Responsibilities
Design the CANBus architecture and program the main ECU of the single-seater. Key tasks include:

• Managing communication between ECUs and structuring CAN messages

• Designing the main interface between the bus and the team

• Developing safety algorithms, data processing, and essential controls

• Working closely with ECUs, Sensorics, and Vehicle Dynamics Control

Tools Used

• Model Integration: Intecrio (ETAS)

• CAN Message Structuring: CANoe (Vector)

• Programming: MATLAB/Simulink

Ideal Profile
Electronic engineering students, although it is open to students from other fields with an interest in programming and systems integration. Prior knowledge of Arduino or C++ is valued but not required.

A key requirement is a willingness to be actively involved in both the design and manufacturing phases.

Responsibilities
Study of tires and vehicle dynamics, focusing on:

• Selection of optimal tires for the single-seater

• Assisting the Steering, Suspension, and VDC departments in defining the setup and developing control algorithms

• Virtual modeling of the car to validate studies and simulations

Tools Used

• Modeling and Simulations: CarMaker (IPG Automotive)

• Calculations, Data Iteration, and Graphs: MATLAB

Ideal Profile
Electronic engineering students, although mechanical engineering students with strong theoretical knowledge and experience in vehicle dynamics are also welcome. Proficiency in MATLAB is essential, as well as strong communication with other departments.

Responsibilities
Structural design for the integration of electronic components and the powertrain in the single-seater.

• Focus on the optimal and safe integration of components, with particular emphasis on the structural design of the battery as one of the major challenges.

Tools Used

• Structural Simulation

• CAD Design: SolidWorks

Ideal Profile
Mechanical, Electronic, or Electrical Engineering students.

Responsibilities
Design, simulation, manufacturing, and testing of the cooling systems for the engine, battery, and other critical components of the single-seater.

• Collaboration with Powertrain and Aerodynamics, requiring strong communication and organizational skills.

Tools Used

• Simulation and Testing: Ansys, Star CCM+

• Design: SolidWorks, Altair, Diabatix

Ideal Profile
Motivated and committed students. Mechanical, Chemical, or Energy Engineering students can bring key knowledge, but any student with interest and dedication can take on the challenge.

Responsibilities
Manage the electronic-dynamic control of the single-seater, focusing on:

• Integrating driver-assistance systems to enhance stability and driver confidence

• Optimizing power delivery to the motors to maximize performance and efficiency

• Virtually modeling the car to validate control algorithms

• Collaborating closely with Main ECU, Sensorics, Motors & Inverters, and Tyres

Tools Used

• Vehicle Parameters: MATLAB and SolidWorks

• Modeling and Simulations: CarMaker (IPG Automotive)

• Algorithm Design and Data Visualization: MATLAB/Simulink

Ideal Profile
Mechanical engineering students with strong knowledge of vehicle dynamics and analytical skills. Programming experience is valued, and strong communication with other departments is required.

Responsibilities
Be part of the hardware team and collaborate in designing the electronic architecture of the single-seater, starting from scratch.

• Defining requirements and objectives for the prototype

• Researching solutions to meet the goals

• Designing and validating PCBs, and integrating them with other car components

Tools Used

• PCB Design: Altium

• Circuit Simulation: SPICE

• PCB Soldering and Handling Electronic Equipment

Ideal Profile
Electronic or Electrical Engineering students.

Responsibilities
In the Software department, you will be responsible for programming the ECUs of the single-seater.

• Writing and testing code to ensure the efficiency and proper functioning of the electronic control units (ECUs).

Tools Used

• Vector CANoe

• STM32

• C Programming

Ideal Profile
Electronic or Electrical Engineering students.

Responsibilities
The Connectivity department is responsible for designing and manufacturing the car's wiring, the nervous system that enables efficient communication between all components.

Tools Used

• SolidWorks

• Altium

• RapidHarness

Ideal Profile
Electronic or Electrical Engineering students.

Responsibilities
Design, manufacture, and integrate the electric motors and inverters for the single-seater.

• Develop our own motor, optimized to maximize power density and efficiency.

• Design and control SiC-based inverters, ensuring optimal performance of the powertrain.

Tools Used

• Electrical/Thermal Simulation and Analysis: Altair, Batemo, FEMM

• Mechanical and Structural Design: SolidWorks

Ideal Profile
Electrical, Electronic, or Mechanical Engineering students with an interest in electric propulsion systems and applied design. Previous experience in applied engineering is valued, but the most important thing is the motivation to learn and actively participate in the development of the powertrain.