HOW TO BECOME AN
F1 SYSTEMS ENGINEER
A complete career guide – skills, qualifications, salary, and how to break in.
A modern Formula 1 car is a breathtakingly complex machine, a network of interconnected hydraulic, electronic, and software systems all working in harmony to deliver performance.
The Systems Engineer is the conductor of this orchestra.
They are responsible for the design, integration, and operation of the car’s many control systems, ensuring they function flawlessly and interact with each other to extract the maximum performance from the car.
Their domain is the car’s central nervous system. This includes everything from the seamless-shift gearbox and the powerful drag reduction system (DRS) to the intricate power unit controls and the data acquisition network.
They work at the intersection of hardware and software, writing the control logic that governs how these systems behave and ensuring they are reliable under the extreme stresses of a race weekend. It is a role that demands a multi-disciplinary mindset, blending mechanical, electronic, and software engineering skills.
WHAT DOES AN F1 SYSTEMS ENGINEER ACTUALLY DO?
The work of a Systems Engineer is a mix of control strategy design, software implementation, and hands-on testing. They are involved from the initial concept of a system to its operation at the racetrack.
A TYPICAL WEEK MIGHT INVOLVE:
- Defining system design and specifications, such as shift times and control strategies for gearboxes or safety protocols for new systems.
- Writing low-level control software for the car’s electronic control units (ECUs) using C/C++ and model-based tools like MATLAB/Simulink.
- Integrating new hardware and software onto the car, testing systems virtually with Hardware-in-the-Loop (HiL) simulators and physically on test rigs or the car.
- Monitoring system health and performance trackside during race weekends, diagnosing issues, and implementing fixes in real-time.
- Collaborating with Performance and Race Engineers to optimise system parameters like gearshift points, DRS activation logic, and differential settings.
SKILLS AND QUALIFICATIONS NEEDED
Systems Engineers need a broad and versatile engineering skillset that spans mechanical, electronic, and software disciplines.
EDUCATION
A degree in a multi-disciplinary field such as Mechatronics, Systems Engineering, or Control Engineering is ideal.
Degrees in Mechanical, Electrical, or Software Engineering are also common, provided they include relevant experience in control systems and embedded software.
GCSE's
- Mathematics
- Physics or Double/Triple Science
- Computer Science or Information Technology
A strong foundation in STEM subjects at GCSE level is essential for developing the analytical thinking and technical understanding required for systems engineering.
TECHNICAL SKILLS
- Strong understanding of control theory (e.g., PID control).
- Proficiency in programming, particularly C/C++ for embedded systems.
- Experience with model-based development tools like MATLAB/Simulink and Stateflow.
- Knowledge of vehicle dynamics, hydraulic systems, and electronics.
- Familiarity with data acquisition and analysis tools (e.g., ATLAS, System Monitor).
A-LEVELS
- Mathematics (mandatory)
- Physics (required)
- Further Mathematics, Computer Science, or Electronics (recommended)
High grades in these core analytical subjects are critical for admission to top engineering programmes. These subjects demonstrate aptitude for the multi-disciplinary demands of systems engineering.
SOFT SKILLS
- Holistic, systems-level thinking to understand how different car systems interact.
- Logical problem-solving skills to diagnose complex issues calmly under pressure.
- Excellent communication skills for effective collaboration with software developers, mechanics, and race engineers.
- Resilience to perform reliably in high-pressure, fast-paced trackside environments.
UNDERGRADUATE DEGREE
- Mechatronics or Systems Engineering (most direct route)
- Electrical and Electronic Engineering (strong focus on control systems and embedded software)
- Mechanical or Aerospace Engineering (with modules in control theory, data acquisition, and programming)
A BEng or MEng degree from a well-regarded university is the standard requirement. Participation in Formula Student, especially in EV or driverless categories, is highly advantageous.
All information on this page is given in good faith and you should always speak to a careers advisor before making any decisions about your career. Formula Careers can not be held responsible for any actions taken or outcomes, either positive or negative, as a result of following any information or suggestions on this page.
HOW TO BREAK IN: THE ENTRY PATH
The path to becoming an F1 Aerodynamicist is highly competitive. Here is the typical progression from school to the factory floor.
TARGET THE RIGHT EDUCATION
Choose a degree offering a strong mix of mechanical, electronic, and software disciplines. Specifically select modules in control systems, embedded software, and vehicle dynamics.
JOIN PRACTICAL PROJECTS
Gain hands-on experience by joining the controls or electronics sub-team in Formula Student. Actively work with real motorsport ECUs, sensors, and telemetry wiring looms.
MASTER INDUSTRY SOFTWARE
Develop advanced programming and model-based development skills. Start with Arduino to learn the basics of hardware-software integration, then progress to advanced microcontrollers like Teensy or STM32 to practice handling real-time automotive data networks (CAN bus).
SECURE RELEVANT INTERNSHIPS
Seek placements in systems, controls, or electronics departments of F1 teams or tier-one automotive suppliers. Prioritise roles where you can gain experience with Hardware-in-the-Loop (HiL) simulation.
TARGET GRADUATE ROLES
Apply directly for Graduate Systems Engineer or Control Engineer positions. Ensure your CV highlights multi-disciplinary projects and a flawless fundamental understanding of control theory.
