PowerGenie: Analytically-Guided Evolutionary Discovery of Superior Reconfigurable Power Converters
Jian Gao, Yiwei Zou, Abhishek Pradhan, Wenhao Huang, Yumin Su, Kaiyuan Yang, Xuan Zhang

TL;DR
PowerGenie is an automated framework that uses analytical and evolutionary methods to discover high-performance reconfigurable power converters, achieving significant efficiency improvements over existing designs without extensive simulations.
Contribution
It introduces a novel analytical approach for performance prediction and an evolutionary finetuning method for large-scale topology discovery in power converters.
Findings
Discovered a novel 8-mode reconfigurable converter with 23% higher FoM.
Achieved average efficiency gains of 10% across modes.
Outperformed existing methods in validity, novelty, and performance metrics.
Abstract
Discovering superior circuit topologies requires navigating an exponentially large design space-a challenge traditionally reserved for human experts. Existing AI methods either select from predefined templates or generate novel topologies at a limited scale without rigorous verification, leaving large-scale performance-driven discovery underexplored. We present PowerGenie, a framework for automated discovery of higher-performance reconfigurable power converters at scale. PowerGenie introduces: (1) an automated analytical framework that determines converter functionality and theoretical performance limits without component sizing or SPICE simulation, and (2) an evolutionary finetuning method that co-evolves a generative model with its training distribution through fitness selection and uniqueness verification. Unlike existing methods that suffer from mode collapse and overfitting, our…
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Taxonomy
TopicsEvolutionary Algorithms and Applications · Embedded Systems Design Techniques · Low-power high-performance VLSI design
