As part of my engineering curriculum at Arts et Métiers, I developed a comprehensive supply chain framework for a fictional manufacturing company specializing in heavy industry components. This project involved defining product families, creating structured bills of materials (BOM), designing production workflows, and calculating production capacities using macro and micro-level data. I applied industrial planning tools to optimize resource allocation and modeled production strategies to align with demand forecasts. This experience honed my skills in production planning, process optimization, and resource management, providing valuable insights into managing supply chain complexities in high-stakes industries such as aerospace and defense.

I developed a 2D video game using object-oriented programming principles, incorporating key features such as a multi-level environment, interactive elements, and real-time mechanics. I designed the game map using specialized tools, implemented collision detection for objects and world boundaries, and programmed interactive elements like doors and moving targets. The gameplay included features such as shooting mechanics, timers for event handling, and smooth character movement using Tween animations. Try it ! → https://uc198i.csb.app/
This experience honed my coding skills in structured programming and real-time systems management. It also enhanced my ability to integrate diverse components like audio, animations, and user interfaces into a cohesive design. Developing this project reinforced my understanding of systems architecture, logic implementation, and troubleshooting, key competencies for tackling complex challenges, particularly in aerospace & defense sector. 

I spearheaded the design and prototyping of a modular, universal battery system for electric bicycles. This project involved developing lightweight, high-performance battery modules and an adaptable interface compatible with diverse e-bike models, eliminating the need for proprietary solutions. I engineered the integration of smart racking stations for seamless battery swaps, incorporating IoT technology for real-time monitoring and predictive stock management. This experience sharpened my skills in system design, prototyping, and project management, while enhancing my knowledge of energy storage systems, user-centric innovation, and sustainable mobility. The project also required proficiency in collaborative tools, CAD design, and embedded systems programming, reflecting a multidisciplinary approach to solving complex technical challenges.

Through advanced simulation, fabrication, and characterization techniques, this project focuses on designing and optimizing perovskite-based photodetectors (PSDs) leveraging hybrid organic-inorganic materials. These materials offer superior light absorption, efficient charge transport, and energy-level tuning, resulting in enhanced sensitivity, spectral response, and operational stability. Efforts include engineering thin-film deposition, refining device architectures, and integrating protective layers to mitigate environmental degradation. By systematically evaluating and improving each parameter — materials composition, interfaces, and electrode design — the project aims to achieve cost-effective, scalable PSD fabrication that outperforms conventional technologies in terms of efficiency, durability, and overall device reliability. 

Developed a Python-based application that computes and visualizes shortest paths within randomly generated 2D building grids, integrating algorithmic logic with FreeCAD for 3D modeling. Designed interactive features to generate structures, identify obstacles, and dynamically display optimal paths. This project enhanced my expertise in algorithm development, spatial data manipulation, and real-time 3D visualization. It also strengthened my problem-solving skills, particularly in navigating geometric constraints and optimizing computational performance. This experience deepened my understanding of software integration for simulation environments, a critical skill in aerospace systems modeling. Additionally, I honed collaborative coding practices, laying the groundwork for scalable and maintainable solutions in high-tech industries.

As part of my engineering curriculum at Arts et Métiers, I collaborated on the preliminary design of an industrial machine to manufacture metal components for high-precision applications. My responsibilities included analyzing the system’s kinematics, performing structural calculations (RDM) for critical components, and proposing technical solutions for mechanical assemblies and power transmission. This project sharpened my expertise in mechanical design, finite element analysis, and technical reporting, while reinforcing my ability to integrate sustainability and cost-efficiency into engineering solutions. It also enhanced my teamwork and problem-solving skills in a highly technical environment, aligning with the innovative demands of the aerospace and defense industries.

Analyzed the principles of magnetic levitation through experimental and numerical methods, focusing on the MAGLEV train system. Conducted experiments to measure magnetic fields, calculate the minimum force for levitation, and study trajectories under various conditions. Utilized Python and Matplotlib for data analysis and visualization, simulating train motion under theoretical models. This interdisciplinary project enhanced my skills in physics-based modeling, experimental analysis, and numerical computation, relevant to complex system design in aerospace and defense. Additionally, it provided hands-on experience with tools like Phyphox, Tracker, and Python, bridging experimental and computational insights into real-world engineering challenges.

