01 / 05Secure data ecosystem
Designed and implemented a module for secure data sharing, machine-learning workflows, and materials insight.
Scientist / Builder / Applied AI
I design and lead AI systems where research, software, and consequential operations meet, turning complex scientific and industrial data into decisions people can use.
Three systems where scientific rigor became operational infrastructure.
01 / 05Designed and implemented a module for secure data sharing, machine-learning workflows, and materials insight.
02 / 05Architected an autonomous code-generation and execution framework used across active internal deployments.
03 / 05Applied LLM-driven reasoning to diagnose failures across complex, multi-stage solar-cell fabrication.
My work spans the full path from ambiguous technical problem to durable system: shaping the question, structuring the data, designing the intelligence layer, and earning adoption.
Owned five workflows from a bridge-financed pilot through a two-year enterprise adoption, working across technical and executive stakeholders.
5 workflowsTranslated customer needs into a reusable modeling capability and carried the product vision through engineering into production.
Production microservicePublished research, industry work, and open tools across interpretable machine learning, semiconductors, and optical materials.
Interpretable discovery of semiconductors with machine learning.
Connected data and workflows for semiconductor research and development.
Ideal luminescence curve generation for optical materials research.
I lead at the intersection of scientific rigor, executive priorities, and the daily work required to move complex systems into practice.
Palantir Technologies. Applied AI, scientific systems, technical delivery, and product strategy.
University of Toronto. Perovskite nanomaterials and interpretable scientific machine learning.
University of Waterloo. Dean's Honours List.
I move between scientific research and consequential deployment: reducing complex problems to fundamentals, encoding domain insight, then engineering systems that create durable value.
Begin with the operational decision, the constraints around it, and the evidence required to act with confidence.
Combine scientific models, machine learning, and software architecture so the system reflects how the work actually happens.
Measure the system by whether people can interrogate it, rely on it, and improve their decisions with it.
For conversations about applied AI, scientific R&D, and complex decision systems, LinkedIn is the most direct path.