I build things where hardware, software, and data meet. From embedded systems to Power BI dashboards — I'm here to learn fast and ship real work.
I'm a third-year electronics and computer engineering student at INSA Rennes with a strong interest in how hardware, software, and data come together to solve real-world problems.
I've worked on projects ranging from embedded systems and signal processing to data analytics and dashboard automation. During a recent internship in Nairobi, I helped build Power BI tools to streamline financial reporting — which deepened both my technical skills and my curiosity for the intersection of tech and finance.
Outside class, I organise TEDxINSA Rennes, coordinating speakers and events that bring new ideas to campus. I enjoy working in diverse teams and building things that are technically solid and genuinely useful.
Designed and implemented automated, dynamic Power BI reports used across several company departments — bridging raw financial data and executive-level insight.
Provide academic support to secondary school students, helping them improve grades and confidence in STEM subjects.
Coordinate campus TEDx events: recruiting speakers, crafting themes, managing logistics, and leading a student team.
Shadowed teams at Wazobia FM, Cool FM, and Nigeria Info. Learned voice-over production and sound engineering at Clout Entertainment.
Worked on advanced linear algebra with a 5-student team under Prof. Erwan Le Gruyer.
Designed and implemented automated, dynamic Power BI reports for a reinsurance company in Nairobi — replacing manual Excel workflows across several departments.
Designed a modular PCB that traces IC = f(VCE) characteristics of NPN transistors on an oscilloscope in XY mode, using a ramp amplifier, 2-bit counter, variable current source, and INA139 current measurement. Validated through PSpice simulation and lab hardware.
Built a full analog signal chain (amplification → precision rectification → envelope detection) to process the echo from a 40 kHz ultrasonic transducer, soldered onto a PCB and validated experimentally. Total BOM cost: ~€9.80.
Extended an existing CPU architecture in RTL by adding a Heron's-method execution unit (Pj_Unit) for iterative square root computation, a 16-bit iterative divider, and a programmable frequency divider (FDU). Synthesised and validated under Quartus Prime at 19.9 MHz.
Developed a full C game simulating an exam-period platformer using SDL2, with MVC architecture, SQLite score persistence, and a custom STM32-based USB HID controller (joystick + keypad). Unit tested with CMocka, memory-checked with Valgrind.
Four applied control labs covering system identification (Broïda, Strejc), P/PI regulator design for thermal and flow systems, DC motor position control with tachometric feedback, and state-space pole placement — bridging Simulink simulation to real STM32 hardware.
Co-authored a paper (published at ICML 2026) introducing differential circuit vulnerability to compare how RL vs. supervised fine-tuning preserve internal attention-head circuits in LLMs. RL retained 13.5 pp more base-circuit structure at peak task performance.
This site — fully hand-coded responsive portfolio with no frameworks, featuring a filterable project grid, timeline layout, and mobile hamburger nav.
Whether it's an internship, collaboration, or just a conversation — I'm always happy to connect.
