Robotics
Mobile and autonomous systems
Engineering portfolio · France
Engineering Student · Mechatronics · Embedded Systems · Robotics · Automation
5th-year ENIB engineering student focused on designing complete intelligent electromechanical systems—from mechanical design and electronics to embedded software, communication, control and system integration.
01 / About
My interests lie at the intersection of mechanics, electronics and software.
I aim to develop intelligent robotic, embedded and industrial systems by connecting physical design, sensing, actuation, real-time control and high-level software into one coherent solution.
My approach is multidisciplinary: understand the complete system, make sound engineering decisions at every layer, and validate how those layers work together.
Mobile and autonomous systems
Real-time control and interfaces
Connected intelligent systems
Cross-domain integration
Sensors, actuators and acquisition
CAD and rapid prototyping
02 / Selected work
Multidisciplinary systems developed from physical architecture to embedded control and supervision.
Flagship project
A complete mobile robotics system connecting low-level motor and sensor control with ROS2 communication, camera processing and PC-based supervision.
System integration, embedded motor control, sensor processing, communication and supervision.
MANUAL RANDOM TRACK
Clear partitioning between deterministic low-level control and high-level robotics software.
The STM32 handles motor commands, speed regulation and sensor processing. Raspberry Pi and ROS2 provide higher-level communication and camera tracking. The PC interface supports commands, monitoring and visualization.
Front infrared sensors support obstacle awareness, while a rear VL53L0X distance sensor adds range information. PID speed control closes the motor-control loop.
The architecture separates time-sensitive embedded behavior from computationally richer vision and supervision tasks, while micro-ROS connects both layers.
The platform implements manual driving, random navigation and camera-based tracking. Quantitative validation can be added when verified results are available.
Platform reference photography: ENIB robotics teaching resource — Vincent Kerhoas
An instrumented system combining mechanical deformation measurement, bridge-based sensing, embedded acquisition, servo control and a Python interface for analysis and export.
Acquire and analyze beam deformation while integrating controlled mechanical actuation.
Calibration, data acquisition, theoretical-versus-experimental comparison and CSV export.
Strain gauges and bridge measurement translate mechanical deformation into an electrical signal for STM32 ADC acquisition.
PWM-based servo control connects software commands to controlled mechanical actuation.
A Python/PyQt5 interface supports acquisition, monitoring, calibration, analysis and CSV data export.
The structure supports theoretical-versus-experimental comparison without claiming unverified numerical results.
Schematic, PCB and measurement interface: original project work by Jamal TAFECH.
A focused embedded C project built with STM32 HAL: GPIO control, pushbutton input, debouncing, state-machine concepts and non-blocking timing.
UART · ADC · PWM · Interrupts · Timers · Protocols · RTOS
Personal STM32 development uses VS Code and PlatformIO—not the Arduino framework.
CAD modelling, assemblies, enclosures, hinges and joints, functional components, replacement parts and design for additive manufacturing.


A personal engineering and design initiative exploring CAD, rapid prototyping, functional replacement components, customized products and practical product development.
Demonstrates practical manufacturing experience, initiative and an iterative build-test-improve mindset.

03 / Capabilities
Tools and concepts organized by engineering domain—without arbitrary percentage ratings.
Applied training & project experience
04 / Experience
Practical experience across embedded automation, electrical engineering, industrial environments and rapid prototyping.
Vox3D
ENIB
Sibline Ciment
Electrical engineering
Hijjawi Company
05 / Education
Engineering education supported by focused training in industrial automation and robotics instruction.

Engineering cycle
Mechatronics engineering · Current 5th-year student
Focus on mechatronics, embedded systems, robotics, automation and multidisciplinary system development.

Bachelor’s degree
Industrial Engineering & Maintenance
Academic foundation in industrial systems, electrical engineering and maintenance.
Additional diplomas & training
Verified credentialsEngineering Solutions
EdTechHub / STEM.org
Collège Notre Dame · Mention Bien
06 / Direction
I’m seeking engineering opportunities where physical systems, embedded intelligence and software meet.
07 / Contact
Interested in mechatronics, embedded systems, robotics or automation opportunities? Let’s connect.