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Aerospace Engineer
Aerospace Engineers are at the forefront of innovation, designing and developing aircraft, spacecraft, and related systems that push the boundaries of technology and performance. Their work not only fuels the aviation and space industries but also contributes significantly to advancements in sustainability and safety on a global scale.
Degree usually required
AI impact: low££££ payUni route
32
AI impact
how much AI is reshaping it
Robin · your guide
Curious about being a aerospace engineer? Here's the honest picture - what you'd really do, what you'd earn, and every way in. No need to decide anything yet.
What you'd actually do
Aerospace Engineering is a dynamic and challenging field that combines principles of engineering, physics, and materials science to design, develop, and test aircraft and spacecraft. As an Aerospace Engineer, you will be tasked with solving complex problems and innovating solutions that can have a profound impact on the future of air travel and space exploration.
In your role, you will find yourself immersed in a collaborative environment where creativity and technical expertise converge. You will work alongside a diverse team of engineers, scientists, and technicians, all committed to pushing the limits of what is possible in aerospace technology. This role demands not only a strong foundation in engineering principles but also a passion for innovation and a commitment to excellence.
- Design and Development: You will be responsible for creating detailed designs for aircraft and spacecraft, ensuring that they meet stringent safety and performance criteria.
- Analysis and Simulation: Utilizing cutting-edge software, you will perform simulations to predict how designs will behave under various conditions, helping to refine and optimize your projects.
- Testing and Evaluation: Overseeing the testing of prototypes, you will analyze data to identify areas for improvement and ensure that final products meet all regulatory requirements.
- Regulatory Compliance: Keeping abreast of the latest aviation and aerospace regulations is crucial, as you will need to ensure that all designs and processes adhere to these standards.
- Project Management: You will engage in project management tasks, balancing budgets, timelines, and resources while maintaining a focus on innovation and quality.
- Continuous Learning: The aerospace field is ever-evolving, and you will need to stay updated on new technologies, materials, and methodologies to maintain a competitive edge.
- Client Interaction: Regularly interfacing with clients and suppliers, you will address technical queries and ensure that project requirements are met effectively.
- Team Collaboration: You will contribute to a team-oriented atmosphere, where brainstorming and sharing ideas can lead to groundbreaking advancements in aerospace technology.
Working as an Aerospace Engineer offers a fulfilling career path filled with opportunities for growth and advancement. The challenges you face will be significant, but the rewards—both personal and professional—are immense. From contributing to the development of sustainable aviation solutions to being part of missions that explore the cosmos, your work will have a lasting impact on the world.
1Conducting detailed analyses of aerospace systems and components to ensure performance and safety standards are met.
2Collaborating with multidisciplinary teams to develop design specifications and requirements for new aerospace projects.
3Utilizing advanced software tools for simulation and modeling to predict the behavior of aerospace systems under various conditions.
4Preparing and presenting technical reports and documentation to stakeholders, ensuring clarity and compliance with industry regulations.
5Overseeing testing procedures for prototypes, analyzing results, and implementing necessary design modifications.
6Engaging in continuous professional development to stay abreast of the latest technologies and industry trends.
7Participating in project management activities, including budgeting, scheduling, and resource allocation.
8Interfacing with clients and suppliers to ensure project alignment and address technical queries.
Career progression & pay
01
Getting in
Junior Aerospace Engineer
£30,000 - £40,000
BSc in Aerospace Engineering or related field
In this entry-level role, you will assist in the design and testing of aerospace systems, gaining hands-on experience and learning from senior engineers.
02
Building up
Mid-level Aerospace Engineer
£50,000 - £70,000
3-5 years experience + relevant certifications
As a mid-level engineer, you will take on more complex projects, lead small teams, and contribute to the development of innovative aerospace solutions.
03
At the top
Senior Aerospace Engineer/Head of Engineering
£80,000+
10+ years, chartered status with RAeS
In a senior role, you will oversee major projects, mentor junior engineers, and drive strategic initiatives within the organisation.
Degrees that lead here via Engineering and Technology
Acoustics
Skyborne Aviation Training Limited
Advanced Manufacturing and Operations
Coleg Sir Gar
Aero-Mechanical Engineering
University of Strathclyde
Aero-Mechanical Engineering
University of Strathclyde
Aeronautical and Aerospace Engineering
The University of Leeds
Aeronautical and Aerospace Engineering
The University of Leeds
Apprenticeships that lead here
Aerospace engineer
Engineering and manufacturing
Level 6 · Degree4 yrs
Aerospace engineering technician
Engineering and manufacturing
Level 3 · A-level4 yrs
Engineering operative
Engineering and manufacturing
Level 2 · GCSE level1 yrs
Powered pedestrian door installer and service engineer
Construction and the built environment
Level 2 · GCSE level2 yrs
Engineering and manufacturing foundation apprenticeship
Engineering and manufacturing
Level 2 · GCSE level0.7 yrs
Building service engineering foundation apprenticeship
Construction and the built environment
Level 2 · GCSE level0.7 yrs
Who hires - top UK employers
BAE Systems
A global leader in aerospace and defence, BAE Systems offers exciting opportunities for engineers to work on cutting-edge projects.
