haustorial/prosthesis_controller/behaviour.cpp

218 lines
7 KiB
C++

#include "Arduino.h"
#include "behaviour.h"
SimplexNoise sn;
Mood mood;
float matrix_weights_main[SERVO_COUNT_MAIN][WEIGHT_COUNT]; //mapping outputs, sensors/moods
float matrix_weights_peripheralL[SERVO_COUNT_PERIPHERAL][WEIGHT_COUNT];
float matrix_weights_peripheralR[SERVO_COUNT_PERIPHERAL][WEIGHT_COUNT];
void updateMood(unsigned long millis,float gyroX,float gyroY,float gyroZ,bool bellyup, bool body_present, bool contact_main, bool contact_peripheralL, bool contact_peripheralR,float height,float temp_ambient,float temp_object,float pumpspeed, float servoerror) {
static unsigned long last_mood_update=0;
if (millis-last_mood_update>MOOD_UPDATE_INTERVAL) {
last_mood_update=millis;
mood.arousal=0;
mood.valence=0;
}
}
void updateMatrixWeights(unsigned long millis,bool bellyup, bool body_present, bool contact_main, bool contact_peripheralL, bool contact_peripheralR, float pitch, float roll){
static unsigned long last_weights_update=0;
if (millis-last_weights_update>WEIGHT_UPDATE_INTERVAL) {
last_weights_update=millis;
//### Update Mode ###
static float map_mode_rollpitch=0;
static float map_mode_walking=0;
static float map_mode_sleeping=0;
static float map_mode_noise=0;
float aim_map_mode_rollpitch=0;
float aim_map_mode_walking=0;
float aim_map_mode_sleeping=0;
float aim_map_mode_noise=0;
if (body_present) { //attached
aim_map_mode_rollpitch=1.0;
}else{ //detached
if (bellyup) { //belly up
aim_map_mode_walking=1.0;
}else{ //sitting on a level survace
aim_map_mode_noise=1.0;
}
}
map_mode_rollpitch=interpolateTo(map_mode_rollpitch,aim_map_mode_rollpitch,WEIGHT_UPDATE_INTERVAL/1000.0,0.3);
map_mode_walking=interpolateTo(map_mode_walking,aim_map_mode_walking,WEIGHT_UPDATE_INTERVAL/1000.0,0.3);
map_mode_sleeping=interpolateTo(map_mode_sleeping,aim_map_mode_sleeping,WEIGHT_UPDATE_INTERVAL/1000.0,0.3);
map_mode_noise=interpolateTo(map_mode_noise,aim_map_mode_noise,WEIGHT_UPDATE_INTERVAL/1000.0,0.3);
/*
Serial.print("Walking: \t"); Serial.println(map_mode_walking);
Serial.print("RollPitch: \t"); Serial.println(map_mode_rollpitch);
Serial.print("Sleeping: \t"); Serial.println(map_mode_sleeping);
Serial.print("Noise: \t"); Serial.println(map_mode_noise);
Serial.println();
*/
float map_sum=map_mode_walking+map_mode_rollpitch+map_mode_sleeping+map_mode_noise;
map_mode_walking/=map_sum;
map_mode_rollpitch/=map_sum;
map_mode_sleeping/=map_sum;
map_mode_noise/=map_sum; //divide mapping so the sum will be 1.0
analogWrite(PIN_VIBRATION,contact_main*map_mode_noise*64); //TODO, remove
//reset all weights
for (uint8_t i=0;i<SERVO_COUNT_MAIN;i++) {
for (uint8_t w=0;w<WEIGHT_COUNT;w++) {
matrix_weights_main[i][w]=0;
}
}
for (uint8_t i=0;i<SERVO_COUNT_PERIPHERAL;i++) {
for (uint8_t w=0;w<WEIGHT_COUNT;w++) {
matrix_weights_peripheralL[i][w]=0;
matrix_weights_peripheralR[i][w]=0;
}
}
//Mode Noise
matrix_weights_main[0][W_NOISE]+=30.0 *map_mode_noise;
matrix_weights_main[0][W_NOISESLOW]+=0.0 *map_mode_noise;
matrix_weights_main[1][W_NOISE]+=30.0 *map_mode_noise;
matrix_weights_main[1][W_NOISESLOW]+=20.0 *map_mode_noise;
matrix_weights_main[2][W_NOISE]+=20.0 *map_mode_noise;
