
Comprehensive exploration of pulse width modulation techniques for power electronic converters, covering DC-DC, DC-AC, and multilevel converters, with analysis of harmonics, losses, and applications.

Explore three-phase inverter implementation and pulse-width modulation techniques for three-phase systems in this advanced power electronics lecture from MIT.

Explore multilevel inverters for harmonic elimination and cancellation, and learn pulse width modulation techniques for inverters in this advanced power electronics lecture.

Comprehensive introduction to FPGA programming, covering basics, Verilog, circuit design methods, state machines, simulations, and advanced topics like PWM and resource optimization.

Learn to build a Geiger counter with high voltage components. Covers DC-DC conversion, circuit design, microcontroller programming, and radiation detection principles. Hands-on project for electronics enthusiasts.

Design and integrate a custom PWM peripheral into a RISC-V softcore processor on an FPGA, enabling LED dimming control through memory-mapped I/O and Verilog implementation.

Learn to build an analog VCO from scratch, adding stability, fine-tuning, and variable pulse width output. Covers thermistors, op-amps, waveshaping, and achieving modular-conform volume levels.

Learn to simulate analog output using Pulse Width Modulation on Raspberry Pi GPIO pins. Control LED brightness and explore PWM signals with hands-on demonstrations and practical examples.

Explore LED technology with expert Mike Harrison, covering RGB, dimming, PWM techniques, and practical applications for custom lighting installations and hardware projects.

Learn to program ATmega328p using Pololu 3pi robot, focusing on pulse width modulation for motor control and differential steering. Practical demonstrations included.

Dive into PWM subsystems for embedded devices, covering frameworks, driver implementation, system interfaces, and practical applications.

Explore embedded Rust on Raspberry Pi: control GPIOs, create circuits, and build interactive projects. Perfect for beginners curious about physical computing and hardware interaction.

Explore dead-time switching loss in DC-DC converters, understanding its impact and mitigation strategies for improved power efficiency.

Learn to analyze and minimize output voltage ripple in buck converters, enhancing power supply design skills for improved efficiency and performance.

Learn about different types of pulse width modulators, their characteristics, and applications in power electronics. Gain insights into modulation techniques for efficient control of electrical systems.

Explore Raspberry Pi Pico's capabilities through hands-on experiments with LEDs, switches, analog inputs, OLED displays, and motors using MicroPython. Learn soldering, setup, and practical coding techniques.

Explore connecting simple devices to Linux systems, from Arduino to character LCDs. Learn about userspace drivers, hardware descriptions, and device tree overlays for safe device integration.

Explore JavaScript development on Zephyr OS using JerryScript-based runtime. Learn about API access, rapid development, and implementation on resource-constrained devices like Arduino 101.

Comprehensive guide to GPIO for Arduino and ESP projects, covering digital/analog I/O, logic levels, resistors, PWM, ADC, high current applications, and port expanders with practical examples.

Explore Android Things to build a Reptilian-detecting machine using Raspberry Pi, Arduino, and machine learning. Learn to interact with physical components through specific APIs.

Explore converting an RC car into an autonomous vehicle, covering electronics, sensors, AI, and computer vision. Compare with industry solutions and discuss challenges and ethical dilemmas.