Reinforcement learning under partial observability
I derive exact results on learning-rule bias and test how training parameters affect evaluations of agent memory.
Research detailsResearcher in reinforcement learning, AI evaluation and quantum physics.
I study how reinforcement learning algorithms behave when they cannot observe the full state of a system, and how training choices affect evaluations of agent memory. I also work on AI evaluator reliability and reinforcement learning for quantum networks.

Founder · AI evaluation research.
Reinforcement learning theory and agent memory; quantum networks with BT.
Diamond-based quantum optics and optical-readout analysis.
Magnetometry, NV-centre qubit simulation and photodetector characterisation.
I founded Evaluator Integrity, where we test automated AI evaluators and develop reproducible checks for incorrect scores. Our methods can detect evaluator failures even when the correct answers are unknown.
At UCL, I derived closed-form results on reinforcement learning under partial observability and studied how the learning-horizon parameter biases comparisons of agents with and without memory. In a research project with UCL and BT, I developed deep reinforcement learning policies for entanglement distribution in quantum repeater networks.
At the University of Rostock, I contributed to optical-readout analysis for diamond-based quantum systems and co-authored a paper in Nano Letters.
At Bilkent University, I worked on magnetometry in Aybas Lab, avalanche photodetectors at NANOTAM, and NV-centre qubit simulations. My background in physics informs my work in mathematical analysis, numerical simulation and experiments.


I derive exact results on learning-rule bias and test how training parameters affect evaluations of agent memory.
Research detailsI develop learning-based control policies for entanglement distribution in quantum repeater networks.
Research detailsI test whether automated evaluators accept incorrect outputs and whether proposed changes address those failures.
Research details