Offshore green hydrogen
Wind-powered electrolysis, hydrogen buffering, liquefaction, cryogenic storage and weather-limited shipping, studied as one coupled chain rather than separate components.
Renewable energy · Hydrogen · Research software
PhD Candidate in Mechanical Engineering, University of Victoria
I study how renewable energy systems perform across real weather, hour by hour: offshore green-hydrogen production and export, and remote community microgrids. I also build the simulation and optimization software those questions need, with results that can be traced and reproduced.

Research focus
My work connects physical models, long weather records and optimization, so that design decisions account for when energy is available, where it can be stored and how it can be moved.
Wind-powered electrolysis, hydrogen buffering, liquefaction, cryogenic storage and weather-limited shipping, studied as one coupled chain rather than separate components.
Dispatch and sizing of renewable, storage and diesel microgrids, comparing forecast-informed model predictive control with conventional load-following.
Batteries, underwater compressed-air storage and hydrogen inventories: when storage improves reliability or cost, and when it does not.
Multi-objective design with NSGA-II/III, mixed-integer dispatch, sensitivity and Monte Carlo analysis, and year-to-year weather variability.
C++ and Python simulation platforms with conservation checks, regression tests and recorded provenance, so that results can be rerun and audited.
An electrical power-systems background and more than three years designing, commissioning and maintaining commercial solar-PV installations.
Featured software
A research platform that simulates an offshore hydrogen hub as one chronological system: wind, electrolysis, gaseous and liquid hydrogen storage, liquefaction, shipping and delivered cost, with energy and mass balances checked every hour.

Latest publication
Eleven years of hourly ERA5 data for a North Atlantic and a North Sea site, an hourly production, storage and vessel model, and tri-objective optimization show how wind–wave transfer limits shape offshore hydrogen design. Performance responds sharply when those limits are strict and levels off as transfer capability improves; the selected North Atlantic design reached US$8.53/kg, against US$11.78/kg for the North Sea design.
Background
Engineering practice came first: system sizing, single-line diagrams, procurement and commissioning. It still shapes how I model systems today.
University of Victoria
Faculty of Engineering and Computer Science, UVic
University of Victoria
Voltric Energy (Pvt.) Ltd., Peshawar
Huawei Technologies, Pakistan
University of Victoria · candidacy passed April 2025
University of Engineering and Technology, Peshawar
UET Peshawar · graduated with distinction
I welcome conversations about research collaboration, evaluating OffshoreLH2, and engineering or research roles in renewable energy and energy-system modelling.