Are you looking to upskill fast in advanced manufacturing technologies and tackle critical skill gaps in the UK orthotics 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 orthotics sector provides medical devices such as braces, splints, foot orthoses (insoles), and other supportive products designed to correct or accommodate biomechanical issues.
Often working in tandem with the NHS and private clinics, the sector includes orthotists, device manufacturers, and supply chain partners producing everything from ankle-foot orthoses (AFOs) to knee braces. While smaller than some other medical device segments, orthotics is a critical part of the broader healthcare technology industry, which, according to the Association of British HealthTech Industries (ABHI), contributes over £17.5 billion to the UK economy.
The British Healthcare Trades Association (BHTA) has noted an increase in demand for advanced, customised orthotic solutions, driven by an ageing population, rising obesity rates, and greater emphasis on mobility and quality of life.
However, the Office for Life Sciences (OLS) and Make UK point to significant skills gaps in digital manufacturing, particularly as clinics and manufacturers explore advanced materials, automation, and data-driven processes Closing these gaps is essential for the UK orthotics sector to remain competitive and capable of delivering high-quality devices cost-effectively.
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 orthotics sector. You can enrol in the complete Bootcamp or choose individual fast upskilling courses if you need more focused learning.
The use of 3D CAD in the orthotics sector is transforming how custom devices are designed and produced, improving precision, efficiency, and patient outcomes.
In foot orthoses design, clinicians scan patients’ feet, allowing engineers or technicians to use CAD tools to model custom insoles or arch supports with highly accurate geometry. Bracing systems, including knee braces, ankle-foot orthoses, and spinal supports, can also be digitally modelled to optimise weight distribution, range of motion, and overall comfort. Additionally, some orthotic housings and components incorporate decorative or brand-specific elements through CAD-based surface modelling, enabling greater cosmetic customisation.
Organisations already leveraging digital design tools include DM Orthotics, which refines its dynamic movement orthoses using CAD to enhance compression garments and braces for improved accuracy and patient outcomes. NHS Orthotic Services has also trialled CAD-based workflows in selected trusts to produce foot insoles, significantly reducing turnaround times while maintaining a high level of precision.
The growing adoption of digital techniques is driving job market changes. The British Healthcare Trades Association (BHTA) forecasts a 15–20% increase in demand for CAD-proficient technicians and engineers as more clinics transition from manual plaster casting to digital scanning. However, smaller providers face challenges in recruitment due to limited awareness of these specialised roles. As the industry continues to digitise, bridging this skills gap will be key to supporting wider adoption and ensuring patients benefit from the latest advancements in orthotic design.
The application of 3D printing in the orthotics sector is streamlining production processes and enhancing patient outcomes through greater precision and customisation.
Custom insoles can be shaped with a high degree of accuracy, improving comfort and arch correction for individual patients. The technology also allows for the creation of lightweight braces, where complex lattice structures reduce overall weight while maintaining essential support in devices such as ankle and wrist braces. Additionally, 3D printing facilitates rapid prototyping, enabling clinics and manufacturers to test new bracing concepts, gather feedback, and refine designs before committing to full-scale production.
Several organisations are already exploring the potential of additive manufacturing in orthotics. OpenOrtho collaborative projects, involving UK-based SMEs and NHS labs, are investigating polymer-based 3D printing for foot orthoses, significantly reducing manufacturing times from weeks to days. Some orthotic labs using EOS-based additive systems are producing robust polymer footplates with customised geometries to accommodate a range of patient pathologies.
As adoption of 3D printing increases, job market trends indicate a growing need for specialised skills. The Office for Life Sciences notes a rising demand for technicians with expertise in additive manufacturing, particularly those who understand both the mechanical properties of printed materials and patient safety requirements. While this demand remains moderate, it is expected to expand as more clinics and orthotic providers integrate 3D printing into their workflows. Addressing these skills gaps will be crucial to ensuring the full benefits of this technology are realised across the sector.
The adoption of Industry 4.0 technologies in the orthotics sector is enhancing efficiency, reducing waste, and improving production workflows.
Smart production lines equipped with sensors allow real-time monitoring of material usage, quality metrics, and process times, ensuring greater consistency in orthotic shell manufacturing. Digital twins of manufacturing environments provide virtual replicas of production lines, enabling technicians to test workflow adjustments or scale capacity to meet fluctuating demand, such as an increase in sports-related injuries or seasonal foot conditions. Automated supply chains further streamline operations by facilitating real-time data exchange, ensuring that clinics producing orthoses in-house maintain adequate stocks of essential materials like polymer sheets, fasteners, and adhesives.
Several industry initiatives are already leveraging these technologies. Orthotic factory trials are exploring sensor-based production lines for milling footbeds, with the goal of reducing material waste and improving efficiency. NHS Supply Chain pilots are testing digital integration between raw material suppliers and orthotic manufacturers, enabling just-in-time ordering to optimise inventory management and reduce delays.
The shift towards digital manufacturing is also driving changes in workforce requirements. However, many orthotic firms face challenges in recruitment, as they lack staff with expertise in data analytics and sensor integration. Addressing these skills gaps will be essential for fully realising the benefits of Industry 4.0 in orthotic production.
The integration of robotics and automation in the orthotics sector is streamlining production, improving consistency, and reducing manual labour.
Automated milling systems, including robotic arms and CNC units, can efficiently shape foot orthoses from foam blocks or other materials, enabling large-scale production with minimal human intervention. In advanced bracing applications, automated composite layup systems precisely apply carbon fibre reinforcement, ensuring consistent product quality. Robotic finishing and polishing further enhance production by trimming, smoothing, and buffing braces or foot orthoses, resulting in uniform edges and a better overall fit.
