Agentic AI for Scientific Workflows
Training agents to reason, plan, call domain tools, and improve scientific workflows through reinforcement learning and structured feedback.
I am working at the intersection of generative AI, reinforcement learning, agentic systems, diffusion models, and subsurface imaging.
My work combines modern AI with physics-based modeling to solve hard inverse problems in geoscience. I focus on generative modeling, reinforcement learning, multimodal AI, and agentic workflows that can reason over scientific tools, simulations, and domain knowledge.
I have worked across energy technology and applied research, developing methods for seismic imaging, full-waveform inversion, low-frequency extrapolation, scientific foundation models, and AI-assisted subsurface interpretation.
Training agents to reason, plan, call domain tools, and improve scientific workflows through reinforcement learning and structured feedback.
Using learned priors, score-based methods, probability-flow ODEs, and posterior guidance to solve seismic and imaging inverse problems.
Combining wave physics with learned geological priors for velocity model building, full-waveform inversion, LSRTM, and interpretable seismic imaging.
Learning reusable representations for seismic data and subsurface models through transformers, self-supervised learning, multimodal learning, and generative pretraining.
Deterministic posterior sampling with probability-flow ODE solvers for faster, more stable inverse imaging under physical forward operators.
Research →End-to-end agent training workflows spanning data curation, supervised finetuning, reward design, RL optimization, evaluation, and deployment.
Overview →Geological model generation and editing with diffusion priors for salt-body interpretation, inpainting, structural constraints, and seismic inversion.
Details →Applied deep reinforcement learning to large-scale field development optimization with deployment-oriented constraints and domain simulations.
Case study →Score priors, conditional sampling, PF-ODE solvers, and physics guidance.
Policy optimization, reward modeling, tool use, evaluation, and reasoning.
Inverse methods for sparse seismic acquisition and complex wave propagation.
Attention U-Nets, deep preconditioners, representation learning, and optimization.
Generative priors, posterior guidance, and probability-flow ODE acceleration.
How data, reward design, RL algorithms, tools, and evaluation fit together.
Hands-on teaching and mentoring on modern AI systems and scientific applications.