From Data to Decisions: AI-Driven Production Forecasting, Optimization, and Proactive Well Management
Friday, 23 October
Room 362 CF
Technical Session
This session explores the application of artificial intelligence and physics-informed machine learning to production forecasting, optimization, and proactive well operations. Topics span physics-constrained neural networks for multi-horizon decline curve analysis, large language models for gas network optimization, transformer and diffusion-based anomaly detection, and PINN-driven equation discovery for unconventional reservoirs. The session also addresses intelligent early warning systems for stuck-pipe incidents, distributed acoustic sensing for flow allocation, and surrogate-assisted history matching and uncertainty quantification. Together, these contributions highlight the industry's progression from reactive monitoring toward predictive, physics-aware decision-making across the full production lifecycle.
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1400-1425 233871From Reactive to Proactive: A Physics-Guided Cross-Well Knowledge Coupling Framework for Stuck-Pipe Early Warning
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1425-1450 233821Bridging Arps Decline Theory And Deep Learning: A Physics-Constrained Neural Network Framework for Multi-Horizon Production Forecasting Across 864 Tight-Gas Wells in the Piceance Basin
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1450-1515 234118A Physics-Informed, Retrieval-Augmented Industrial Agent for Early Opportunity Detection and Operational Support in Offshore Gas Networks
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1515-1540 234057Accelerating Field Development Planning With Generative AI: A Transformer-based Framework
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1540-1605 233964A Quantum Computing Framework for DAS Flow Allocation Using Full-Waveform Inversion
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1605-1630 234030Surrogate-assisted Iterative Ensemble Smoothing: An Lstm “Simulator Twin” For Fast, Robust History Matching And Uncertainty Quantification