Several organisations are already adopting these technologies. Specialist orthotic labs in the Midlands have implemented robotic and CNC-based shaping for high-volume insole production, significantly reducing labour costs and turnaround times. Research collaborations with UK universities are also working to refine robotic methods for layering composite materials, improving the production of knee braces and upper-limb supports.
While automation is gradually gaining traction in orthotic production, wider adoption faces challenges. The British Automation and Robot Association (BARA) notes incremental growth in the use of robotics within the sector, but smaller workshops often struggle with the capital investment and technical expertise required to implement these solutions. A shortage of skilled robotics engineers further limits expansion, highlighting the need for specialised training and support to help orthotic providers take full advantage of automation technologies.
The use of VR, AR, and digital twins in the orthotics sector is enhancing patient care, clinician training, and device optimisation.
Virtual fittings allow clinicians to simulate brace alignment or insole contouring in a digital environment, helping patients visualise the final device before production. Training orthotists with VR modules provides immersive learning experiences, replicating real patient scenarios from scanning to brace application without the need for a clinical setting. Digital twins offer further benefits by integrating real-time data from a user’s orthosis, allowing clinicians to fine-tune design parameters and alignment in a virtual model before making physical adjustments.
Several research initiatives are already exploring these technologies. UK academic institutions are partnering with orthotic providers to develop AR-based measurement and fitting aids, improving brace alignment accuracy. In parallel, gait simulation platforms are being tested in collaboration with NHS physiotherapy departments, using digital twins and real-time gait data from wearable sensors to refine insole geometry.
While these innovations hold significant potential, adoption remains in the early stages. The Association of British HealthTech Industries (ABHI) notes that VR and AR solutions for orthotics are still developing, but as immersive technologies mature, new cross-disciplinary roles will emerge. Orthotists will need to acquire digital skills to incorporate scanning, VR, and AR tools into their daily practice, ensuring they can fully leverage these advancements to improve patient outcomes.
The integration of AI, big data, and cyber security in the orthotics sector is improving diagnostics, refining device performance, and ensuring data protection.
AI-powered diagnostics can analyse foot pressure maps and patient biomechanics to suggest optimal orthotic designs or necessary adjustments, reducing reliance on manual interpretation. Smart braces and insoles equipped with embedded sensors provide usage analytics, transmitting data on wear patterns and movement. This enables clinicians to refine device shapes, materials, and overall effectiveness. As digital technologies become more prevalent, cyber security is a growing priority, ensuring that sensitive patient gait data, device usage logs, and proprietary bracing designs are protected from unauthorised access.
Several initiatives are already leveraging these advancements. Some start-ups, partially funded by Innovate UK, are embedding sensors in smart insoles to collect extensive patient movement data. Machine learning algorithms are then used to detect anomalies or identify cases of poor compliance, allowing for early intervention. Meanwhile, NHS digital partnerships are ensuring that connected orthotic devices meet strict data protection standards, safeguarding patient information and clinical insights.
With the rise of data-driven solutions, the demand for specialised skills is increasing but recruiting professionals with expertise in AI frameworks and medical device regulations remains a challenge. Addressing this skills gap will help harness the potential of AI and big data while maintaining patient safety and data security in orthotic care.
The adoption of Industrial Internet of Things (IIoT) technologies in the orthotics sector is enhancing production efficiency, inventory management, and patient monitoring.
Connected CNC and milling machines enable real-time tracking of tool wear, throughput, and production queues for footbeds and brace components, improving workflow management and reducing downtime. Smart inventory management systems use sensors and automated tracking to monitor raw materials such as thermoplastics and carbon sheets across multiple clinics, ensuring just-in-time restocking and minimising waste. Wearable device telemetry adds another layer of innovation, with advanced orthoses measuring gait patterns or joint angles and transmitting data to clinicians for remote monitoring and post-fitting adjustments.
Some UK orthotic labs are already linking milling stations and 3D printers to centralised dashboards, allowing for better production scheduling and status alerts. In parallel, NHS collaborations are trialling sensor-enabled braces that log usage data, providing physiotherapists with insights into patient compliance and recovery progress.
As IIoT adoption grows, so does the demand for specialised skills. Make UK’s analysis forecasts a rise in roles requiring expertise in sensor integration, data analysis, and secure networking for connected medical devices, including orthoses. However, many orthotic providers lack the necessary IT infrastructure to fully implement IIoT solutions, highlighting the need for investment in digital capabilities and workforce training to unlock the full potential of connected technologies in the sector.
The commercialisation of additive manufacturing in the orthotics sector is enabling production processes, offering greater flexibility, faster turnaround times, and new business models.
Custom production enables the on-demand printing of bespoke insoles and ankle braces tailored to individual patients, reducing the need for large inventories of standard sizes. On-demand manufacturing also ensures quick delivery of urgent orthotic solutions, such as post-operative braces or paediatric corrections, addressing immediate patient needs more efficiently. Some orthotic labs and specialised bureau services focus on prototyping, producing short-run batches of new brace designs to verify their form and function before full-scale production. Additionally, digital product design is opening new commercial opportunities, allowing practitioners to license or sell 3D model files globally, supporting local printing solutions in different regions and expanding access to custom orthotics.
Several businesses and initiatives are already embracing these advancements. Smaller UK clinics and manufacturers are marketing branded 3D-printed foot orthotics, highlighting faster lead times and improved fit for patients. Innovate UK-funded projects are also exploring open-source orthotic designs that can be adapted and printed worldwide, particularly targeting underserved populations in need of affordable, custom-fit solutions.
As additive manufacturing continues to gain traction, workforce demands are shifting. The Association of British HealthTech Industries (ABHI) anticipates moderate but steady growth in 3D printing applications within orthotics, particularly for foot insoles. Expanding training and education in these areas will be key to supporting the wider adoption of 3D printing in the orthotics industry.
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