programme ines avce xbee
Dependencies: MMA8451Q mbed xbee_lib
Fork of Programme_course by
Mlib.cpp
- Committer:
- inesmas3
- Date:
- 2017-02-08
- Revision:
- 1:4a9196bcf97a
- Parent:
- 0:3ec7fc598e48
- Child:
- 2:ddf9879f0e25
File content as of revision 1:4a9196bcf97a:
#include "Mlib.h" void Gestion_bosse() { if(BOSSE_ACTIVE)//Si on active la détection de la bosse { led5=0; led6=0; led7=0; pc.printf("bosse: %d , X: %1.2f , ajustement : %hi\n ",bosse,middle_3F(last_three),ajust_vit_bosse); last_three[2] = last_three[1]; // les 3 dernieres valeurs de X sont stockées daans un tableau last_three[1] = last_three[0]; last_three[0] = acc.getAccX(); if(bosse == 1) { ajust_vit_bosse = 60; led6=1; led4=1; } else if(bosse == 3) ajust_vit_bosse = -80; else { ajust_vit_bosse = 0; led7=1; led1=1; } if((abs(middle_3F(last_three)) > 0.13 ) && (bosse == 0)) // si montée détectée { bosse = 1; //tep = (int)t_debut.read_ms(); } else if(bosse == 1 && (middle_3F(last_three) > -0.1)) { bosse = 2; } else if(bosse == 2 && (middle_3F(last_three) > 0.19)) { bosse = 3; } else if(bosse==3 && (middle_3F(last_three) > 0.19)) { ajust_vit_bosse = -50; led5=1; led2=1; pc.printf("bosse: %d , X: %1.2f , ajustement : %hi\n",bosse,middle_3F(last_three),ajust_vit_bosse); } else if (bosse==3 && (middle_3F(last_three) < 0.19)) { bosse=0; ajust_vit_bosse=0; } } } /***********AUTRES_FCT***************/ char middle_3(char *tab) // prend la valeur du milieu quand les valeurs sont rangées { tri_a_bulle(tab, 3); return tab[1]; } int middle_3U(int *tab) { tri_a_bulleU(tab, 3); return tab[1]; } float middle_3F(float *tab) { return tri_a_bulleF(tab, 3); } void tri_a_bulle(char* t, int const size) // permet de trier les valeurs du tableau dans l'ordre croissant { int en_desordre = 1; int i,j; for (i = 0; (i < size) && en_desordre; ++i) { en_desordre = 0; for (j = 1; j < (size - i); ++j) { if (t[j-1] > t[j]) { int temp = t[j-1]; t[j-1] = t[j]; t[j] = temp; en_desordre = 1; } } } } void tri_a_bulleU(int* t, int const size) { int en_desordre = 1; int i,j; for (i = 0; (i < size) && en_desordre; ++i) { en_desordre = 0; for (j = 1; j < (size - i); ++j) { if (t[j-1] > t[j]) { int temp = t[j-1]; t[j-1] = t[j]; t[j] = temp; en_desordre = 1; } } } } float tri_a_bulleF(float* t2, int const size) { float t[3]; t[0] = t2[0]; t[1] = t2[1]; t[2] = t2[2]; int en_desordre = 1; int i,j; for (i = 0; (i < size) && en_desordre; ++i) { en_desordre = 0; for (j = 1; j < (size - i); ++j) { if (t[j-1] > t[j]) { float temp = t[j-1]; t[j-1] = t[j]; t[j] = temp; en_desordre = 1; } } } return t[1]; } unsigned char Moyenne(unsigned char *tab) { int i = 0; int somme = 0; for(i = 0; i < 128;i++) { somme+=tab[i]; } return somme/128.0; } char Moyenne2(char *tab, int nb) { int i = 0; int somme = 0; for(i = 0; i < nb;i++) { somme+=tab[i]; } return float(somme/nb); } void menu() { static int p = 0; p++; wait(0.1); if(BP2) // bouton B { seuil_der++; if(seuil_der == 2) seuil_der = -1; led1 = 0; wait(0.5); } if(seuil_der == 0) { led1 = p%2; } else if(seuil_der == 1) { led1 = 1; } else { led1 = 0; } if(S1 == 1) { led2 = 1; } else led2 = 0; if(S2 == 1) { led3 = 1; } else led3= 0; } void fin_course() { static int arr = 0; if(somme_derivee >= (Moyenne2(last_five, 5) + (SEUIL_NB_DERRIVEE+5*seuil_der)) || arr != 0) { if(t_debut.read() > 3 && S1 == 1 && arr == 0) { arr = t_debut.read_ms(); } else if(arr != 0 && t_debut.read_ms() > arr+100) { VIT = 0; } } for(int j = 4; j > 0; j--) { last_five[j] = last_five[j-1]; // pc.printf("%d\n", last_five[j]); } // pc.printf("%d | %d\n", (somme_derivee), (Moyenne2(last_five, 5))); last_five[0] = somme_derivee; } //void F_BalanceBlancs() //{ // unsigned char moy = 0; // moy = Moyenne(cam_data); // if(moy > LUMI_MOYENNE && tempsInte >= MIN_INTE) tempsInte-=INCREM_BALANCE; // else if(tempsInte <= MAX_INTE) tempsInte+=INCREM_BALANCE; //}