Highlights
How do digital twins, connected factories, and digital engineering increase cyber risk in aerospace and defence manufacturing?
As aerospace manufacturing digitises, cyber resilience becomes mission-critical.
Aerospace and defence (A&D) manufacturing is being redefined by the shift to cyber-physical production systems—where digital and physical operations converge across the factory floor. From connected machining centres and autonomous inspection systems to digital twins transforming aircraft design, production, and sustainment, manufacturing environments are becoming increasingly intelligent, adaptive, and data-driven. This transformation is accelerating as the industry seeks to increase production rates, improve quality, and enhance supply chain visibility in response to growing commercial and defence demand. At the same time, leading A&D organisations are investing heavily in digital engineering and virtual manufacturing capabilities to shorten development cycles and improve program execution.
Yet, beneath this transformation lies a growing vulnerability. As production systems become more connected, cyber threats are increasingly targeting the operational backbone of manufacturing. Recent threat intelligence highlights that manufacturing remains the primary target for attacks against OT environments, while the aerospace and defence sector is emerging as a focal point for espionage, supply chain compromise, and operational disruption. Threat actors are no longer focused solely on stealing data; they are pursuing access to engineering systems, supplier networks, and production environments to disrupt operations and gain strategic advantage. The cyber threat landscape shows growing exploitation of supplier ecosystems, reflecting the industry's deeply interconnected nature.
For A&D manufacturers, the implication is profound: in an era of digital factories and mission-critical production, cyber resilience is no longer an IT priority—it is a manufacturing imperative that directly influences production continuity, program delivery, and national security outcomes.
Leading A&D manufacturers are already responding by embedding resilience into their digital core. Lockheed Martin’s digital twin–driven engineering and Airbus’s end-to-end digital manufacturing strategy illustrate how the convergence of digital innovation and secure operations is becoming central to production scale-up and program delivery.
For manufacturing leaders, the imperative is clear: cyber resilience must evolve from a plant-level safeguard to a core production capability, enabling uninterrupted operations, protecting engineering IP, and sustaining trust across complex ecosystems.
AI-driven attacks, supply chain exposure, and OT vulnerabilities redefine risk in A&D manufacturing
A&D manufacturing is entering a phase where cyber threats are no longer external disruptors—they are embedded within the production fabric itself. As factories evolve into cyber-physical systems, the attack surface now extends deep into engineering environments, manufacturing execution systems (MES), and shop-floor operations—reshaping both the intent and impact of cyber risk.
This challenge is accelerating as the industry scales investments in digital engineering and technology modernisation and leverages digital twins across aircraft design, production, and sustainment. These capabilities are enabling manufacturers to increase production rates, improve quality, and optimise lifecycle performance, while simultaneously expanding the digital pathways through which adversaries can access critical manufacturing environments.
The threat landscape is increasingly shaped by geopolitical tensions and strategic competition. Analysis of the aerospace and cyber threat landscape shows growing activity from ransomware operators, espionage groups, and state-aligned actors targeting ecosystems. Unlike traditional cybercrime, these attacks often seek to compromise sensitive intellectual property, disrupt production programs, and gain strategic advantage through supply chain infiltration.
The implications are particularly pronounced within operational environments, where cyber incidents can directly affect production continuity, quality assurance, and mission-critical delivery schedules. According to the World Economic Forum’s cyber resilience initiative for manufacturing, increasing connectivity across industrial systems, suppliers, and digital platforms is significantly expanding the attack surface while exposing longstanding vulnerabilities in legacy operational technology environments.
Equally critical is the systemic nature of risk. Modern aircraft and platforms are developed through highly interconnected ecosystems spanning OEMs, suppliers, software providers, and engineering partners. The same interconnectedness that enables collaboration also creates opportunities for adversaries to exploit weaker links within the value chain. As highlighted in the World Economic Forum’s analysis of cyber resilience across value chains, cyber incidents affecting a single participant can rapidly cascade across multiple organisations, disrupting operations, eroding trust, and creating widespread business impact.
Compounding this challenge is the growing sophistication of threat actors. Recent threat intelligence indicates a shift from opportunistic attacks toward campaigns designed to understand manufacturing processes, establish long-term persistence, and target operational outcomes. As the convergence of engineering, IT, and OT systems accelerates, cyber threats are increasingly evolving from information-security concerns into risks capable of affecting physical operations and production continuity.
For A&D leaders, the implication is clear: cyber risk is no longer confined to IT—it is a manufacturing and mission-readiness challenge. Addressing this new frontier requires a strategic shift from perimeter-based protection to resilience embedded across the entire aerospace and value chain, enabling organisations to safeguard innovation, sustain production, and strengthen trust in an increasingly contested global environment.
