Microgrids, a transformative concept in the energy sector, are emerging as autonomous and small-scale dominating power systems that aim to reduce our reliance on large-scale transmission lines, enhancing energy efficiency. Localized generation and usage underpin the functionality of microgrids, characterizing a shift towards decentralized energy deployment. Extensive research has concluded that microgrids can regulate electricity usage effectively across diverse sources, potentially offering energy transition solutions under varied conditions. However, gaps persist in understanding the robustness, stability of these systems, their efficient integration of renewable energy, and practical storage solutions. The intricacies of digital inter-grid communication and developing scalability methods also warrant further examination, underlining the need for comprehensive research in this field.
This research topic aims to bridge the existing gaps in understanding the complexities and nuances of microgrid systems. Specifically, the main objective is to explore topics related to the robustness and stability of these autonomous power systems. We aim to uncover efficient methodologies for the integration of renewable energy within these grid frameworks and the development of practical energy storage solutions. Additionally, we intend to scrutinize the role of digital pathways in facilitating efficient inter-grid communication, with a focus on the feasibility of various scalability models for broader microgrid implementation. By delving into these critical aspects, we strive to uncover valuable insights that could potentially revolutionize the design, performance, and application of microgrids, thereby driving greater energy efficiency and sustainability on a global scale. Ultimately, exploring these domains could illuminate the path towards a more resilient, efficient, and sustainable energy landscape.
To garner a deeper comprehension of the transformations in the energy sector, we welcome researchers and experts in engineering and computer sciences to contribute their novel findings to this research topic on microgrid systems. The research should encompass, but is not strictly limited to, the following themes:
• Optimization strategies for demand response in smart grids to balance power supply and demand dynamically.
• Understanding the critical role and potential of Artificial Intelligence and Machine Learning in augmenting grid resilience and stability.
• Evaluating the evolving capacities of energy storage systems in smart grids and their significance.
• Detailed scrutiny of the operational, design, and control mechanisms within AC, DC, and AC-DC hybrid microgrids.
• Investigations into the adaptive recovery protocols in smart grids, with a central focus on black start procedures.
• Assessing the effectiveness of advanced control methods in managing microgrid operations.
• A synopsis of the current state-of-art in microgrid technology, encapsulating the ongoing progress, identifying key trends, and mapping potential future research directions.
Keywords:
AC and DC microgrid systems, digitization of the electrical grid, energy storage technologies, load management, microgrids and sustainable communities, renewable technologies, risk prevention, smart grid cyber security
Important Note:
All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.
Microgrids, a transformative concept in the energy sector, are emerging as autonomous and small-scale dominating power systems that aim to reduce our reliance on large-scale transmission lines, enhancing energy efficiency. Localized generation and usage underpin the functionality of microgrids, characterizing a shift towards decentralized energy deployment. Extensive research has concluded that microgrids can regulate electricity usage effectively across diverse sources, potentially offering energy transition solutions under varied conditions. However, gaps persist in understanding the robustness, stability of these systems, their efficient integration of renewable energy, and practical storage solutions. The intricacies of digital inter-grid communication and developing scalability methods also warrant further examination, underlining the need for comprehensive research in this field.
This research topic aims to bridge the existing gaps in understanding the complexities and nuances of microgrid systems. Specifically, the main objective is to explore topics related to the robustness and stability of these autonomous power systems. We aim to uncover efficient methodologies for the integration of renewable energy within these grid frameworks and the development of practical energy storage solutions. Additionally, we intend to scrutinize the role of digital pathways in facilitating efficient inter-grid communication, with a focus on the feasibility of various scalability models for broader microgrid implementation. By delving into these critical aspects, we strive to uncover valuable insights that could potentially revolutionize the design, performance, and application of microgrids, thereby driving greater energy efficiency and sustainability on a global scale. Ultimately, exploring these domains could illuminate the path towards a more resilient, efficient, and sustainable energy landscape.
To garner a deeper comprehension of the transformations in the energy sector, we welcome researchers and experts in engineering and computer sciences to contribute their novel findings to this research topic on microgrid systems. The research should encompass, but is not strictly limited to, the following themes:
• Optimization strategies for demand response in smart grids to balance power supply and demand dynamically.
• Understanding the critical role and potential of Artificial Intelligence and Machine Learning in augmenting grid resilience and stability.
• Evaluating the evolving capacities of energy storage systems in smart grids and their significance.
• Detailed scrutiny of the operational, design, and control mechanisms within AC, DC, and AC-DC hybrid microgrids.
• Investigations into the adaptive recovery protocols in smart grids, with a central focus on black start procedures.
• Assessing the effectiveness of advanced control methods in managing microgrid operations.
• A synopsis of the current state-of-art in microgrid technology, encapsulating the ongoing progress, identifying key trends, and mapping potential future research directions.
Keywords:
AC and DC microgrid systems, digitization of the electrical grid, energy storage technologies, load management, microgrids and sustainable communities, renewable technologies, risk prevention, smart grid cyber security
Important Note:
All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.