Development of hybrid renewable energy for maximum power transfer for distributed computing

Abstract

A crucial role for both energy storage and gas will mitigate the unpredictability inherent in renewable energy sources. A rapidly-escalating trend toward substituting renewable energy resources (RES) for fossil fuels (FCs) is part of societal change and progression. RES is the primary target of the new energy internet since it's meant to help diversify away from old fossil fuel energy sources while also increasing RES energy efficiency to the full degree. RES is often abandoned in northern China, particularly in the warm season. While most people today utilize severely filthy coal-fired heating, clean-burning natural gas is increasing in popularity. In contrast to a carbon-based heating system, a clean heating system employs surplus RES, replaced by carbon-based means to satisfy heat demand. The usage of dependable heating services, distributed heat storage devices, and thermal power support must provide stable and consistent home heating. More advanced versions of this technology would result in wasteful use of resources since they include a combined electricity-heat energy system, which may be bigger or smaller. The research provides an optimum planning approach to maximize the size of clean heat and electrical heating devices and thermal storage devices while also reducing fossil energy use. The Western Inner Mongolia Power Grid simulation finally depicts the operational conditions and optimization findings of the system. It appears extremely necessary to raise the rate of renewable energy utilization and maximize economic income currently. This study suggests a strategy for using renewable energy as a valuable tool in organizing and controlling a complex energy mix. According to empirical research, the optimization approach successfully reduces microgrid costs while increasing renewable energy utilization.