Automata for non-Markovian RL
Learning task automata from data: passive RPNI inference (HiPO), online refinement with confidence-weighted merging (DARP), and automaton feedback and preferences as a reward signal (RLAF).
PhD Candidate · University of Central Florida
I build reinforcement learning agents that learn the structure of long-horizon tasks. They infer automata from experience and use them to plan, transfer and generalize. I come from power systems, and I bring these methods to energy and smart-grid problems.
I am a PhD candidate in Electrical & Computer Engineering at the University of Central Florida, advised by Prof. George Atia in the Data Science Laboratory. My research is in reinforcement learning and neuro-symbolic AI. I study how agents can learn, represent and reuse the temporal structure of tasks whose rewards depend on history (non-Markovian tasks), using deterministic finite automata and reward machines.
My methods include passive and online automaton inference, automaton-based reward shaping and preference feedback, and knowledge distillation for sample-efficient transfer. Recent work adds large language models as a source of symbolic structure. This work has been published at AISTATS, ICASSP, TMLR and NeuS, and was carried out in collaboration with DARPA on transfer learning for autonomous decision-making.
Before ML, I trained as a power systems engineer (MSc, IUST). I worked on optimal scheduling of electric-vehicle charging and discharging in intelligent parking lots, V2G/V2V energy transfer, and battery state-of-charge estimation. That background shapes my current interest in AI for energy systems: I have applied deep RL to real-time energy flexibility in smart building communities and collaborated with Siemens Energy on AI-driven smart grids.
Open to research scientist and ML / RL engineer roles.
Three threads connect my work: learn the structure, use it to learn faster, and apply it where decisions matter.
Learning task automata from data: passive RPNI inference (HiPO), online refinement with confidence-weighted merging (DARP), and automaton feedback and preferences as a reward signal (RLAF).
Transferring knowledge from abstract models and automata into deep RL agents: bidirectional end-to-end transfer, automaton distillation, gated hybrid distillation (CADENT), and LLM-augmented symbolic reasoning (LANTERN).
Optimization and learning for smart grids: EV charging/discharging scheduling with V2G and V2V, battery SOC estimation, and deep RL for real-time energy flexibility in grid-connected buildings.
International Conference on Artificial Intelligence and Statistics (AISTATS), 2026 · Paper · Code · Project page
IEEE ICASSP, 2026 · Paper · Code · Project page
Transactions on Machine Learning Research, 2026
Under review · arXiv:2605.05478
Under review, 2026
International Conference on Neuro-symbolic Systems, PMLR vol. 288, pp. 643–660, 2025 · Paper · Code · Project page
IEEE ICASSP, 2025 · Paper · Code · Project page
arXiv:2510.15728, 2025
Sustainable Cities and Society, vol. 119, 106077, 2025
Sustainability, 14(19), 12816, 2022
Journal of Energy Storage, vol. 35, 102245, 2021
56th International Universities Power Engineering Conference (UPEC), IEEE, 2021
8th International Conference on Intelligent and Advanced Systems (ICIAS), IEEE, 2021
Complete and up-to-date list on Google Scholar.
Open-source implementations of my papers, with configs, tests and documentation.
Passive automaton learning with RPNI and online planning on the product MDP for non-Markovian tasks. Includes QAS and L*-based AGI baselines.
Online automaton refinement for non-Markovian RL: confidence-weighted RPNI, inconsistency and coverage-gap detection, UCB exploration and Q-value transfer.
Gated hybrid distillation for transfer RL: automaton-level and policy-level teacher knowledge combined through a state-action trust gate. Includes AD, PD, Kickstarting baselines and an ablation.
Learn the task automaton (RPNI) and a teacher simulator from offline data, then distil the teacher into Q-learning, DDPG and TD3 students with automaton distillation.
Code for automaton distillation and the other papers is being released paper by paper.
Follow on GitHub →Data Science Laboratory, University of Central Florida · Orlando, FL
University of Central Florida · Orlando, FL
Power Systems Laboratory, Iran University of Science and Technology · Tehran
Iran University of Science and Technology · Tehran
University of Central Florida · Advisor: Prof. George Atia · GPA 4.0/4.0
Iran University of Science and Technology · Thesis: Optimal scheduling for EV charging and discharging in smart parking lots
Iran University of Science and Technology · Thesis: Evaluation of electrical power under unbalanced conditions
I'm happy to talk about research collaborations and roles in reinforcement learning and applied AI.