Flight Dynamics
Six-degree-of-freedom modelling, trim and linearisation, handling qualities and stability analysis across the flight envelope.
Aerospace Engineer · Flight Dynamics & Simulation Researcher
A decade of building the models that fly modern aircraft — from Turkey’s next-generation fighter to zero-emission hydrogen-electric propulsion. PhD-trained in system identification with a track record of bridging high-fidelity research and production flight software.
I am an aerospace engineer with more than ten years of experience in flight dynamics, flight simulation, system identification, numerical methods and optimisation. I hold a PhD in Engineering Science and a double-major BSc in Physics and Aerospace Engineering from Middle East Technical University (METU).
My work sits at the interface of rigorous applied mathematics and real aircraft programmes. I have developed the aerodynamic and flight-dynamic models that power Turkey’s indigenous fighter and trainer aircraft, built generic helicopter simulators for professional training, and now research the next generation of certified hydrogen-electric and clean aviation platforms.
I care deeply about model fidelity — about the unglamorous discipline of making sure that what the simulator predicts is what the aircraft actually does.
Six disciplines, refined through industrial programmes and peer-reviewed research.
Six-degree-of-freedom modelling, trim and linearisation, handling qualities and stability analysis across the flight envelope.
Real-time, full-envelope simulators — from generic helicopter trainers to fighter-class stitched models. Verification, validation & visualisation.
Equation-error and output-error methods, Kalman-based estimators, neural-genetic networks and frequency-domain ID from flight-test data.
Multi-fidelity dataset fusion, LASSO and binary particle-swarm regression, iterative equation-error methods for high-AoA agile platforms.
Newton–Raphson trim algorithms, multi-objective control-law tuning, robust input design for parameter identification.
Automatic flight control system development, lateral & longitudinal control-law synthesis, posteriori multi-objective optimisation.
From training simulators to fighter aircraft to the future of clean aviation.
Cranfield University · Centre of Aeronautics — United Kingdom
Leading research on modelling, simulation and verification of fixed-wing platforms, including the Saab 340B aerodynamic model development using binary particle-swarm optimisation. Investigating multi-objective control-law synthesis and onboard near-real-time system identification.
ZeroAvia — Hydrogen-electric aviation
Flight performance and dynamics engineering on hydrogen-electric powertrain integration — contributing to the certification of zero-emission propulsion for commercial regional aircraft.
Turkish Aerospace Industries (TUSAŞ) — Ankara, Turkey
Developed flight-dynamic and aerodynamic models for the TF-X / KAAN indigenous fighter aircraft and the HÜRKUŞ basic trainer. Built data-fusion methods to combine low- and high-fidelity aerodynamic datasets across the full flight envelope. Co-authored the simulation models used in the programmes’ engineering and crew-trainer simulators.
HAVELSAN — Ankara, Turkey
Developed aircraft and rotor dynamics, automatic flight control systems, and trimming & linearisation algorithms for generic helicopter simulator models used in training-class full-flight simulators.
Middle East Technical University (METU) — Ankara
Doctoral thesis: System Identification of Agile Aircraft — output- and equation-error parameter identification for high-AoA, post-stall fighter dynamics.
Middle East Technical University (METU) — Ankara
Foundations in classical and quantum physics paired with applied aerospace engineering — a deliberately dual training in first principles and engineering practice.
A representative sample of peer-reviewed and conference work. Full list available via ORCID and ResearchGate.
Proceedings of the IMechE, Part G: Journal of Aerospace Engineering
DOI ↗Aerospace (MDPI), 11(1), 8
Open access ↗AIAA SciTech 2024 Forum
AIAA SciTech 2022 Forum
AIAA Aviation 2021 Forum
AIAA ↗AIAA Aviation 2020 Forum
Aerospace Science & Technology
Indigenous twin-engine air-superiority fighter. Built flight-dynamic and aerodynamic models, including multi-fidelity dataset fusion across the full flight envelope.
Tandem-seat turboprop training and light-attack platform. Flight-dynamics modelling for engineering and crew-trainer simulators.
Rotor and aircraft dynamics, automatic flight control, trim & linearisation algorithms for full-flight training simulators at HAVELSAN.
Flight performance contribution to certified zero-emission propulsion programmes for regional commercial aircraft.
Aerodynamic model identification using binary particle-swarm optimisation as part of academic flight-simulator research at Cranfield.
Comparative analysis of off-the-shelf flight-simulator visualisation stacks (FlightGear, X-Plane, Prepar3D, MSFS 2020) for academic use.
Open to research collaboration, advisory work, and conversations about flight dynamics, simulation and certification.