
Provide a theoretical overview of interleaved boost converter, focusing on phase operation, parasitics, and duty-cycle calculations for 42 V to 50 V with 54 Ω load at 100 kHz.
Review the dual-phase interleaved boost converter schematic, including input/output ferrite cores for EMI reduction, a 200 microhenry inductor, MOSFETs, Schottky diode, and voltage/current sensing feeding the nuclear development board.
Outline the hardware of the interleaved boost converter, detailing phase one and phase two MOSFETs, inductors, diodes, input/output filters, and the test setup with the nuclear F1 development board.
Initialize the adc and pwm peripherals for an interleaved boost converter. Configure dma for adc sampling and set timer1 and timer3 for 100 khz pwm with timer4 interrupts for control.
Learn hysteresis control for an interleaved boost converter using fixed-point arithmetic, with PWM duty tuning, V scale calculations, and 12-bit ADC scaling from a resistive divider.
Design a pi controller for an interleaved boost converter, merge two plants into a super plant, set 800 rad/s crossover and 90 degree phase margin, and derive firmware coefficients.
Develop a pi controller firmware for an interleaved boost converter on STM32, computing output voltage from adc, error, and clamped pwm duty using fixed-point coefficients.
Analyze the interleaved boost converter’s voltage and current stress, duty cycle, and its minimum capacitor and inductance via Matlab, and compare hysteresis and Pi controllers for closed-loop control.
Explore the world of power electronics with the comprehensive course on the implementation of an Interleaved Boost Converter using the Nucleo-F401RE development board. This course offers a detailed journey from fundamental principles to practical application, ensuring participants gain a robust understanding of converter design and implementation.
Participants will start by exploring fundamental concepts and key equations necessary for designing an efficient Interleaved Boost Converter. Moving forward, they will gain hands-on experience with STM32CubeIDE, learning to develop firmware that achieves precise Voltage Mode Control using the hysteresis method.
The course delves further into advanced control systems design by introducing the creation of a PI controller in MATLAB. Participants will learn to generate accurate digital controller coefficients and integrate them into their STM32 firmware, mastering the complete process of implementing Voltage Mode Control on the Nucleo-F401RE.
Ideal for electrical engineering students, hobbyists, and professionals eager to deepen their expertise in power electronics and control systems, this course recommends a basic understanding of electronics and microcontroller programming. However, step-by-step instructions ensure participants build confidence and competence at every stage.
Whether an aspiring engineer, a seasoned professional, or simply passionate about electronics, this course equips participants with the skills to design and control an Interleaved Boost Converter. By blending theoretical knowledge with hands-on application, participants will harness the capabilities of the STM32 microcontroller and MATLAB, elevating proficiency in power converter design. Join to master the art of power electronics with the STM32 Nucleo.