matrix_weights_main[2][W_NOISESLOW]+=30.0 *map_mode_noise;
//Mode Roll Pitch
matrix_weights_main[0][W_PITCH]+=1.0* map_mode_rollpitch;
matrix_weights_main[1][W_ROLL]+=1.0* map_mode_rollpitch;
matrix_weights_main[2][W_PITCH]+=1.0* map_mode_rollpitch;
//Mode Walking
matrix_weights_main[0][W_NOISESLOW]+=5 *map_mode_walking;
matrix_weights_main[0][W_SIN]+=10 *map_mode_walking;
matrix_weights_main[0][W_OFFSET]+=-60 *map_mode_walking;
matrix_weights_main[1][W_NOISESLOW]+=30 *map_mode_walking;
matrix_weights_main[2][W_COS]+=-20 *map_mode_walking;
matrix_weights_main[2][W_OFFSET]+=70 *map_mode_walking;
//Mode Sleeping
matrix_weights_main[0][W_NOISESLOW]+=20 *map_mode_sleeping;
matrix_weights_main[1][W_NOISESLOW]+=20 *map_mode_sleeping;
matrix_weights_main[2][W_NOISESLOW]+=30 *map_mode_sleeping;
}
}
void updateServosByWeights(unsigned long millis,float pitch,float roll){
static unsigned long last_servoweights_update=0;
if (millis-last_servoweights_update>SERVOWEIGHT_UPDATE_INTERVAL)
{
last_servoweights_update=millis;
static unsigned long millis_add;
#define MILLISADD_MIN SERVOWEIGHT_UPDATE_INTERVAL*0.5
#define MILLISADD_MAX SERVOWEIGHT_UPDATE_INTERVAL*2
millis_add+=constrain(mapfloat(mood.arousal, -0.5,0.5 ,MILLISADD_MIN,MILLISADD_MAX),MILLISADD_MIN,MILLISADD_MAX);
float vsin=sin((millis_add)/1000.0);
float vcos=cos((millis_add)/1000.0);
for (uint8_t i=0;i<SERVO_COUNT;i++) {
uint8_t servoPosInMatrix=0;
float pnoise=sn.noise((millis()+millis_add)/5000.0,i*10); //simplexnoise -1 to 1
float pnoiseslow=sn.noise((millis()+millis_add)/50000.0,i*10); //simplexnoise -1 to 1
pitch=constrain(pitch,-80,80);
roll=constrain(roll,-80,80);
float angle=0;
float lookdirection=(servos[i].angle>=0)?1:-1; //if angle positive, 1, else 0
if (i<SERVO_COUNT_MAIN) { //Main
/*if (i==0){
Serial.print("servoangle:");Serial.println(servos[i].angle);
Serial.print("lookdirection:");Serial.println(lookdirection);
Serial.print("weight:");Serial.println(matrix_weights_main[i][W_LOOKDIRECTION]);
}*/
servoPosInMatrix=i;
angle=
pitch*matrix_weights_main[servoPosInMatrix][W_PITCH]
+roll*matrix_weights_main[servoPosInMatrix][W_ROLL]
+pnoise*matrix_weights_main[servoPosInMatrix][W_NOISE]
+pnoiseslow*matrix_weights_main[servoPosInMatrix][W_NOISESLOW]
+vsin*matrix_weights_main[servoPosInMatrix][W_SIN]
+vcos*matrix_weights_main[servoPosInMatrix][W_COS]
+lookdirection*matrix_weights_main[servoPosInMatrix][W_LOOKDIRECTION]
+1.0*matrix_weights_main[servoPosInMatrix][W_OFFSET];
}else if(i<SERVO_COUNT_MAIN+SERVO_COUNT_PERIPHERAL) { //Peripheral Left
servoPosInMatrix=i-3;
}else if(i<SERVO_COUNT_MAIN+2*SERVO_COUNT_PERIPHERAL) { //Peripheral Right
servoPosInMatrix=i-2*3;
}
servos[i].angle=angle;
}
}
}
float interpolateTo(float value,float aimvalue,float timestep,float speed)
{
float result=value;
if (result<aimvalue){
result=result+timestep*speed;
if (result>aimvalue) {
result=aimvalue;
}
}else if (result>aimvalue){
result=result-timestep*speed;
if (result<aimvalue) {
result=aimvalue;
}
}
return result;
}
float mapfloat(float x, float in_min, float in_max, float out_min, float out_max)
{
return (float)(x - in_min) * (out_max - out_min) / (float)(in_max - in_min) + out_min;
}