.size();
mNbImMoy = mVSoms.size() / mRecMoy; // En Fait NbIm^2 /mRecouvrTot
std::cout << "REC TOT " << mRecouvrTot << " RMoy " << mRecMoy << " NbIm " << mNbImMoy << "\n";
}
