Projects & Industry Applications
From Laboratory Tools to Measurable Impact: systematic thinking applied to solve real problems
Laboratory Tools
Understanding the physical problem & hardware constrains
Code & Automation
Building robust pipelines & automated controls
Measurable Impact
Delivering efficiency gains & reliable data

Automated Laser Polarimetry Platform
Completed & In UseStokes Polarization Analysis ⢠Python ⢠PyQt5 ⢠Hardware Control
Challenge
Characterizing the polarization state at each focus of a Twin-Foci ultrafast laser setup required manually rotating a motorized waveplate, reading power at each angle, and fitting data in a spreadsheet. The process took over 2 hours per dataset and was error-prone.
Solution
Built a real-time PyQt5 platform that drives a Newport ESP301 motion controller and Ophir NOVAII power meter simultaneously, collecting intensity vs. angle data in real time. Uses the Fourier-based Schaefer method to extract complete Stokes parameters (Sā, Sā, Sā, Sā). Includes a TDC synchronization module for photon-counting experiments, an offline analysis CLI, and a hardware simulation mode for testing without physical equipment.
Impact
- ā¢Reduced scan time from 2+ hours to ~5 minutes (96% faster)
- ā¢Full Stokes vector extraction with uncertainty propagation from covariance matrix
- ā¢TDC polarization controller for synchronized photon-counting experiments
- ā¢Hardware simulation mode and offline CLI for testing and post-processing
- ā¢Publication-quality export at 300 DPI (PNG, PDF, SVG)

Intelligent Predictive Maintenance System
In DevelopmentIndustrial Sensor Analytics ⢠Python ⢠MLflow ⢠FastAPI ⢠SHAP
Challenge
Industrial turbine engines degrade gradually across hundreds of sensor channels. Traditional monitoring catches failures too late, after damage is done. The challenge: predict remaining useful life (RUL) from noisy, high-dimensional time-series data and explain why the model raised an alert.
Solution
Built an end-to-end ML pipeline on the NASA C-MAPSS turbofan degradation dataset. The system ingests raw multi-sensor data, engineers time-series features (rolling statistics, degradation trends), trains and compares models (Random Forest, XGBoost), tracks experiments with MLflow, and serves predictions via a FastAPI endpoint. A SHAP explainability layer translates model outputs into sensor-level diagnostic reasoning.
Impact
- ā¢Predicts engine failure window with interpretable confidence
- ā¢SHAP layer identifies top contributing sensors per failure event
- ā¢Full MLOps structure: experiment tracking, model versioning, API deployment
- ā¢Streamlit dashboard surfaces health status and alerts in real time

PEPICO Data Analysis Pipeline
In Active UseHigh-Throughput Spectroscopy Analysis ⢠Python ⢠Jupyter
Challenge
Time-resolved PEPICO experiments produce complex binary data from TDC acquisition. Manual conversion and analysis limited throughput and introduced inconsistencies.
Solution
Built a Python/Jupyter-based pipeline that converts raw TDC binary files to calibrated time-of-flight spectra, performs electron kinetic energy and mass calibration, coincidence analysis (TOF-vs-TOF), and statistical evaluation. Users specify data location and basic parameters; the pipeline handles the rest.
Impact
- ā¢Processes multiple datasets reliably and consistently
- ā¢Generates publication-ready plots and statistical summaries
- ā¢Removes analysis as a bottleneck, experiment pace now drives progress

INSPIRE Fellowship Research Program
Completed5-Year National Research Project ⢠Multi-Institution Coordination
Challenge
Manage a prestigious national fellowship (one of ~1,000 awarded annually in India) as principal researcher while completing PhD research.
Solution
End-to-end program delivery including annual financial reporting, procurement planning, progress tracking for government review, and multi-institution collaboration across Germany and India over 5 years.
Impact
- ā¢Delivered 12 first-author publications
- ā¢Contributed to one granted patent (gas-separation membranes)
- ā¢Maintained regulatory compliance across 5-year program
- ā¢Coordinated with stakeholders across multiple institutions
Laboratory Workflow Optimization
OngoingProcess Improvement ⢠Team Coordination ⢠Resource Planning
Challenge
In a shared ultrafast laser laboratory, scheduling conflicts, documentation gaps, and workflow handoffs limited overall productivity.
Solution
Team-based implementation of shared equipment booking calendar, standardized maintenance checklists, experimental protocols, and Obsidian-based shared lab notebook. Weekly planning meetings align schedules and priorities.
Impact
- ā¢Improved equipment availability and reduced downtime
- ā¢Enabled smoother onboarding and better collaboration through superior documentation
- ā¢Increased overall group throughput (estimated ~40% from combined improvements)
From Research to Real-World Impact
The same systematic approach that drives these projects applies directly to data science, process optimization, and technical project management in industry.
Real Code. Real Impact.
I don't just talk about automation, I build it. With efficient, cleaner, and well-documented code that solves actual problems.
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