Advanced Graph–Physics Hybrid Framework (AGPHF) for Holistic Integration of AI-Driven Graph- and Physics- Methodologies to Promote Resilient Wastewater Management in Dynamic Real-World Conditions

Wastewater treatment is evolving rapidly with the advent of advanced deep-learning AI, graph-based, and physics-informed approaches. This study integrates graph neural networks, physics-informed neural networks, and multi-agent reinforcement learning within a hybrid digital-twin framework, evaluated on multi-scale real-world datasets. The developed models achieved over 90% dissolved organic carbon removal and reduced aeration energy by up to 22% while maintaining process stability. The results demonstrate that graph–physics synergies not only boost operational efficiency but also reveal critical trade-offs between energy savings and hydraulic performance. Our findings establish a new benchmark for resilient, low-carbon wastewater treatment, highlighting the transformative role of data-driven system design.

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Publication Details

Journal
Applied Sciences
Published
2025-09-10
DOI
https://doi.org/10.3390/app15189905
Citations
6
Primary Topic
Smart Grid Security and Resilience
Type
article
Field-Weighted Citation Impact
7.29
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article

Advanced Graph–Physics Hybrid Framework (AGPHF) for Holistic Integration of AI-Driven Graph- and Physics- Methodologies to Promote Resilient Wastewater Management in Dynamic Real-World Conditions

George A. Papakostas, Zongliang Yue, Εleni Vrochidou, Clark Xu et al.
6 citations
Applied Sciences
Smart Grid Security and Resilience
7.29
article

Advanced Graph–Physics Hybrid Framework (AGPHF) for Holistic Integration of AI-Driven Graph- and Physics- Methodologies to Promote Resilient Wastewater Management in Dynamic Real-World Conditions

George A. Papakostas, Zongliang Yue, Εleni Vrochidou, Clark Xu, Vasileios Alevizos, George E. Marnellos, Mousa Mustafa, Sabrina Edralin, Nikitas Gerolimos
article en
6 citations

Abstract

Wastewater treatment is evolving rapidly with the advent of advanced deep-learning AI, graph-based, and physics-informed approaches. This study integrates graph neural networks, physics-informed neural networks, and multi-agent reinforcement learning within a hybrid digital-twin framework, evaluated on multi-scale real-world datasets. The developed models achieved over 90% dissolved organic carbon removal and reduced aeration energy by up to 22% while maintaining process stability. The results demonstrate that graph–physics synergies not only boost operational efficiency but also reveal critical trade-offs between energy savings and hydraulic performance. Our findings establish a new benchmark for resilient, low-carbon wastewater treatment, highlighting the transformative role of data-driven system design.

Applied SciencesVol. 15(18)
Mayo Clinic (US), Democritus University of Thrace (GR), University of Illinois Urbana-Champaign (US), Harvard University Press (US), Karolinska Institutet (SE), Cambridge Scientific (United States) (US), Technische Universität Berlin (DE), Auburn University (US), University of the Aegean (GR)
Openalex Percentile: Top 3%
Smart Grid Security and Resilience
7.29
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