PROGRAMMING SCHOOL

RoboPro Coding - TXT 4.0

	1.		Combi sensor 6 Pin		9.		ULTRASOUND sensor (2.)

	2.		SERVO MOTOR		10.		ULTRASOUND sensor (1.)

	3.		ENKODER motor		11.		IR sensor

	4.		MOTOR - impulse gear		12.		PHOTO resistor (analog)

	5.		MOTOR speed control		13.		PHOTO transistor

	6.		MOTOR control with switches		14.		The LED lights up via a switch

	7.		MAGNETIC sensor		15.		Analog LED control

	8.		COLOR sensor		16.		Turn on the digital LED


		Combi sensor 6 Pin

Program for reading the data of all three sensors that are part of the van sensor. Example of x value readings. You can read the other values for y and z in the same way.

Vj16.zip


		SERVO MOTOR

Connect the servo motor to S1 and the switch to I2. An example of moving and positioning a servo motor. The value for the starting position is 240.

Vj15.zip


		ENKODER motor

The encoder motor has a built-in hall sensor that counts the revolutions of the motor. At higher rotational speeds and the time required to stop the motor, positioning may be less accurate than positioning at lower rotational speeds.

Vj14.zip


		MOTOR - impulse gear

For precise positioning, we can use a step gear. The example shows positioning by 90 degrees in relation to the previous position. With the step gear, we can count how many times the button was pressed (ON) and how many times it was not (OFF). In this way, the positioning is more precise, due to the initial position, which can be ON or OFF. This example counts only when the button is pressed (ON position). Switch B counts the steps, switch A starts the motor.

Vj13.zip


		MOTOR speed control

Motor speed control in steps of 100 (5 speeds). The maximum speed (motor speed) of revolutions is at the value 512, and the lower the value, the lower the number of revolutions of the engine. At a certain value, the motor stops because the power supply does not have enough power to start it.

Vj12.zip


		MOTOR control with switches

By pressing the switch A, the motor rotation is to the left, and by pressing the switch B, the rotation is to the right.

Vj11.zip


		MAGNETIC sensor

The magnetic sensor detects the magnetic field. Bringing the magnet closer to the sensor lights up the LED, and moving away turns it off.

Vj10.zip


		COLOR sensor

In order for the COLOR sensor to work correctly and for the values for different colors to be large enough, it is necessary to place the sensor at the correct distance from the substrate. The surrounding lighting can also be a problem (depending on the type of light). The values for the colors in this example are adapted to the background used in the exercise.

Vj09.zip


		ULTRASOUND sensor (2.)

Led lights are turned off according to the distance from the obstacle. If the distance is less than 30 cm, the white LED turns off. If the distance is less than 20 cm, the green LED turns off. If the distance is less than 10 cm, the red LED turns off.

Vj08.zip


		ULTRASOUND sensor (1.)

When the ultrasonic sensor detects an obstacle at a distance of less than 10 cm, the LED light turns on.

Vj07.zip


		IR sensor

The IR sensor (module) consists of two sensors. When the sensor is illuminated, the LED lights up, and when it is not, it turns off. The white surface reflects the light on the sensor and the LED lights up. The black background (line) does not reflect light and the LED light goes out.

Vj06.zip


		PHOTO resistor (analog)

The brightness of the LED depends on the brightness of the PHOTO resistor.

Vj05.zip


		PHOTO transistor

When the brightness of the FOTO transistor is high enough, the LED lights up.

Vj04.zip


		The LED lights up via a switch

By pressing the switch, the LED light turns on, and when it stops, it turns off.

Vj03.zip


		Analog LED control

Increasing and decreasing the brightness of the LED light in steps (64). You can decrease the step value if you want to get a smoother transition.

Vj02.jpg


		Turn on the digital LED

Turns the LED light on and off in half a second.

Vj01.zip