Solar Energy Profiles for a Blockchain-based Energy Market

Abstract

In order to accommodate the growing amounts of integrated renewable production, including wind and solar PV, energy networks are undergoing significant adjustments. In recent years, the growth of renewable energy sources (RES) has been greatly accelerated thanks to the privatization and deregulation of the energy industry, as well as financial incentives and energy policy measures. As decentralized energy generation is developed through residential and commercial PV applications, a new position described as an energy prosumer is produced. The traditional division between energy users and producers is eliminated as a result. Blockchain technology automate direct energy transactions inside a distributed system architecture based on consensus-based verification and cryptographic hashing, providing utilities, prosumers, and consumers with a one-of-a-kind, cost-effective, and secure energy-trading system. The objective of this project is to implement a general ABM simulation framework for energy exchange and demonstrate the operation of any blockchain process as well as the expected power profiles of homes. A robust multi-agent structure was constructed and simulated for a Transactive Energy (TE) type Distributed Energy Resources (DER) within the ECCH microgrid that is dependent on blockchain engineering. Auction systems are used in recent blockchain-based LEM plans to balance supply and demand in the future. These blockchain-based LEMs rely on accurate short-term forecasts of the energy generation and consumption of particular homes as a consequence. Such accurate estimations are usually only assumed. In the present study, this assumption was tested by first evaluating the forecast accuracy that can be obtained for particular families using state-of-the-art energy forecasting methods, and then by examining the effects of prediction mistakes on market outcomes in three alternative supply scenarios. The evaluation showed that an LSTM model may provide rather little predicting errors. The prediction process will be modified to fit the design of a blockchain-based LEM. Because of this, the current study differs greatly from past investigations that make a thorough effort to predict the time sequence of smart meters generally.