Electronic and Electrical Engineering student building RF, embedded and resilient sensing systems. I design and document projects across radio-frequency sensing, software-defined radio, positioning and signal processing, with a particular interest in defence and aerospace technology.
The centrepiece project connects RF sensing to position, heading, integrity monitoring, weighted localisation and a transparent validation plan.
The project treats localisation as a complete measurement problem: sensing, georeferencing, calibration, uncertainty estimation, integrity monitoring and validation—not simply plotting intersecting lines.
Areas I am developing through ambitious personal engineering projects and disciplined documentation.
Receivers, antennas, propagation and defensible measurement.
Hardware–software integration, sensing and robust interfaces.
Positioning quality, integrity checks and multi-sensor context.
Deterministic logic and real-time data paths.
Schematic capture, layout and hardware integration.
Filtering, detection, estimation and uncertainty.
Models that inform design choices and expected behaviour.
Requirements, test evidence, failure analysis and iteration.
Planned entries are clearly labelled in the data layer and will only become case studies when evidence exists.
Georeferenced radio direction finding with integrity-aware localisation
A portable, receive-only engineering demonstrator combining GNSS positioning, antenna-heading measurement and software-defined radio direction finding to estimate an authorised transmitter location from multiple bearings.
Arduino Nano ESP32 telemetry, control & Python anomaly detection
Owned the technical development and hardware-software integration of an Arduino Nano ESP32 embedded control system for bioreactor temperature, pH, and stirring. Integrated UART, MQTT, and Node-RED for real-time monitoring and remote setpoints, achieving a 94% demonstration score.
Non-linear FEMM magnetic flux modelling and experimental parameter sweeps
Led MATLAB modeling and parameter sweeps using experimental battery measurements to optimize wire gauge (SWG 18), coil geometry, and C-cell battery configurations. Developed a non-linear FEMM finite-element model of flux distribution, core saturation, and lifting force.
Op-amps, active filters, BJTs, MOSFETs, CMOS & three-phase power systems
Designed, constructed, and validated analogue, power, and semiconductor circuits across two academic terms at UCL. Analyzed active filters, instrumentation amplifiers, BJTs, MOSFETs, CMOS logic, and three-phase systems, scoring 97% and 85% across module evaluations.
Mott MacDonald Inspiring Engineers Programme — Best Presentation Award
Co-developed a functional disaster-relief vehicle prototype during the Mott MacDonald Inspiring Engineers programme. Authored research-paper-style documentation in LaTeX and won the programme Best Presentation Award.
The portfolio prioritises measured evidence, explicit design rationale, uncertainty, failure and iteration.
I study Electronic and Electrical Engineering at UCL and am interested in defence, aerospace and the application of electronics, RF and embedded systems to difficult real-world problems.
My current focus is improving practical engineering ability through projects that connect requirements, implementation, calibration, testing and honest technical communication.
More about my approachI am interested in internships and collaborative projects involving RF, electronics, embedded systems, aerospace and resilient sensing.
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