Immerse yourself in 14+ dynamic lab scenes featuring over 70 engaging sessions, crafted to educate, simulate, and challenge your skills in Automation, Control, Robotics and Embedded systems using Arduino. Ideal for students, researchers, and engineers seeking hands-on expertise.
Lab 1 : One Conveyor Belt with One Sensor This basic lab introduces automation using a single conveyor belt and one sensor, ideal for understanding digital I/O and basic actuator (motor) control.
Lab 2 : Dual Conveyor Belt with One Box and Three Sensors A step up in logic control: two conveyor belts interact with a single box and three sensors to coordinate object detection and movement across belts
Lab 3 : Four Conveyor Belts with Continuously Coming Boxes This lab shows a production line with boxes coming randomly on the first belt. Using four sensors and logic, the conveyors only move when a box is detected, focusing on efficient energy use and precise control.
Lab 4 : Water Tank with Float Sensor and Controlled Pump Simulates a fluid level system where a float sensor regulates a pump and outlet valve, introducing closed-loop control and analog sensor integration.
Lab 5 : PID-Controlled Tanker with Inlet Valve This lab focuses on using a PID controller to maintain a specific water level despite outlet disturbances, refining precision through feedback-based control.
Lab 6 : Single Pole Traffic Light System Students learn a real-world single pole traffic light scenario, controlling lights with logic for three states using timers or simple triggers.
Lab 7 : Elevator System Across 3 Floors A 3-level elevator system (G, G+1, G+2) using sensors and actuator logic to demonstrate level detection, call systems, and motor control in multi-floor automation.
Lab 8 : Ball Balancing Using Servo and Ultrasonic Sensor (PID) Implements a real-time balancing system using a servo motor and ultrasonic sensor, controlled by a PID algorithm for maintaining a stable ball position.
Lab 9 : Box Sorting by Height with Four Conveyors Boxes are detected and measured using overhead ultrasonic sensor, then routed via two conveyors for separation by height, learning industrial sorting.
Lab 10 : 2-Joint, 2D Planar Robotic Arm (IK) A 2-joint robotic arm operates in 2D space students use inverse kinematics and optional PID for precise end-effector positioning via motor control and angle sensing using Arduino.
Lab 11 : 3-Joint, 2D Planar Robotic Arm (IK) Building on Lab 10, this adds a third joint to extend reach and complexity, improving spatial manipulation through enhanced inverse kinematics.
Lab 12 : Full 4-Way Traffic Light System It is a full intersection with 4 traffic poles, each with independent signals. The lights are controlled by Arduino logic to model real-time intersections.
Lab 13 : 3-Joint 3D Robotic Arm A complete 3D robotic arm with 3 arms and 4 rotating motors showcasing full spatial control using inverse kinematics and optional PID control for smooth operation.
Lab 14 : Line Following Robot This robot is intended to follow a white line on a black surface using three infrared sensors at the front. It moves forward using two motors located at the back.