Detect changing relationships
Watch how current data and learned assumptions diverge—not just whether a single score moves.
Research / Adaptive intelligence
My doctoral research asked how a model can adapt as new data changes the problem. It also shaped how I work: test assumptions, observe what changes, and revise the decision when the evidence calls for it.
Static training assumes the future will resemble the data a model already knows. Real systems rarely stay that tidy.
My research explored continuous model adaptation using online meta-learning: a framework for learning how to update a deep model as real-time data arrives and underlying patterns change.
The smart-grid application made that question concrete. Loads, behaviors, and conditions shift over time, so useful prediction depends on adapting without discarding everything the model has already learned.
The practical idea is simple: adaptation belongs in the system’s design.
I earned my Ph.D. in Industrial Engineering and Operations Research at the University of Illinois Chicago in December 2021, and continued research through January 2022.
Today that work informs how I build production systems: monitor change, make targeted updates, and evaluate results over time.
View the IEEE record ↗Watch how current data and learned assumptions diverge—not just whether a single score moves.
Move the parameters that need to change while preserving knowledge that remains useful.
Judge the learning process across shifts and sequences, rather than at one frozen benchmark.
Changes in data should inform product and model decisions together.
A dependable system must stay useful as conditions and behavior evolve.
The path from an outcome back to the system should be intentional.