Are you looking to upskill fast in advanced manufacturing technologies and tackle critical skill gaps in the UK Aerospace industry? At 3D 360, we offer comprehensive training programmes that are funded and free to eligible learners. Whether you are a seasoned professional or new to the sector, our courses will help you stay ahead of the curve and secure a strong footing in an industry that is vital to the UK economy.
The UK’s aerospace sector is diverse, spanning commercial aviation, defence, unmanned aerial vehicles (UAVs), and space technology, including satellite manufacturing and launch services.
According to ADS (the national trade association for aerospace, defence, security, and space), this broader aerospace industry supported over 427,000 direct jobs and generated a turnover of approximately £88.4 billion in 2024.
The Aerospace Growth Partnership (AGP) notes that advanced manufacturing—encompassing robotics, additive manufacturing, digital design, and data analytics—is core to meeting the international demands for lighter, more efficient, and more capable aerospace technologies.
However, skills shortages persist as the AGP indicate aerospace employers struggle to recruit enough engineers and technicians with expertise in advanced manufacturing technologies.
We have designed a DWP Funded Skills Bootcamp that covers a range of sought-after subjects, ensuring you or your team can master the latest methods and technologies used in the aerospace sector. You can enrol in the complete Bootcamp or choose individual fast upskilling courses if you need more focused learning.
From fuselage and wing designs in commercial aviation to satellite chassis modelling, 3D CAD is fundamental for precise structural analysis and weight optimisation.
Aerospace propulsion units (including jet engines, rocket nozzles, and hybrid-electric drive systems) rely on CAD for fine-tuning component geometry and material interfaces. Housing units for avionics or UAV flight-control enclosures are also modelled with CAD to ensure protection from environmental stresses.
ADS indicates a 15–20% increase in demand for skilled CAD designers over the next five years, fuelled by new aircraft and satellite programmes. Howeever, a shortage of designers adept in ares such as composite structures and electro-mechanical systems hinders advanced projects, especially in space technologies and electric flight.
From concept to production, learn the skills needed to create 3D CAD models and accelerate design cycles, making you invaluable in modern aerospace manufacturing.
3D Printing has many established and emerged applications in aircraft and wider aerospace requirements.
In prototyping, it is used for quick-turnaround prototypes for satellite bus panels, rocket nozzle thrusters, or UAV components, cutting development cycles. It’s also used in functional parts including flight-critical components such as fuel nozzles, bracketry, or unmanned aerial vehicle (UAV) frames. These are already produced additively using titanium or aluminium alloys. 3D Printing is also used in the manufacturing of tooling, fixtures, jigs and customised assembly aids for rapid adaptation in both airframe and space vehicle production lines.
Manufacturing previously unmanufacturable and complex geometries has become frequent case studies. GE Aviation used a 3D printed fuel nozzle that combined all 20 separate parts into a single unit. This nozzle weighed 25 percent less than a conventional alternative, was over five times as durable and achieved a 30 percent cost efficiency improvement.
Another example involves the Airbus bulkhead, which achieved a 30kg weight reduction (equivalent to taking 96,000 cars off the road for a year) and saved 3,180kg of fuel per partition per year. It also cut 166 metric tonnes of CO2 emissions per plane per year, significantly lowering its carbon footprint while using just 5 percent of the raw materials.
Further case studies include GKN Aerospace using additive manufacturing to produce complex aerostructures such as wing leading edges to reduce drag. Reaction Engines is also exploring 3D printed heat exchangers for potential next generation propulsion systems, reducing both weight and manufacturing costs.
AGP reports a 20% annual increase in additive manufacturing adoption. Despite this, there is a shortage of engineers trained in design for additive manufacturing (DfAM) and in certifying flight-critical parts for airworthiness or space applications .
This hands-on course covers building and maintaining a 3D printer, printing techniques, materials and real-world applications, helping you speed up workflows and reduce costs.
The UK aerospace sector is embracing Industry 4.0, integrating smart factories, digital twins, and connected supply chains to enhance efficiency and precision.
Sensor-equipped production lines track assembly variables in real time, ensuring quality and reducing errors. Digital twins—virtual models of aircraft, satellites, or manufacturing processes—enable predictive maintenance and design refinements, improving reliability.
Supply chains are becoming more connected, with real-time data exchange between suppliers, OEMs, and operators improving just-in-time delivery and minimising bottlenecks. Leonardo Helicopters in Yeovil has adopted these technologies to enhance supply chain integration and subassembly tracking, resolving production issues faster. Similarly, BAE Systems’ ‘Factory of the Future’ uses automated data capture to predict and prevent production issues in combat aircraft manufacturing.
Despite growing investment, skills shortages remain a challenge. Make UK reports that while 40% of aerospace firms plan to expand digital transformation, 60% struggle to find qualified systems engineers, data scientists, and Industry 4.0 specialists. Upskilling will be critical to unlocking the sector’s full potential.
Robotics plays a significant role in aerospace manufacturing especially repetitive tasks such as riveting, drilling, and fastening operations for airframes or satellite structures, improving consistency.
