AI Climate Modeling
Advanced predictive workflows for rainfall forecasting, streamflow response, meteorological drought, reference evapotranspiration, and climate variability.
Expertise & Applied Capabilities
High-performance scientific computing and domain engineering honed through environmental data science, hydrology, remote sensing, and agricultural systems.
Advanced predictive workflows for rainfall forecasting, streamflow response, meteorological drought, reference evapotranspiration, and climate variability.
Data cleaning, QA/QC protocols, Sen's slope trend detection, statistical modeling, interactive visualization, and interpretation of nonstationary time series.
High-impact scientific manuscripts, state-of-the-art literature reviews, reproducible methods documentation, peer reviews for top journals, and technical reports.
QGIS spatial modeling, Land Use / Land Cover (LULC) prediction, river-basin spatial regionalization, and satellite data fusion (GRACE, MODIS, ERA5).
Crop water requirement computation, smart greenhouse irrigation circulation, soil moisture dynamics, and climate-smart agricultural adaptation.
Extensive experience teaching Python, PyTorch/TensorFlow, hydrological modeling, research methodology, and AI application workshops.
Selected Implementations
Real-world deployments bridging machine learning theory and water management practice.
A hybrid deep learning architecture designed to capture both high-frequency precipitation pulses and seasonal monsoon persistence for water-basin planning.
A geospatial graph neural network (GNN) framework combining spatial neighbor matrices and meteorological anomalies for rainfed agricultural risk assessment.
An automated Python and Web GIS operational system translating open water-quality data into real-time hazard classification, maps, and stakeholder alerts.