Airbus
Airbus is a pioneer in aerospace innovation, providing engineers with the chance to work on some of the most advanced aircraft in the world.
Rolls-Royce
Known for its high-performance engines, Rolls-Royce is an excellent employer for aerospace engineers looking to make an impact in the aviation industry.
GKN Aerospace
GKN Aerospace is a leading global tier one aerospace supplier, offering diverse opportunities in engineering and manufacturing.
QinetiQ
QinetiQ provides innovative engineering solutions and is a great place for aerospace engineers to work on defence and security projects.
AI & the future of this job
Aerospace engineering sits in a strong position relative to AI disruption because the core work demands physical validation, regulatory accountability, and safety-critical judgement that no current AI system can own. AI tools are already accelerating simulation, optimisation loops, and technical documentation, but an engineer still needs to sign off on designs that could carry 400 people at 35,000 feet. The profession is being augmented rather than replaced, with junior roles shifting towards interpreting AI-generated outputs rather than producing raw calculations by hand. Demand from defence, space commercialisation, and sustainable aviation is growing faster than AI is contracting the workforce.
Within 5 Years
Workflow acceleration, stable hiring
By 2031, AI-driven simulation and generative design tools will handle first-pass structural optimisation and aerodynamic modelling at speeds that previously required weeks of engineer time. Graduate roles will increasingly involve evaluating, challenging, and refining AI-generated proposals rather than building models from scratch. This raises the baseline skill expectation at entry level, but does not meaningfully shrink headcount given the volume of new programmes in sustainable aviation and low-Earth orbit. Engineers who learn to work fluently with these tools in their first two years will accelerate into mid-level responsibility faster than previous cohorts.
Within 10 Years
Deeper AI integration, premium on systems thinking
Over a decade, AI agents will likely own most routine stress analysis, compliance checking against known standards, and the generation of technical documentation drafts. What grows in value is the ability to hold an entire complex system in your head, spot failure modes that optimisation algorithms miss, and negotiate across disciplines including propulsion, materials, avionics, and certification bodies. Aerospace engineers who specialise narrowly in one computational task are more exposed, while those with broad systems engineering capability become harder to replace. The physical test campaign, regulatory approval process, and cross-supplier integration will remain deeply human-led work.
Within 20 Years
Transformed role, enduring demand
Two decades out, the engineering function will look substantially different, with AI systems likely autonomous in design iteration and predictive maintenance across large fleets. However, the engineer's role as the accountable professional who defines requirements, interprets anomalies, and makes final safety decisions will persist because regulators and public trust require a named human in that position. Physical robotics capable of replacing hands-on inspection, assembly verification, and field modification remain far from reliable in the complex geometries of aerospace structures. The profession will almost certainly have contracted slightly in total headcount but elevated sharply in the seniority and breadth expected of each practitioner.
How to stay ahead
Master AI-assisted simulation tools early
Platforms like ANSYS, MATLAB with AI extensions, and emerging generative design environments are already standard in industry. Getting fluent with these during your degree, not just at surface level but understanding their assumptions and failure modes, means you enter the workforce as someone who can critically use AI rather than be intimidated by it. This positions you as an asset in teams adopting new toolchains rather than a liability being retrained.
Build systems engineering breadth alongside specialism
Narrow computational specialists face more exposure as AI absorbs routine analysis tasks. Pursue coursework, placements, or projects that force you to understand how propulsion, structures, avionics, and manufacturing interact as a whole. Engineers who can hold system-level conversations across disciplines are the ones chairing design reviews and leading programmes, roles where human judgement and communication are irreplaceable.
Pursue certification and regulatory literacy
Understanding how EASA Part 21, DO-178C for software, or ECSS space standards constrain what can be designed and how it must be verified is knowledge that AI cannot currently navigate autonomously. Regulatory frameworks require human accountability and continuous interpretation as standards evolve. An engineer who understands compliance not just as a checkbox but as a design input becomes genuinely difficult to substitute.
Target growth sub-sectors during placements
Sustainable aviation, urban air mobility, small satellite constellations, and hypersonics are all expanding faster than the traditional commercial aircraft market. Use your industrial placement year to get into one of these areas, because the engineering challenges are newer, the AI tooling is less mature, and the demand for human ingenuity remains highest. Early-career exposure in a growth sub-sector also builds a professional network in the places hiring will remain strongest over the next decade.
How to get in - your routes
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