Integrative Study on Combining Drones with Inverters
DOI:
https://doi.org/10.54097/2jb4dn70Keywords:
UAV, Convert, Thyristor, Insulated Gate Bipolar Transistor (IGBT), Silicon Controlled Rectifier (SCR).Abstract
Drones were initially predominantly used in military contexts, but in recent times, their applications have expanded widely across various sectors, undergoing continual refinement and advancement. Among these applications, inverters play a crucial role as an integral component of drones. Their function involves converting, integrating, and optimizing diverse electrical energy types to ensure the smooth operation of various onboard systems, consequently boosting flight performance and efficiency. This study aims to delve into the operational principles of inverters, identify current challenges, and propose enhancement strategies. Leveraging the fundamental electrical properties of controllable silicon rectifiers (SCR), a novel inverter capable of converting direct current (DC) to alternating current (AC) is devised herein. Advanced PWM techniques and field-effect transistors such as IGBTs are utilized, and the circuit schematic is simulated using Matlab. Research outcomes reveal that the enhanced inverter demonstrates superior efficiency, thus elevating drone performance. Furthermore, this paper suggests avenues for optimizing efficiency and refining waveform analysis. These insightful findings are poised to inform future research endeavors and facilitate further advancements in product design.
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