Abstract
The poster investigates the design and performance of a DC-DC Boost Converter, a power electronic converter that produces an output voltage higher than its input. Conventional boost converters, while simple and low-cost, are limited in voltage gain and are better suited for low-voltage applications.
To address these limitations, a switched inductor–assisted modified converter structure is proposed, which achieves higher voltage gain, reduced input current ripple, and improved efficiency. The system is integrated with dual-axis solar trackers to optimise solar energy harvesting by continuously aligning photovoltaic panels with the sun’s position.
The implementation employs an STM32F411VET6 microcontroller, enabling precise real-time motor control of the solar tracker using PWM-driven accuracy. This approach ensures durable panel movement in outdoor conditions and offers potential for smart integration with light/weather sensors and cloud monitoring.
To address these limitations, a switched inductor–assisted modified converter structure is proposed, which achieves higher voltage gain, reduced input current ripple, and improved efficiency. The system is integrated with dual-axis solar trackers to optimise solar energy harvesting by continuously aligning photovoltaic panels with the sun’s position.
The implementation employs an STM32F411VET6 microcontroller, enabling precise real-time motor control of the solar tracker using PWM-driven accuracy. This approach ensures durable panel movement in outdoor conditions and offers potential for smart integration with light/weather sensors and cloud monitoring.
| Original language | English |
|---|---|
| Publication status | Published - 1 Apr 2025 |
