Observe Before You Optimize
I treat instrumentation, metrics, and debuggability as part of the product surface so systems can be understood before they are tuned.
Data & ML Systems Engineer
I build production-grade data, ML, and AI systems, from large-scale analytics platforms to intelligent interfaces. My work turns messy data into reliable tools and decisions.
ETL and analytics pipelines engineered for SmartTV-scale telemetry.
Cloud spend reduced through serverless Spark and platform modernization.
SmartTV ad delivery and analytics systems operated across international markets.
My work centers on turning analytical prototypes into production systems that are observable, efficient, and grounded in business constraints. Across large-scale data platforms, ML systems, and intelligent interfaces, I have focused on making machine learning practical enough to ship and reliable enough to trust. I am currently pursuing a Master’s in Data Science at the University of Maryland, College Park, with a focus on machine learning and large-scale data systems.
Every project is framed around observability, interfaces, operator trust, and measurable outcomes.
I treat instrumentation, metrics, and debuggability as part of the product surface so systems can be understood before they are tuned.
The most durable ML systems are built around clean handoffs between data, services, and operators rather than around a single clever model.
Latency, cost, governance, and operational trust shape architecture as much as accuracy, especially when the system needs to survive contact with production.
I prefer systems that create compounding value: a cleaner pipeline, a better evaluation loop, or a platform primitive that unlocks faster iteration later.
These stories focus on system framing, architecture, critical flows, and the tradeoffs that shaped each build.
I built Planera as an analytics workspace where planning, SQL generation, validation, and execution stay visible enough for a human to trust the answer.
I built Contour as a planning copilot that turns vague sprint goals into scoped work, priority signals, and assignment recommendations grounded in how a team actually operates.
I built a model-agnostic adaptive inference framework that cuts Stable Diffusion v1.5 latency without training or fine-tuning. It combines local LLM prompt complexity estimation with latent-convergence early stopping, reducing average runtime from 70.84s to 39.17s while preserving CLIP alignment.