It is also used in processes such as composite layup (layering and curing composite materials to create a finished product) through the use of robotic arms placing carbon fibre piles with precision to reduce defects. They also play a part in inspection and maintenance through the use of automated guided vehicles (AGVs) or drones to inspect large structures (fuselages, wind tunnel test models), capturing high-resolution data
Spirit AeroSystems deployed robotic composite layup for aircraft fuselage sections at Prestwick, Scotland, boosting production capacity while maintaining strict tolerances. Thales Alenia Space (in partnership with local UK suppliers) use automation to assemble satellite components more rapidly and accurately, cutting lead times.
The NWAA points out that while robotics can raise productivity by up to 25%, adoption is hindered by a lack of trained robotic engineers and technicians able to integrate new systems into aerospace-grade processes
This course module provides an essential foundation in robotics, covering everything from industrial applications to new developments, ensuring participants are prepared for this rapidly advancing field.
Virtual reality, augmented reality and digital twins are increasingly adopted in aerospace in numerous applications.
Virtual Reality examples include pilot, astronaut or technician training in which VR scenarios simulate complex tasks without the need for physical prototypes. Through Augmented Reality, wearable devices overlay instructions on real components (e.g. rocket engines, UAV fuselage sections), reducing assembly errors. Digital Twinning is used through the creation of parallel digital models of entire satellites or UAVs to simulate flight conditions, track in-orbit performance, or update ground crew on anomalies.
Rolls-Royce employs digital twins for aircraft engines, but also extends these models into VR for training ground crews on maintenance tasks. In-Space Missions (Hampshire) rely on AR-based guidance for satellite subsystem integration, providing real-time assembly data and reducing mistakes in harness routing and sensor placement.
ADS identifies a rapid expansion in roles for simulation engineers, AR/VR developers, and systems integrators as British aerospace firms invest in these technologies for training, design and operations.
Let us introduce you to these new and exciting technologies.
Aerospace firms continue to rapidly adopt these technologies. AI-Driven Design and Testing is achieved through machine learning algorithms to accelerate aerodynamic simulations or structural evaluations, guiding engineers to optimal solutions faster.
Predictive Maintenance applications include the monitoring of aircraft, spacecraft or production lines using big data analytics to forecast component wear, thereby avoiding unplanned downtime. And as aerospace systems become more interconnected, safeguarding designs, IP, and mission-critical data must be protected against cyber threats
Rolls-Royce gathers real-time data on thousands of engines in service, applying AI to spot anomalies and schedule timely maintenance. While QinetiQ Cyber Range provides secure environments to test emerging UAV, satellite and flight software systems for vulnerabilities.
AGP highlights an annual rise in AI and data-centric roles for aerospace, but there remains a persistent shortfall in AI specialists with domain knowledge, as well as in engineers with a grounding in cybersecurity standards like ISO 27001 or cyber-physical systems best practices.
Our course, provides foundational knowledge in these areas.
In the UK aerospace sector, the integration of networked sensors is transforming manufacturing processes. Assembly lines for airframes and satellite components now rely on these advanced systems to monitor production variables, providing real-time data to control systems that enhance efficiency and precision.
Beyond manufacturing, asset tracking plays a crucial role in maintaining the integrity of the supply chain. High-value aerospace components move between multiple suppliers, and ensuring their traceability is vital for compliance with strict industry standards. By leveraging sophisticated tracking technologies, manufacturers can guarantee the authenticity and quality of critical parts.
Predictive maintenance is another key advancement, driven by Industrial Internet of Things (IIoT) data. Whether applied to ground support equipment or UAV fleets, these insights help identify potential failures before they occur, reducing downtime and improving overall reliability. This data-driven approach not only enhances operational efficiency but also contributes to the long-term sustainability of aerospace assets.
Job growth trends in IIoT are positive, with advanced analytics, data fusion and edge computing roles opening across major aerospace players and their suppliers. However, the the UK must train more engineers with the capability to integrate sensors, secure networks and interpret data effectively.
Make UK notes that over half of aerospace manufacturers plan to invest in connected systems but lack multi-disciplinary engineers to implement sensor data collection, industrial networking, and cloud analytics
Additive manufacturing (AM) is revolutionising aerospace with custom production, on-demand manufacturing, and rapid prototyping. UAV and small-satellite manufacturers use AM for structural components and sensor housings, enabling fast customisation.
On-demand printing of spare parts for older aircraft and satellites reduces lead times and inventory costs. Commercial prototyping services now support multiple aerospace primes, from early designs to flight-grade components.
Digital product design is also advancing, with optimised 3D files for specialised materials like space-grade aluminium and nickel alloys, allowing production across multiple sites.
The Aerospace Technology Institute (ATI) predicts AM could add up to £5 billion to UK aerospace by 2035 if workforce skills keep pace. Demand is high for DfAM engineers, post-processing technicians, and materials scientists, making training and upskilling essential for future industry growth.
By investing in these skills, you’ll be well-positioned to contribute to the UK’s ambitious goals in the aerospace sector. You can choose from a range of funded and bespoke training courses.
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