Research on the Construction of Parallel Power Supply Hardware Platform of Intelligent and Regulated Switching Power Supply Module Based on Single Chip Microcomputer

In the realm of parallel-powered intelligent, regulated switching power modules, the significance of a hardwired platform structure cannot be understated. However, this approach often grapples with imprecision in result evaluation. PAC falls short in addressing these structural issues within such parallel power configurations, revealing inherent flaws. To address this, we introduce an analysis leveraging a microcontroller to dissect the architecture of the hardwired platform in question. Initially, the analog circuit theory is employed to design the switching power supply. Based on the specific needs of the hardwired platform, metrics are segmented to minimize disruptions during platform assembly. Subsequently, using analog circuit principles, a parallel arrangement's hardwired platform for the intelligent, regulated power module is devised, establishing a comprehensive blueprint for the hardwired setup. A thorough examination of the constructed platform's outcomes is then conducted. MATLAB simulations confirm that, adhering to set construction benchmarks, the microcontroller-driven connection of the power module to the parallel-configured power supply outperforms PAC in terms of construction precision and duration for the hardwired platform.

I. Introduction

The fixed platform structure is a crucial part of the parallel power supply system in the intelligent adjustable switching power module [1], and it holds significant relevance to university students' development [2]. Yet, during the construction of this hardwired platform [3], there is an issue with its precision, leading to financial losses for the parallel power supply in these smart voltage-regulated switch power modules [4]. Certain scholars suggest that using a single-chip microcomputer can effectively evaluate the parallel power supply in smart voltage-stabilized switch power modules. This could provide vital support for the hardwired platform's construction plan [5]. Based on this, the paper proposes employing a single-chip microcomputer to refine the hardwired platform's design and to confirm the model's efficacy.