
Explore how an Arduino based solar tracker improves efficiency by aligning panels to the strongest light using a light dependent resistor (photoresistor) and a circuit diagram.
Learn to build an Arduino based solar tracker by assembling a microcontroller brain, jumper wires, LDR sensor, solar panel, servo motor, and wiring fundamentals, with Arduino UNO basics.
Describe servo motors as programmable rotary actuators with feedback, controlled by Arduino to position a solar panel, and explain resistors and LDRs that sense light to steer toward brightest sun.
Learn to use the arduino ide to program a solar tracker that reads two ldrs via analog pins. Drive the servo toward the brighter side.
Design a circuit in Tinkercad using two photoresistors with 10k resistors, wired to analog inputs A0 and A1 on Arduino Uno with a breadboard and a servo on pin 9.
Learn to build an Arduino solar tracker by using the servo library, declaring a servo object, reading LDRs on analog pins, and mapping values to move from 90 degrees.
Calculate the light difference between west and east LDRs with absolute value, then keep panel in place if the difference is negligible, or steer toward the brighter side by servo.
Demonstrates assembling an Arduino-based solar tracker on cardboard with a breadboard, LDR sensors, and a SG-90 servo to tilt a solar panel toward light.
Explore how a structured, project-based path using Arduino and embedded systems transforms practice into a professional career, emphasizing guided projects, problem-solving, and real-world thinking over certificates.
This course guides you through building a fully functional Arduino-powered solar tracker. Using light sensors and servo motors, you’ll create a system that detects sunlight direction and automatically adjusts the solar panel’s position for maximum efficiency.
Whether you’re working on a renewable energy project, a school assignment, or just want to develop your skills in sensor-based automation, this course delivers the complete process—from hardware setup to final working system.
Why Should You Take This Course?
Hands-on Experience: The course provides students with hands-on experience in building a solar tracker from scratch, allowing them to apply the concepts and theories they learn in a practical setting.
Understanding of Renewable Energy: By building a solar tracker, students will gain a deeper understanding of the principles of renewable energy and how it can be harnessed for practical applications.
Development of Technical Skills: The course will help students develop a range of technical skills, including circuit design, coding, and troubleshooting, which are valuable in many areas of engineering and technology.
Exposure to New Technologies: Students will be exposed to cutting-edge technologies, including the Arduino platform and solar tracking systems, and will learn how they can be used to solve real-world problems.
Career Opportunities: Upon completion of the course, students will have a portfolio of projects that demonstrate their skills and experience in electronics, programming, and renewable energy, which can help them to pursue careers in these fields.
What You Will Learn
Understand the Principles of Solar Tracking
Learn how light direction impacts energy efficiency and why tracking systems matter.
Interface LDR Sensors with Arduino
Set up and calibrate light-dependent resistors (LDRs) to detect sunlight intensity.
Control Servo Motors Based on Sensor Input
Program Arduino to adjust panel orientation using dual-axis movement.
Implement Conditional Logic in Embedded C
Create decision-making code that moves the panel precisely toward the strongest light source.
Assemble the Full Tracking Mechanism
Combine sensors, servos, and panel mounts to create a complete working model.
Test, Troubleshoot, and Optimize
Fine-tune tracking accuracy and explore ways to adapt your design for different conditions.
Who This Course Is For
Students building academic projects on renewable energy
Makers and electronics hobbyists interested in automation
Anyone learning Arduino and sensor integration
DIY solar enthusiasts seeking energy-efficient designs
Requirements
Basic knowledge of Arduino and electronics
Arduino Uno (or compatible board)
LDR sensors, resistors, servo motors (2), solar panel (for demonstration)
Breadboard, jumper wires, and a stable mounting platform
Student Reviews
“Built it for my capstone project—easy to follow and worked as expected!” — Tariq H.
“I always wanted to work on solar automation. This was a great way to learn sensors and servo control.” — Julia P.
“One of the most complete Arduino tracking projects. Clear code, practical design.” — Elijah R.
Build Smarter Renewable Systems
Using simple components and real code, you’ll build a working solar tracker that mimics professional systems. This isn’t just a circuit—it’s an energy optimization tool powered by your code and logic.
About the Instructor
Educational Engineering Team
Team of Skilled Engineers Sharing Knowledge with the World
The Educational Engineering Team is a leading force in the Microcontroller Industry, boasting over 13 years of experience in teaching and practical projects. Their courses provide hands-on, real-world knowledge, enabling immediate application in projects and daily life. Led by Ashraf, an educator and Mechatronics engineer, the team is passionate about sharing their collective expertise. With over 250,000 students taught worldwide, Educational Engineering offers comprehensive courses, articles, and online support in various STEM fields. Ashraf's dedication to simplifying complex concepts through engaging content has garnered praise from students globally, making Educational Engineering a trusted resource for aspiring engineers and hobbyists alike.
Call to Action
Start designing smarter, self-adjusting systems powered by clean energy principles.
Enroll now and build your Arduino solar tracker step-by-step.
Enroll Now – Master Arduino-Based Solar Automation