Piezoelectric-Based Power Conversion: Recent Progress, Opportunities, and Challenges

J. D. Boles, J. J. Piel, Ng Elaine, Joseph E. Bonavia, J. Lang, D. Perreault
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引用次数: 9

Abstract

Pursuits of miniaturization, greater performance, and lower cost for power electronics necessitate advancement of power passive component technologies. While wide-bandgap semiconductor devices and advanced control techniques have enabled substantial size and performance improvements, miniaturizing power electronics remains bottlenecked by the passive components dominating their sizes, particularly magnetics (i.e., inductors and transformers). Magnetic components pose fundamental power handling and efficiency challenges at small scales, amounting to lower power densities at low volume [1]–[3]. On the other hand, switched capacitor converters have achieved record-breaking power densities and efficiencies, but these architectures still require magnetics for efficient voltage regulation. While several miniaturization strategies have been developed despite the limitations of magnetics (e.g., higher switching frequencies, more sophisticated circuit topologies and operating techniques, and improved magnetic designs), they ultimately still face the same scaling impediments. This motivates investigation into alternative passive component technologies for power conversion that can provide the same high-level functionalities as magnetics but with superior scalability to small sizes.
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基于压电的功率转换:最新进展、机遇和挑战
追求电力电子器件的小型化、更高的性能和更低的成本要求电力无源元件技术的发展。虽然宽带隙半导体器件和先进的控制技术已经实现了大幅的尺寸和性能改进,但电力电子器件的小型化仍然受到无源元件的限制,特别是磁性元件(即电感器和变压器)。磁性元件在小尺寸下带来了基本的功率处理和效率挑战,相当于小体积下的低功率密度[1]-[3]。另一方面,开关电容转换器已经实现了破纪录的功率密度和效率,但这些架构仍然需要磁性来实现有效的电压调节。虽然已经开发了几种小型化策略,尽管有磁性的限制(例如,更高的开关频率,更复杂的电路拓扑和操作技术,以及改进的磁性设计),但它们最终仍然面临相同的缩放障碍。这激发了对电源转换的替代无源元件技术的研究,这些技术可以提供与磁性相同的高级功能,但具有小尺寸的卓越可扩展性。
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