Developed a complete 3D design of a single actuator for a hexapod robot using CATIA V5. This project involved modeling and assembling the motor block, screw block, and transmission components, including couplers, bearings, and reduction systems. Designed and implemented custom housings (transmission, guidance, and screw covers) to ensure proper alignment and functionality. Final assembly focused on achieving optimal positioning and stability for precision movement. This experience enhanced my proficiency in CAD design, kinematic analysis, and the understanding of mechanical systems integration, which are critical skills for robotics and aerospace applications. It also fostered a meticulous approach to manufacturing constraints and system-level design.

Explored the feasibility of hydrogen as an energy source by designing a conceptual hydrogen battery capable of powering an Ironman-inspired suit for 5 hours at full capacity. Analyzed the production, storage, and conversion of hydrogen into electricity using fuel cell technology, focusing on efficiency, energy density, and ecological impacts. Developed mathematical models to calculate the required hydrogen mass and optimized system performance based on theoretical and practical parameters. This project enhanced my knowledge of hydrogen technologies, sustainable energy systems, and applied physics, aligning with the aerospace and defense sector's focus on innovation and sustainability.

Developed a MATLAB program to model natural convection of air caused by temperature variations near a vertical heated plate. Implemented the finite difference method to solve adimensionalized Navier-Stokes and thermal energy conservation equations. Conducted simulations to analyze velocity and temperature profiles, exploring the influence of key parameters such as Prandtl number, grid resolution, and time steps. This project enhanced my skills in numerical methods, fluid dynamics, and heat transfer modeling. It also strengthened my ability to use computational tools to simulate and optimize thermal systems, aligning with critical needs in aerospace and engineering industries.

We developed a digital tool for mapping and analyzing urban safety data, focusing on identifying high-risk areas and enhancing public awareness. The project involved collecting user-reported data on aggression incidents via secure surveys, visualizing results through interactive heatmaps and statistical charts. Leveraged tools like Microsoft Forms, VBA, and MySQL for data collection, processing, and visualization. We also exchanged with stakeholders including local authorities and research organizations to ensure data accuracy and impact. This project strengthened my expertise in data-driven decision-making, secure data management, and urban safety analysis, aligning with, I believe, emphasis on precision.

In this research project, I Investigated the properties of semi-interpenetrating polymer electrolytes (Cs-IPN) for lithium-ion batteries, focusing on ionic conductivity, structural stability, and thermal behavior. Dimensioned membranes through crosslinking processes using BPEI, PEGDMA, and LiTFSI, incorporating ceramic nanopowders to enhance ionic transport. Conducted advanced analyses, including DSC for glass transition temperatures, EIS for ionic conductivity, and SEM for nanopowder distribution. Results highlighted the impact of nanopowders on conductivity and mobility under varying thermal conditions, achieving significant enhancements with SiO2 and Al2O3. This project refined my expertise in polymer chemistry, battery materials, and electrochemical characterization, critical for next-generation energy solutions.

Designed and implemented a PID control system to stabilize a Zumo robot acting as an inverted pendulum. Conducted theoretical modeling and derived state-space equations for the system, accounting for dynamic parameters such as angular displacement and motor-driven forces. Developed and tuned the PID controller through iterative testing in Arduino, optimizing the robot's balance and response to disturbances. Integrated system engineering tools to analyze the energy and information flow within the robot. This project strengthened my skills in control theory, dynamic modeling, and embedded systems programming, aligning with precision control requirements in aerospace and robotics.

Imagined a solution to extract metal nanoparticles from polluted waters for reintegration into industrial processes, supporting the principles of the blue economy. Conducted feasibility studies on resource depletion, pollution impact, and the ecological urgency of sustainable metal recovery. Designed a high-tech recycling system to capture and process nanoparticles while minimizing ecological disruption. Collaborated on technical and financial planning, including market analysis and cost optimization, to ensure the viability of the solution. This project enhanced my skills in sustainable engineering, and strategic resource management.

Engineered an innovative protective suit designed for extreme environmental conditions, emphasizing advanced material integration and performance. Studied materials performances to optimize thermal insulation, waterproofing, UV resistance, and mechanical durability using hydrophilic and solidifying coatings. Simulated extreme conditions to validate material properties and refine the design for maximum efficiency and user adaptability. Imagined prototypes with multi-layered structures for enhanced protection and tested performance under varied stress scenarios. This project honed my expertise in material science, structural design, and performance optimization for protective solutions applicable to defense industry.