Model data-center and district-heating integration for IESO studies to quantify load shapes and flexibility, supporting early-stage assessments of large customer connections and DSM potential.
Build simplified electrical and cooling models (heat pumps, TES, chillers) and evaluate operating scenarios to show how control strategies affect peak demand, ramping, and contingency behavior.
Summarize simulation results into utility-ready technical notes, SLD-based diagrams, and decision-focused slide decks highlighting key constraints, risks, and feasible operating envelopes.
Jan 2021 - Dec 2025
5 years
Waterloo, Canada
Power Systems Analyst (PhD Researcher)
University of Waterloo
Developed and validated a 300 MW BWRX-300 SMR dynamic model (within 5% of SBWR benchmarks) for a $250k IESO-funded interconnection and stability study, including a novel UDM model for DSATools suitable for industry RMS studies.
Executed power-flow and RMS dynamic studies on a detailed Ontario transmission model to evaluate SMR dispatch ramps and N-1/N-1-1 contingencies, defining operating envelopes for frequency performance and ramp limits used in planning assessments.
Built an integrated SMR–DHN–TES–heat-pump cogeneration model and demonstrated that centralized heat pumps with SMR cogeneration required 75 MWh vs. 221 MWh for distributed HP systems under winter conditions (approx. 3× efficiency improvement) while maintaining acceptable frequency performance.
Developed the dynamic model of a remote microgrid with district heating (Kasabonika Lake First Nation), showing that waste-heat recovery avoided 1.8 MW of peak electrical load and captured 1.2 MW of thermal energy, removing the need for an additional diesel generator.
Created detailed RMS and EMT-reduced models of inverter-based resources (IBRs)—grid-following PV and Type-4 wind—implementing industry-standard controls (PLL, current limitation, voltage/reactive controllers). Assessed IBR performance under weak-grid conditions, faults, and large load steps, with a focus on stability and protection margins.
Designed and tested a primary/secondary frequency-control strategy using heat-pump demand response, maintaining frequency close to 60 Hz and restoring it within 15 s after a 250 kW PV generation loss.
Contributed as a power systems specialist in the $3.74M NSERC CREATE HyTEM program, providing modeling and control expertise for hybrid thermal–electric microgrids within a 9-university research consortium.
Summary
Power & Energy Systems Engineer (PhD) with experience in interconnection studies, dynamic simulation, RMS/EMT modeling, microgrid analysis, and data-center electrical systems for utility and industry-sponsored projects.
Key technical contributor and power systems specialist on a $0.25M IESO-sponsored SMR cogeneration project, responsible for developing and validating dynamic models used to assess system performance and support planning-level stability evaluations.
Power systems specialist in the $3.74M NSERC CREATE HyTEM program, providing modeling and control expertise for remote microgrids, inverter-based resources, and hybrid thermal–electric system integration.
Experienced in transforming complex study results—frequency response, contingency analysis, and electrification impacts—into clear engineering insights, comparative options, and actionable recommendations for project teams and decision-makers.
Languages
Arabic
Native
English
Advanced
Education
Oct 2021 - Jun 2025
University of Waterloo
PhD · Electrical and Computer Engineering (Power & Energy Systems) · Waterloo, Canada