
Explore wireless power transmission history from Tesla's early experiments to MIT's 2007 resonant induction, and examine how efficiency drops as distance increases in practical systems.
Discover how wireless power uses inductive coupling and resonance between transmitter and receiver coils to transfer energy, with AC-to-DC conversion, impedance matching, and a receiver coil turning waves into electricity.
Explain why wireless power transmission remains safe for humans, as magnetic fields interact weakly with tissue, and discuss a future of charging hotspots with no need for adapters.
Review the circuit diagram for a wireless power system: a receiver coil feeds a rectifier bridge and LED, while the transmitter uses a microcontroller and MOSFET to drive the coil.
Build a wireless power transmitter and receiver by wiring a transistor-based transmitter and coil, and programming the microcontroller; the receiver uses a rectifier bridge and capacitor.
Install and explore MikroC for PIC to access its built-in editor, libraries, code explorer, debugger, and simulator, and quickly develop and deploy PIC microcontroller projects.
Generate a 1 microsecond pulse on a PIC microcontroller for wireless power with mikroC. Configure port B0 as output and loop high/low pulses with a 1 microsecond delay.
Operate a microcontroller-driven mosfet at high frequency to switch current into the first coil, creating a magnetic field that induces current in the second coil to power an led wirelessly.
Ready to explore cutting-edge embedded engineering? This course teaches you how to design and control wireless power transmission systems using PIC microcontrollers, fusing electrical theory with real-world application.
You’ll build low-power wireless transfer circuits and use PIC programming to monitor, control, and optimize them. Whether you're into industrial design, IoT, or experimental tech, this course takes your embedded systems skills to the next level.
We guide you through designing inductive couplers, configuring PWM outputs, integrating voltage sensors, and building real-time feedback systems—all powered by your PIC firmware.
What makes this course powerful:
Hands-on integration of wireless power hardware and PIC code
Step-by-step labs that walk you through real circuit implementation
Advanced insights into power optimization, signal stability, and safety
Practical applications for wireless charging, automation, and sensing systems
What You Will Learn
The physics of inductive wireless energy transfer
Design and testing of basic wireless power circuits
PIC microcontroller configuration for signal generation (PWM, timers)
Implementing feedback using ADCs and voltage sensors
Programming safety limits and power cutoffs
Troubleshooting coil alignment, resonance issues, and thermal behavior
Applications in contactless charging and embedded wireless solutions
Who Is This Course For
Intermediate to advanced embedded system developers
Engineering students and hardware designers
IoT developers exploring wireless energy control
Innovators working on automation and smart devices
Anyone wanting to combine power electronics with microcontroller logic
Student Reviews
“Combining PIC with wireless power was a game-changer for my final year project. This course gave me the structure I needed.” — Daniel Y.
“The labs were challenging but super rewarding. I built a real wireless energy transfer system from scratch!” — Sophie W.
Requirements
Working knowledge of C programming and PIC microcontrollers
Basic electronics skills (oscilloscopes, circuit analysis)
A PIC development board (e.g., PIC16F877A or similar)
Wireless power modules or DIY coil materials (guided list provided)
Call to Action
Want to wirelessly transmit energy with precision microcontroller control?
Join this course and engineer the future of embedded wireless power with PIC programming.
→Enroll Now – Build Wireless Power Systems with PIC
FAQ
Q: Can I use any PIC microcontroller?
A: Yes—though examples are based on mid-range PIC16/PIC18 families. We explain how to adapt code for others.
Q: Do I need a wireless power kit?
A: Not necessarily—we include guides for building simple DIY systems from low-cost parts.
Q: Will I receive a certificate?
A: Yes! A Certificate of Completion is awarded after finishing the course.
Q: Is there a refund policy?
A: Absolutely—get a full refund within 7 days if the course doesn’t meet your needs.
Q: Do I need simulation software?
A: Optional—but tools like MPLAB X and Proteus help visualize and test your circuits virtually.