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Robotics Programming Essentials
Robotics Programming Essential
This comprehensive course offers a hands-on introduction to the dynamic world of Internet of Things (IoT), Robotics, and Artificial Intelligence (AI). By combining sensor technology with C++ programming, students gain a deep understanding of how these technologies intersect. The course begins with Tinker CAD simulations, allowing students to experiment and refine their skills in a virtual environment. As they progress, they’ll work with actual hardware, integrating software and sensors using C++ syntax-based programming.
Throughout the course, students will explore practical applications of various sensors and actuators, developing precise motor control and modular programming skills. They’ll also learn to evaluate AI performance, improve system reliability, and troubleshoot complex issues. By working on cohesive projects, students will build practical problem-solving abilities, critical thinking, and creativity. Upon completion, they’ll have a strong foundation for future careers in robotics, AI, IoT, automation, and related fields, setting them up for success in an increasingly tech-driven world.
Throughout the course, students will also explore important programming principles such as state machines, parallel processing, and communication protocols including coding and encryption techniques. By building and programming different robot models—from obstacle-avoiding buggies to drawing robots and track followers—students develop strong problem-solving abilities and practical experience with real robotic systems. This foundation prepares them for advanced robotics studies or careers in automation, programming, and engineering.
Learning Outcomes
- Understand rotational motion, center of mass, and stability principles.
- Identify and explain simple machines and mechanical advantage.
- Define key terms: magnetism, electromagnetic induction.
- Identify electronic components (resistors, capacitors, transistors, microcontrollers).
- Understand modulation types (AM, FM, PWM) and signal modulation.
- Understand projectile motion and energy transfer.
- Explain principles of structure stability and mechanical designs.
- Understand projectile motion and energy transfer.
- Explain principles of structure stability and mechanical designs.
- Recall principles of wind turbines and power transmission concepts.
- Investigate factors affecting wind turbine performance.
- Understand principles of motion and stability.
- Define elastic potential energy and force in catapults.
- Explain storage and release of elastic potential energy.
- Identify components for alarm system circuit design (Arduino, sensors, LEDs, etc.).
- Construct and evaluate alarm system circuit on a breadboard.
- Design a circuit to display temperature values on an LCD.
