Posted by Rising demand, outdated infrastructure, and the incorporation of renewable energy sources are some of the major obstacles confronting the world’s energy sector. With the rise of smart grids and the optimization of renewable energy, data analytics has emerged as an essential tool for tackling these difficulties.
Energy firms can improve energy efficiency, availability, and cost by implementing smart grids and renewable energy solutions through data-driven approaches. By combining knowledge from the energy industry with data analytics, data analytics provides practical answers to these energy problems.
Integration of Renewable Energy Sources and the Rising Need for Smart Grids
The unpredictability of renewable power sources like solar and wind is presently too much for conventional power systems to manage. Taking care of this problem is becoming more essential as the energy industry moves toward more environmentally friendly options.
In their article “Smart Grid Technologies: Communication Technologies and Standards” published in the IEEE Transactions on Industrial Informatics, Gungor et al. (2013) emphasize the need of real-time grid monitoring and control in guaranteeing the smart grid’s dependable and economic functioning.
By allowing real-time monitoring and dynamic modification of grid operations, smart energy grids—which incorporate modern sensors, communication networks, and data analytics—offer a solution. Improving grid performance, failure prediction, and dependability requires integrating data analytics into these systems.
Data-Driven Solutions for Improving Grid Reliability
“Equipment failures are a major concern in power systems, as they can lead to cascading failures, power outages, and significant economic losses,” state Sun et al. (2016) in A Review on Distributed Energy Storage Systems for Smart Grid Applications (Energies). One of the main advantages of data analytics in energy grids is its capacity to improve reliability by predicting and preventing equipment breakdowns. This is demonstrated here. Reducing maintenance costs and unplanned outages is possible with predictive maintenance, which uses data acquired from grid components in real-time. Operators can take precautions before problems worsen by analyzing real-time and historical data with machine learning algorithms to identify trends that may indicate equipment failure.
Efficiently Integrating Renewable Energy Sources
Although they are crucial for long-term viability, renewable energy sources pose special difficulties because of their intermittent nature and inherent unpredictability. Better prediction of renewable energy production and optimization of energy storage and delivery are two ways in which data analytics overcomes these obstacles.
One example is a small-scale solution that combines solar and wind power into one convenient package; it was developed by the French startup Unéole. This system can generate power continuously and provides 40% more energy than a solar system alone. It does this by combining several wind turbines under a photovoltaic roof.
And a US-based startup called Aeromine has come up with a device that uses wind turbines that are three meters tall and don’t have any moving parts outside of them. Perched atop rooftops, Aeromine harnesses the wind’s natural kinetic energy to power buildings. The company asserts that the system generates 50% more power than other sustainable alternatives by directing rapidly rising air past an internal turbine, made possible by the system’s aerodynamic fins.
Maximizing Integration Efficiency through the Use of Predictive Models
Bessa et al. (2011) write in Time Adaptive Conditional Kernel Density Estimation for Wind Power Forecasting (IEEE Transactions on Sustainable Energy, 2(1), 84–93) that advanced forecasting and scheduling tools can help increase the efficiency of the grid by letting utilities better predict and manage the changes in renewable energy output. This means that backup power sources are not needed as much and the grid works better overall.
Grid operators can make necessary adjustments to energy storage and distribution with the use of reliable forecasting models that take meteorological data and past performance into account to anticipate the output of renewable energy sources.
Smart Grid Data Storage and Cloud Computing
An ever-growing need for safe, scalable data storage solutions is driving the evolution of smart grids. The scalability and adaptability offered by cloud computing platforms like Amazon Web Services (AWS), Microsoft Azure, Cisco, IBM, Oracle, and many more are essential for managing the enormous volumes of data produced by smart grids and renewable energy systems.
“The smart grid generates a vast amount of data from various sources such as smart meters, sensors, and IoT devices,” emphasise Gupta and Srivastava (2017) in Data Management in Smart Grids: A Review (IEEE Transactions on Industrial Informatics). To deal with such a massive amount of data, effective data storage and administration are essential. By utilizing data-driven insights, energy businesses may optimize grid performance and integrate renewable energy sources effectively. These platforms offer advanced analytics.
To tackle the problems caused by renewable energy sources and old grid infrastructure, data analytics must be integrated into the energy sector. Energy providers may maximize the integration of renewable energy sources, boost grid resilience, and increase overall efficiency by utilizing data-driven methodologies.
Data analytics will play an increasingly important role in improving grid performance and integrating renewable energy sources to secure a robust and sustainable energy future as the energy industry undergoes further transformation.
Dfggh
Jjkkk