Robotics Fundamental Course

Discover servo motors as rotary or linear actuators that provide precise angular and linear control of position, velocity, and acceleration through feedback, including continuous and positional rotation servos with rack-and-pinion.

Master a simple servo motor project by wiring power, ground, and signal with jumper wires, then control it via a digital input through a USB-connected board in robotics fundamentals.

Assemble a servo motor by connecting three wires: ground, the signal wire, and remaining wire to the Arduino board, using digital pin 3 for the signal, then move to coding.

Learn to code a servo motor drive using a setup and for loop, moving from 0 to 180 and back with precise delays to produce smooth rotation.

Explore how a dc motor converts electrical energy into mechanical energy via magnetic fields and torque, highlighting permanent magnet, series, shunt, and compound types with starting torque and speed regulation.

Discover how a DC motor works by connecting red and black leads and controlling rotation as required, converting electrical energy to mechanical motion on a project board.

Assemble the DC motor by securely connecting it to the socket, aligning pins and directions, using a screwdriver carefully, and ensuring complete, damage-free wiring before moving to coding.

Use the Ethan motor library to create a DC motor object named motor one, set speed to 255, and run forward in a loop with a 200 ms delay.

Explore the stepper motor as an electro-mechanical device that converts electrical power into motion, its use in camera movement and industry, and basic setup with a driver and jumper cables.

Connect the stepper motor to the driver, attach jumper cables to the power rails, supply positive to five voltage and negative to ground, and verify power good.

Connect the power cable, upload the code, and drive a step motor by configuring 32 steps, a speed of 200, and a delay in milliseconds to achieve a complete revolution.

Build a simple robot using a motor shield, two DC motors, four wheels, six 1.5V batteries, screws, and double-sided tape; connect motor wires to the shield and assemble on chassis.

Assemble the robot car by attaching four DC motors to the chassis, wiring them to the motor shield, and powering with six 1.5-volt batteries.

Explore wiring and coding a robot car with four DC motors, assign motor pins, initialize serial communication, set motor speeds, and upload the Arduino sketch to drive forward and backward.

Explore the output of a robot car within the robotics fundamentals course, showing how the system converts inputs into actions.

Learn to use the c0 5 Bluetooth module for wireless communication, connect it to an Arduino board, and set up a six-module Bluetooth kit for robotics projects.

Assemble the Bluetooth module by wiring its pins, including positive, negative, and ground, connect the DCC pin and transmitter, and prepare one unit for code upload before use.

This lecture demonstrates Bluetooth coding with an Arduino to read data from a Bluetooth module and control a led via pin output based on received characters.

Learn to control a robot car using a Bluetooth module, wiring the transmitter and receiver to the motor shield, supplying power, and uploading code.

Assemble a Bluetooth car by wiring the motor to the transmitter, mounting the Bluetooth module, powering it, uploading the codes, and wiring the Bluetooth transmitter to the Arduino receiver.

Learn to code a bluetooth controlled car by assigning motor ports, initializing serial communication, and handling forward, backward, left, right, and stop commands with a motor shield.

Connect and pair the Bluetooth transmitter and receiver with the audio video module, then control the broadcast from the laptop using the CSP cable and Bluetooth interface.

Learn to build a line-tracking robot car using a light-tracking sensor with transmitter and receiver. The car moves on black and stops on white, with required components for the project.

Connect sensor ground to motor ground and wire its signal to pin nine on motor shield, mount the sensor under robot to detect white or black and upload the code.

Learn line tracing on a four-motor robot car with the model shield library and a pin nine tracing sensor, including forward loop that stops on white and moves on black.

Upload code to the robot car, test in the new mode, observe that white objects stop the car while black objects make it move, and demonstrate a completed project.