Research & Impact.

Building on past research in deep learning and computer vision, my work is shifting toward AI decision systems for sustainability and operational challenges — leveraging forecasting, uncertainty modeling, and decision optimization.

Academic Publications

1 items
Problem

Real-time vehicle classification in traffic surveillance suffers from occlusion, variable lighting, and multi-class imbalance — limiting automated traffic management systems.

Method

Designed a deep convolutional neural network architecture trained on augmented surveillance datasets, applying transfer learning and fine-tuning to handle class imbalance.

Contribution

Demonstrated that deep learning models can achieve robust multi-class vehicle classification under realistic surveillance conditions, outperforming traditional feature-engineered baselines.

Outcome

Published at MLDM 2019; established foundational experience in applied deep learning and computer vision for real-world operational systems.

Relevance to current direction

Directly informs future work in AI decision systems: the same pipeline design — sensor data → feature extraction → model → operational decision — transfers to forecasting and optimization in sustainability contexts.

Scientific Open Source

2 items

tuneR

Creator
R mixOmics
Problem

Hyperparameter tuning for sparse Partial Least Squares (sPLS) models in mixOmics was computationally expensive and lacked reproducible defaults.

Method & Contribution

Developed intelligent statistical heuristics replacing exhaustive grid search, with deterministic seeding for full reproducibility.

Impact

On the repository benchmark harness, random search cut median wall time by 60.5% while matching the best observed accuracy across a 125-combination block-sPLSDA search space.

Relevance to current direction

Demonstrates ability to bridge statistical methods with software engineering — a core skill for building reproducible decision-support pipelines.

mixOmicsIO

Creator
R Bioconductor
Problem

Multi-omics studies at scale are bottlenecked by data conversion between SummarizedExperiment objects and mixOmics matrices.

Method & Contribution

Built a memory-optimized data pipeline using reference semantics and strict S4 validation for type-safe multi-gigabyte transformations.

Impact

Simplified the data handoff between Bioconductor structures and mixOmics workflows for larger computational biology analyses.

Relevance to current direction

Demonstrates production-minded data pipeline design — the same architecture discipline applies to sensor-to-model pipelines in sustainability operations.

Research Interests

Decision-making under uncertainty

How can forecasting models quantify operational uncertainty to improve resource allocation in dynamic environments?

Forecasting for sustainability operations

Time-series and remote sensing approaches to predict operational demand, resource availability, and environmental risk.

Reinforcement learning & operations research

Applying RL and optimization methods to sequential decision problems under sustainability and resource constraints.

AI decision systems for agriculture

Climate-resilient and resource-efficient agricultural operations as a high-impact domain for applied decision science.

Reproducible decision-support pipelines

End-to-end systems from sensor data ingestion through model inference to operational KPI reporting — built for auditability and real-world deployment.

Resume & Academic CV

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