Optimization of Deep Learning Algorithms for Large Digital Data Processing Using Evolutionary Neural Networks
AI that evolves its own network design to process massive datasets faster.
27 papers of deep research, spanning foundational methods, quantum-inspired models and frameworks, and deep learning at institutional scale, plus first-author hardware sensing work. 8 have been published in peer-reviewed journals. 14 are under peer review, and each one says so on its own card; 5 are technical reports on the production model line. Full text for every paper is hosted here.
Independently verifiable on Dr. Nehzati's Google Scholar profile.
AI that evolves its own network design to process massive datasets faster.
CNNs for software engineering under collaborative and unbalanced data conditions.
A wearable gas sensor on patterned graphene. First author, with co-authors.
Spotting pedestrians in surveillance video reliably, even with occlusion and noise.
Self-healing AI that writes and repairs its own code.
AI that keeps learning and rewires itself without retraining.
Predicting 30-day readmissions across 47 institutions without moving patient data.
The geometric framework underneath the lab's work on how learning behaves on curved data.
Submitted and being assessed by external reviewers. Listed here because the work exists and is readable, not because it has cleared review.
A brain-inspired architecture for integrating data at any scale.
A self-healing clinical data network that harmonizes records and predicts outcomes.
Turning messy hospital records into clinically validated insights across 492,542 encounters.
Turning Epic Clarity warehouse records into structured clinical concepts.
Neuromorphic edge AI for real-time coordination of robot swarms.
Detecting and identifying people from a partial walking gait.
Many-worlds, quantum-inspired harmonization for population-scale health data.
A long non-coding RNA studied as a driver of liver-cancer growth.
Reversing drug resistance in advanced lung cancer through epigenetic reprogramming.
Reading MRIs to grade brain tumors and predict molecular subtype before surgery.
The mathematics of how clinical data gets mapped and classified.
A vendor-neutral overlay that makes any two FHIR systems understand each other.
Forecasting population-scale drug demand by separating true need from realized use.
Turning aircraft vibration data into fleet-wide predictive maintenance intelligence.
No papers in that area.
Why moving records is not the same as understanding them.
The engine that classifies raw healthcare fields against shared clinical ontologies and adapts to each customer's data.
Synthesizes mappings between healthcare data standards in both directions, rather than maintaining hand-built crosswalks.
Keeps multi-site healthcare data harmonized continuously, repairing drift as sources change.
Orchestrates the lab's classification, mapping and harmonization models as one system at production scale.
Operators on a concept Hilbert space that enrich themselves as they classify. The most formal statement of meaning as geometry.
When a paper on this page clears peer review, the lab says so. These are the announcements behind the published work above.