Physics-Informed Generative Architectures for Seismic Inversion and Geoenergy
This repository hosts the doctoral research project:
Relational Bias and Multi-Path Reasoning for Physics-Informed GANs (PI-GANs)
The project integrates Generative Adversarial Networks (GANs), Physics-Informed Neural Networks (PINNs), Relational Inductive Biases, and Vectorial Chain-of-Thought (CoT) to address inverse problems in seismic inversion and geoenergy applications.
- Design a Physics-Informed Generative Architecture combining PI-GANs and PINNs.
- Introduce Relational Attention Biases to capture geological connectivity.
- Implement Multi-Path Vectorial Reasoning (CoT) to improve exploration of solution space.
- Validate on benchmark datasets such as OPENFWI.
- Extend to applications in energy exploration, geothermal systems, and CO₂ storage.
- Hybrid framework combining generative modeling and physical PDE constraints.
- Relational inductive bias to encode topological/geological structures.
- Quantized computation (FP4, INT4) for efficiency and scalability.
- Doctoral framework (2025–2028) with planned expansion toward industrial and international applications.
- Academic: Publications in high-impact journals (GJI, Commun. Comput. Phys., The Innovation Energy).
- Industrial: Reduction of seismic inversion costs and improved precision in Tabasco’s energy sector.
- Social: Technology transfer and local talent development in AI + Geoscience.
- International: Positioning within global consortia on AI for Science.
-
Phase 1 (2025–2028): Doctoral Research
- Develop and validate PI-GAN + PINNs architecture.
- Benchmark on OPENFWI datasets.
-
Phase 2 (2028–2030): Technology Transfer
- Application in local reservoir exploration in Tabasco.
- Collaboration with energy industry partners.
-
Phase 3 (2030–2032): International Consolidation
- Expansion to geothermal and CO₂ storage.
- Establishment of a regional AI for Geoscience Hub.
DeepEarthVision/
│── docs/ # Project documentation (proposals, slides, papers)
│── data/ # Links / scripts for OPENFWI and generated datasets
│── src/ # Core source code (models, training, evaluation)
│── notebooks/ # Jupyter notebooks for experiments
│── results/ # Outputs, trained models, and logs
│── figures/ # Diagrams, plots, and visualizations
│── README.md # Global project overview
│── LICENSE # License for use and contributions
- Raissi et al. (2019). Physics-Informed Neural Networks. JCP.
- Jagtap & Karniadakis (2020). XPINNs: Domain Decomposition for PINNs. Commun. Comput. Phys.
- Tronci et al. (2024). Physics-Informed Machine Learning Strategies. Springer
- Wang et al. (2025). PIDL for Geoenergy Development. The Innovation Energy
- Deng et al. (2022). OPENFWI Benchmark Datasets. NeurIPS
👉 This repository is both an academic framework and a living research project evolving with the doctoral journey.