Effective demand response gathering and deployment in smart grids for intensive renewable integration using aggregation and machine learning

  1. Costa da Silva, Catia Vanessa
Dirixida por:
  1. Juan Manuel Corchado Rodríguez Director
  2. Pedro Nuno Silva Faria Co-director

Universidade de defensa: Universidad de Salamanca

Fecha de defensa: 22 de setembro de 2023

Tribunal:
  1. Hugo López Fernández Presidente
  2. Sara Rodríguez González Secretario/a
  3. Hugo Morais Vogal

Tipo: Tese

Teseo: 823112 DIALNET lock_openTESEO editor

Resumo

Distributed generation, namely renewables-based technologies, have emerged as a crucial component in the transition to mitigate the effects of climate change, providing a decentralized approach to electricity production. However, the volatile behavior of distributed generation has created new challenges in maintaining system balance and reliability. In this context, the demand response concept and corresponding programs arise giving the local energy communities prominence. In demand response concept, it is expected an empowerment of the consumer in the electricity sector. This has a significant impact on grid operations and brings complex interactions due to the volatile behavior, privacy concerns, and lack of consumer knowledge in the energy market context. For this, aggregators play a crucial role addressing these challenges. It is crucial to develop tools that allow the aggregators helping consumers to make informed decisions, maximize the benefits of their flexibility resources, and contribute to the overall success of grid operations. This thesis, through innovative solutions and resorting to artificial intelligence models, addresses the integration of renewables, promoting fair participation among all demand response providers. The thesis ultimately results in an innovative decision support system - MAESTRO, the Machine learning Assisted Energy System management Tool for Renewable integration using demand respOnse. MAESTRO is composed by a set of diversified models that together contribute for handling the complexity of managing energy communities with distributed generation resources, demand response providers, energy storage systems and electric vehicles. This PhD thesis comprises a comprehensive analysis of state-of-the-art techniques, system design and development, experimental results, and key findings. In this research were published twenty-six scientific papers, in both international journals and conference proceedings. Contributions to international projects and Portuguese projects was accomplished.