Flexibility in electrical distribution networks

Flexibility in electrical distribution networks
Flexibility in electrical distribution networks
This line is not associated to any technological center
Advanced control algorithms for planning in hybrid power grids

At our center we are dedicated to the development of technologies to achieve flexibility in electricity distribution networks. Our goal is to promote the transition to a more efficient, sustainable and adaptable electricity system to meet new energy demands.
Our research focuses on the development of advanced control algorithms for the optimal planning of hybrid energy networks (coupling sector), distributed and with storage. These algorithms allow us to optimize the operation and use of energy resources, integrating renewable energy sources, storage systems and distribution networks.
In addition, we research and develop algorithms for the prediction and control of flexible demand, demand response and participation in energy markets. This allows us to efficiently manage the flexibility of electrical load sets and industrial processes, providing users with the opportunity to provide ancillary services and participate in future flexibility markets.
Another important aspect of our research in algorithms for observability and reconfiguration of the power grid. We develop algorithms and tools that allow us to intelligently monitor and control the grid, ensuring its optimal operation and guaranteeing the quality and reliability of the power supply.
We also focus on the management of energy communities, seeking to optimize their operation and encourage the active participation of users in the generation and consumption of renewable energy. This involves developing advanced tools and strategies that enable efficient, equitable and sustainable management of energy resources at the community level.
Finally, we apply advanced artificial intelligence (AI), machine learning (ML) and deep learning (DL) technologies in the management, operation and maintenance of buildings. We use decision support systems based on these technologies, which allow us to improve energy efficiency, comfort and sustainability in buildings.

PROBLEMS IT SOLVES

Our work addresses various issues related to flexibility in electricity distribution networks. We work on the development of optimal management systems for microgrids with renewable generation and battery storage. This allows us to efficiently integrate renewable energy sources into the grid, reducing dependence on fossil fuels and promoting the transition to a more sustainable energy matrix.
In addition, we face the challenge of integrating electric microgrids with thermal grids and in the hybridization of battery systems, enabling joint and efficient management of electric and thermal energy. This gives us the opportunity to maximize energy efficiency and optimize the use of available resources.
Our solutions also focus on managing the flexibility of electrical load sets and industrial processes. We seek to leverage this flexibility to provide users with ancillary services and participate in flexibility markets, contributing to the stability and efficiency of the overall power system.
In addition, we develop digital battery twins and predictive models of renewable generation and energy demand. These tools allow us to simulate and predict the behavior of energy systems, facilitating decision making and operation optimization.
Finally, we work on modeling the electrical distribution network and developing algorithms to optimize its operation. This helps us to meet the challenges associated with the growing complexity and variability of the power grid, ensuring its stability, reliability and efficiency.

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