SALARY RANGE
SALARY SNAPSHOT (Estimated)
Graduate/Junior Systems Engineer – £33,000-£45,000
Mid-Level Systems Engineer – £45,000-£75,000
Senior/Principal Systems Engineer – £75,000-£110,000
Figures are estimates and can vary based on team, experience and performance-related bonuses. Confidence: High (verified from multiple F1/motorsport-specific sources)
FACTORY-BASED OR TRACKSIDE?
TWO SPECIALISED DEPARTMENTS
Systems Engineering roles exist both at headquarters and on the road, but engineers typically specialise in one dedicated environment.
Factory-based systems engineers focus entirely on coding control strategies, architectural design, and Hardware-in-the-Loop (HiL) simulations.
Trackside systems engineers travel with the race team to manage live operations, monitor sensor telemetry, and troubleshoot errors in real-time.
WORK SCHEDULE
The day-to-day schedule depends entirely on your chosen department.
Factory roles provide a structured office routine, which scales into intensive development periods ahead of a car launch.
Trackside roles require extensive global travel across a 24-race calendar, demanding long, high-pressure shifts during Grand Prix weekends and the resilience to live out of a suitcase.
This clear division allows Systems Engineers to align their career with their lifestyle, choosing between a stable factory R&D environment or the high-intensity demand of live trackside engineering.
FREQUENTLY ASKED QUESTIONS
How much software development is involved in this role?
A lot. While you are not a pure software developer, a significant portion of a Systems Engineer’s time is spent writing, testing, and debugging embedded code, alongside creating control models in tools like Simulink.
Strong programming foundations and logical problem-solving skills are absolutely essential for daily operations.
What is Hardware-in-the-Loop (HiL) simulation?
HiL is a critical testing technique where physical components – such as the real Electronic Control Unit (ECU) – are connected to a high-powered computer simulating the rest of the car (the “loop”).
This configuration allows Systems Engineers to safely test control software and electronics in a repeatable virtual environment, catching potential bugs before the car ever hits the physical track.
Is this role suitable for someone who likes variety?
Absolutely. Systems Engineering is arguably one of the most varied and dynamic roles in modern motorsport.
On any given day, you might discuss physical component packaging with a Mechanical Design Engineer in the morning, debug embedded C code in the afternoon, and troubleshoot real-time sensor faults with mechanics in the pit garage over a race weekend.
A SELECTION OF UNIVERSITIES IN THE UK WHICH OFFER A RELEVANT ENGINEERING PROGRAMME
(Formula Careers does not endorse any particular University, and all educational establishments are listed in no particular order)
Cranfield University
Relevant Degree Programme
Advanced Motorsport Mechatronics MSc (Postgraduate)
Why It’s Relevant
A highly specialised postgraduate course focusing heavily on advanced control systems, multi-domain computer modelling, and high-speed in-vehicle communication networks, backed by elite F1 industry links and simulators.
University of Bath
Relevant Degree Programme
Integrated Mechanical and Electrical Engineering MEng
Why It’s Relevant
Universally recognised as one of the most targeted undergraduate institutions by F1 teams. Their Formula Student team (Team Bath Racing) is historically one of the most successful in the UK, and this specific joint-honours degree perfectly balances mechanical hardware with control software.
Loughborough University
Relevant Degree Programme
Automotive Engineering BEng/MEng
Why It’s Relevant
Features unique practical testing access via the world-class HORIBA MIRA proving ground, delivering hands-on development expertise in real-world vehicle electronic systems and structural design.
University of Leeds
Relevant Degree Programme
Mechatronics and Robotics Engineering MEng/BEng
Why It’s Relevant
Explicitly blends microprocessor layout design, active electronics, mechanical packaging, and algorithmic control logic – the fundamental components comprising an F1 car’s digital nervous system.
University of Sheffield
Relevant Degree Programme
Systems and Control Engineering BEng/MEng
Why It’s Relevant
Explicitly blends microprocessor layout design, active electronics, mechanical packaging, and algorithmic control logic – the fundamental components comprising an F1 car’s digital nervous system.
University of Warwick
Relevant Degree Programme
Systems Engineering BEng
Why It’s Relevant
Provides an exceptional fundamental grounding in complex multi-disciplinary systems modelling, embedded software architectures, and automated control theory directly applicable to grid-level systems engineering.
University of Southampton
Relevant Degree Programme
Mechatronic Engineering BEng
Why It’s Relevant
Focuses specifically on the development of intelligent machines, combining mechanical dynamics, sensor suites, electrical power deployment, and low-level microprocessor programming.
Imperial College London
Relevant Degree Programme
Aeronautical Engineering MEng (or Electrical and Electronic Engineering)
Why It’s Relevant
Imperial is a primary feeder school for the F1 grid. While known for aerodynamics, their engineering programmes feature heavy computational mechanics, data science, and advanced simulation modules that make their graduates highly competitive Systems applicants
Oxford Brookes University
Relevant Degree Programme
Motorsport Engineering BEng/MEng
Why It’s Relevant
Renowned for immediate trackside and factory graduate pipeline placement, offering tailored modules covering vehicle control systems, telemetry systems, and advanced thermodynamics.
Coventry University
Relevant Degree Programme
Motorsport Engineering BEng/MEng
Why It’s Relevant
Positioned directly in the Midlands motorsport hub, Coventry has massive historical links to the industry. They have exceptional on-campus simulation facilities, and their modules focus heavily on active vehicle electronics and sensor integration.