GaN power electronics converters for hybrid renewable energy systems

全世界正在共同努力，从可再生能源中产生更大比例的能源，并建立新的分散式智能电力基础设施或微电网。储能技术在高效微电网运行中发挥着关键作用。微电网的成功关键取决于包括风力涡轮机、太阳能电池板、电池、燃料电池和电力电子转换器在内的混合动力系统的发展。拟议的研究计划侧重于开发基于氮化镓（GaN）的新型电力电子转换器拓扑结构，可显著降低混合可再生能源系统的损耗并提高功率密度。所提出的研究的创新性在于现有的转换器拓扑结构和控制技术的独特性，建议的替代品。主要重点是设计最少的组件，高效和非常高的开关电路拓扑结构和数字控制技术，使成本效益和紧凑的电源转换器设计。该研究具有重要的学术意义和产业价值。HQP将接受培训，并将开发下一代电力电子技术，用于设计具有存储能力的高效，紧凑和具有成本效益的可再生能源系统。

A concerted effort is being made worldwide to generate a larger proportion of energy from renewable energy sources and to build new decentralized smart power infrastructures or 'microgrids.' Energy storage technologies play a critical role in efficient microgrid operation. The success of microgrids depends critically upon the development of hybrid power systems comprising wind turbines, solar panels, batteries, fuel cells and power electronics converters. The proposed research program focuses on development of new gallium nitride (GaN) based power electronics converter topologies with significantly reduced losses and increased power density for hybrid renewable energy systems. The innovative character of the proposed research lies in the uniqueness of the proposed alternatives to existing converter topologies and control techniques. The main emphasis is to devise minimum-components, highly-efficient and very-high switching circuit topologies and digital control techniques that enable cost-effective and compact power converter designs. The proposed research exemplifies academic significance and industrial importance. HQP will be trained and next generation power electronics technologies will be developed for practical use in designing efficient, compact and cost-effective renewable energy systems with storage capability.