stap 1-7:

 

 

 

je kunt de belangrijkste bestanden van dit projekt “downloaden” van Ron’s NAS (zie blog) NIET MEER MOGELIJK I.V.M. beveiliging

of hier in de weergegeven listings met copy/paste.

 

SMARS DEMO 1:

#include <AFMotor.h>

// SMARS Demo 1 with line sensor
// This sketch makes the robot move inside a delimitated area
// (you can make a perimeter with insulating tape)

AF_DCMotor motorL(1); // left motor
AF_DCMotor motorR(2); // right motor

// declare variables

int lineNumber; // defines the variable where it will
// store the line sensor value

void setup() {
Serial.begin(9600); // opens serial port, sets data rate to 9600 bps
// changes the following values to make the robot drive as
// straight as possible

motorL.setSpeed(200); // sets motorL speed
motorR.setSpeed(200); // sets motorR speed
motorL.run(RELEASE); // turns motorL off
motorR.run(RELEASE); // turns motorR off
}

void loop() {
lineNumber = analogRead(A0); // reads the sensor value from pin A0
// and stores it in the variable lineNumber
while (lineNumber < 800) // (WIT) repeats the following part
// of code until the light sensor will find a darker zone
{
motorL.run(FORWARD); // forward
motorR.run(FORWARD);
lineNumber = analogRead(A0); // reads the sensor value from pin A0
// and stores it in the variable lineNumber
Serial.print("linenumber: ");
Serial.println(lineNumber); // send the value to the serial monitor
}

// the following operations will make the robot goes backward for
// 1 second and turns left for 0.15 second

motorL.run(RELEASE); // stop
motorR.run(RELEASE);
delay(200);

motorL.run(BACKWARD); // backward
motorR.run(BACKWARD);
delay(1000);

motorL.run(RELEASE); // stop
motorR.run(RELEASE);
delay(200);

motorL.run(BACKWARD); // turn left
motorR.run(FORWARD);
delay(150);

motorL.run(RELEASE); // stop
motorR.run(RELEASE);
delay(200);

motorL.run(FORWARD); // forward
motorR.run(FORWARD);
delay(1000);
Serial.print("linenumber: ");
Serial.println(lineNumber); // send the value to the serial monitor
}

 

 

 

 

SMARS DEMO 3:

#include <AFMotor.h>

// SMARS Demo 3 with ultrasonic sensor
// This sketch makes the robot avoid obstacles.

AF_DCMotor motorL(1);     // left  motor
AF_DCMotor motorR(2);     // right motor

int distancecm = 0;
const int trigPin = 18;
const int echoPin = 19;
long duration;
int distance;

void setup() {
  pinMode(trigPin, OUTPUT);
  pinMode(echoPin, INPUT);
  Serial.begin(9600);       // opens serial port, sets data rate to 9600 bps
  // changes the following values to make the robot drive
  // as straight as possible

  motorL.setSpeed(200);     // sets motorL speed
  motorR.setSpeed(200);     // sets motorR speed
  motorL.run(RELEASE);      // turns motorL off
  motorR.run(RELEASE);      // turns motorR off
}

void loop() {
  delay(200);
  distancecm = mdistance();
  if (distance <= 20) {
    motorL.run(RELEASE);    // stop
    motorR.run(RELEASE);
    delay(200);
    motorL.run(BACKWARD);   // backward
    motorR.run(BACKWARD);
    delay(200);
    motorL.run(RELEASE);    // stop
    motorR.run(RELEASE);
    delay(200);
    motorL.run(BACKWARD);   // turn left
    motorR.run(FORWARD);
    delay(100);
    motorL.run(RELEASE);    // stop
    motorR.run(RELEASE);
    delay(200);
  }
  else {
    motorL.run(FORWARD);    // forward
    motorR.run(FORWARD);
  }
}

int mdistance()
{
  digitalWrite(trigPin, LOW);
  delayMicroseconds(2);
  digitalWrite(trigPin, HIGH);
  delayMicroseconds(10);
  digitalWrite(trigPin, LOW);
  duration = pulseIn(echoPin, HIGH);
  distance = duration * 0.034 / 2;
  Serial.print("Distance:   ");
  Serial.println(distance); // send the value to the serial monitor
  return distance;
}

 

 

SMARS MOTOR TEST:

#include <AFMotor.h>

// SMARS test

AF_DCMotor motorL(1);     // left  motor
AF_DCMotor motorR(2);     // right motor

void setup() {
  // changes the following values to make the robot drive
  // as straight as possible

  motorL.setSpeed(200);   // sets motorL speed
  motorR.setSpeed(200);   // sets motorR speed
}

void loop() {
  motorL.run(FORWARD);    // forward
  //motorR.run(FORWARD);
  //delay(1500);
  //motorL.run(RELEASE);    // stop
  //motorR.run(RELEASE);
  //delay(500);
  //motorL.run(BACKWARD);   // backward
  //motorR.run(BACKWARD);
  //delay(1500);
  //motorL.run(RELEASE);    // stop
  //motorR.run(RELEASE);
  //delay(500);
  //motorL.run(FORWARD);    // turn right
  //motorR.run(RELEASE);
  //delay(500);
  //motorL.run(RELEASE);    // stop
  //motorR.run(RELEASE);
  //delay(500);
  //motorL.run(RELEASE);    // turn left
  //motorR.run(FORWARD);
  //delay(500);
}