AI-Driven Sustainable Energy Systems: Smart Grids, Homeostatic Control, and Distributed Resource Optimization

A special issue of Processes (ISSN 2227-9717). This special issue belongs to the section "Energy Systems".

Deadline for manuscript submissions: 30 October 2026 | Viewed by 855

Special Issue Editor


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Guest Editor
Facultad de Ingeniería, Universidad Finis Terrae, Providencia 7501014, Chile
Interests: sustainable energy systems; energy homeostasis; smart grid; electricity distribution service quality; distributed energy resources; energy management; power control systems
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Special Issue Information

Dear Colleagues,

The global transition toward sustainable energy systems is accelerating in response to climate change, increasing electrification, and the large-scale integration of distributed renewable energy resources. However, this transition introduces unprecedented operational complexity into modern power systems—essentially cyber–physical systems, and with this, it also increases the vulnerability risk of the smart grid. The proliferation of distributed energy resources (DERs), bidirectional power flows, prosumers, electric vehicles, microgrids, and storage systems challenges the traditional centralized grid paradigm. Artificial Intelligence (AI) has emerged as a transformative enabler for addressing these complexities. Advanced machine learning algorithms, deep learning architectures, reinforcement learning frameworks, and data-driven optimization techniques now allow power systems to operate in adaptive, predictive, and self-regulating modes. In particular, AI supports the development of homeostatic energy systems—grids capable of maintaining dynamic equilibrium through real-time monitoring, anomaly detection, autonomous decision-making, and distributed control actions. Thus, smart grids empowered by AI can enhance resilience, improve energy efficiency, enable predictive maintenance, and facilitate optimal coordination of distributed resources such as Virtual Power Plants (VPPs), microgrids, battery energy storage systems (BESS), and renewable generation units. Furthermore, AI-driven optimization supports economic dispatch, demand response management, voltage and frequency stability, and cyber–physical security in increasingly digitalized energy infrastructures.

This Special Issue seeks high-quality theoretical, methodological, and applied contributions that explore AI-based solutions for sustainable, intelligent, and resilient energy systems. Submissions may address foundational algorithms, system architectures, control strategies, optimization techniques, real-world case studies, or interdisciplinary approaches integrating engineering, economics, and sustainability science. Particular emphasis is placed on energy homeostasis and homeostatic control mechanisms, distributed intelligence, and scalable optimization frameworks capable of supporting the energy transition while ensuring reliability, affordability, and environmental sustainability.

Topics include, but are not limited to, the following:

  • AI-based control and optimization in smart grids;
  • Machine learning for anomaly detection and fault diagnosis;
  • Homeostatic and self-healing grid architectures;
  • Virtual Power Plants (VPPs) and distributed resource coordination;
  • Reinforcement learning for energy dispatch and demand response;
  • Cyber–physical systems and grid resilience;
  • AI-driven forecasting for renewable integration;
  • Edge computing and distributed intelligence in power systems;
  • Multi-agent systems for energy management;
  • Sustainable energy market design supported by AI.

Prof. Dr. Franco F. Yanine
Guest Editor

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Keywords

  • artificial intelligence
  • smart grids
  • homeostatic control
  • distributed energy resources (DERs)
  • cyber-physical systems
  • virtual power plants (VPPs)
  • machine learning
  • energy optimization
  • grid resilience
  • sustainable energy systems

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Published Papers (1 paper)

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24 pages, 1718 KB  
Article
A Meta-Pipeline for Artificial Intelligence-Driven Homeostatic Control and Distributed Resource Optimization in Sustainable Energy Systems
by Mauricio Hidalgo, Franco Fernando Yanine and Sarat Kumar Sahoo
Processes 2026, 14(7), 1123; https://doi.org/10.3390/pr14071123 - 31 Mar 2026
Viewed by 605
Abstract
The transition toward sustainable energy systems is increasing the operational complexity of modern power grids due to the high penetration of renewable energy sources, distributed energy resources, and bidirectional energy flows. Artificial intelligence has emerged as a key enabling technology for forecasting, optimization, [...] Read more.
The transition toward sustainable energy systems is increasing the operational complexity of modern power grids due to the high penetration of renewable energy sources, distributed energy resources, and bidirectional energy flows. Artificial intelligence has emerged as a key enabling technology for forecasting, optimization, and control in smart grids. Current AI implementations in energy systems lack unified workflows integrating forecasting, decision-making, adaptive stability regulation, and distributed coordination. Moreover, existing control approaches rarely incorporate biologically inspired stability mechanisms such as homeostatic regulation, limiting system-level resilience under dynamic operating conditions. This work aims to develop an architectural framework in the form of a unified artificial intelligence meta-pipeline enabling homeostatic control and distributed resource optimization in sustainable energy systems through closed-loop intelligent operation. A layered artificial intelligence meta-pipeline architecture is proposed integrating system representation, data intelligence, decision intelligence, homeostatic feedback regulation, and distributed coordination. A formal Homeostatic Energy Index is introduced to quantify system stress and enable supervisory adaptive policy regulation. The framework is validated using a reproducible microgrid-level simulation combining reinforcement learning-based control with homeostatic feedback regulation. Experimental validation demonstrates stable closed-loop operation under stochastic demand and renewable variability. The framework maintains bounded system stress levels, achieving an average Homeostatic Energy Index of 18.17 while preserving near-zero energy imbalance performance, confirming that homeostatic feedback improves stability without degrading energy balancing performance. This work introduces a unified artificial intelligence meta-pipeline architectural framework and formally defines a homeostatic feedback layer for sustainable energy system control. The proposed approach enables stability-aware structured integration of heterogeneous AI components and provides a foundation for self-adaptive, resilient, and distributed intelligent energy systems. Full article
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