Why legacy security models fail to protect next-generation manufacturing environments
Despite growing investments in cybersecurity, many aerospace and manufacturers remain exposed to cyber-physical risk. The challenge is not a shortage of security technologies, but a widening gap between legacy security approaches and the increasing digital nature of aerospace production. As the industry accelerates investments in digital transformation and advanced manufacturing capabilities, organisations are creating interconnected environments that traditional security architectures were never designed to protect.
A key contributor to this gap is the rapid expansion of digital engineering. Leading aerospace manufacturers are embracing digital twins across design, manufacturing, and sustainment, while organisations across the sector are investing heavily in model-based engineering and lifecycle integration to shorten development cycles and improve product quality. While these technologies improve speed and innovation, they also create unprecedented interdependencies between engineering, production, and operational environments—meaning a compromise in one domain can quickly affect the entire value chain.
The industry's push toward digital manufacturing is also outpacing organisational readiness. Although digital-thread adoption is widespread across aerospace and organisations, only a small minority have successfully deployed it at enterprise scale. Data standardisation, governance, and execution challenges continue to limit visibility across the product lifecycle—creating blind spots that can hinder both operational performance and cyber resilience.
At the same time, A&D manufacturers face increasing pressure to ramp production amid historic demand. Industry analyses emphasise that organisations must simultaneously increase throughput, modernise operations, rebuild supply chain resilience, and accelerate digitalisation. Yet many are attempting to achieve these objectives while relying on fragmented governance models that separate IT, engineering, manufacturing, and cybersecurity functions. This disconnect can delay decision-making and weaken resilience across critical programs.
Talent constraints further complicate the challenge. Due to persistent shortages in engineering and technical roles across the industry. Organisations expand the use of AI, automation, and digital manufacturing, the shortage of digital and cyber-skilled talent threatens to become a critical constraint on both innovation and resilience.
Perhaps the most significant challenge is mindset. For many organisations, cybersecurity remains a compliance-led function rather than an operational imperative. However, in an environment increasingly defined by digital threads, connected production systems, and globally distributed supplier ecosystems, resilience can no longer be measured through audits alone. Instead, it must be evaluated by an organisation's ability to sustain production, maintain quality, and deliver programs under disruption.
For aerospace and manufacturers, closing the resilience gap requires a fundamental shift—from protecting systems in isolation to securing the entire digital manufacturing ecosystem. The organisations that succeed will be those that integrate cyber resilience into engineering, production, supply chain, and workforce strategies—transforming security from a control function into a catalyst for operational excellence and mission readiness.
How can aerospace manufacturers embed cyber resilience into digital manufacturing and supply chain ecosystems?
As aerospace and manufacturing becomes increasingly digital, resilience can no longer be bolted on—it must be engineered into the production fabric from the outset. Leading organisations are integrating security into digital twin–enabled manufacturing and digital thread initiatives to create production environments that are not only connected and intelligent, but also resilient by design.
A critical starting point is securing the convergence of engineering, IT, and operational technology. Modern aerospace programs rely on continuous data exchange across design, production, testing, and sustainment environments. As organisations expand digital thread capabilities that connect data across the product lifecycle, cyber resilience must be embedded into identities, workflows, and manufacturing architectures. This requires a shift from perimeter-centric security to continuous visibility, segmentation, and zero-trust principles that protect production systems without constraining innovation.
Resilience also depends on operational visibility. Manufacturers are increasingly leveraging digital twins throughout aircraft development and production and virtual engineering environments to gain a comprehensive view of system performance and operational behaviour. Beyond improving productivity, these capabilities enable organisations to model risk scenarios, identify anomalies earlier, and strengthen response mechanisms before disruptions affect production schedules or mission-critical deliveries.
Equally important is securing the broader ecosystem. Aerospace and platforms are developed through highly interconnected networks of OEMs, suppliers, engineering partners, and technology providers. This highlights how adversaries are increasingly targeting supplier relationships and third-party access channels to penetrate larger programs. As a result, leading manufacturers are extending resilience strategies beyond enterprise boundaries through continuous supplier assurance, secure collaboration frameworks, and ecosystem-wide risk monitoring.
What distinguishes industry leaders is their ability to anticipate rather than react. Organisations that successfully scale digital thread and lifecycle-connected manufacturing gain better visibility into dependencies, vulnerabilities, and operational risks across the value chain. This enables faster decision-making, accelerated recovery, and greater production agility in the face of disruption.
Ultimately, engineering resilience is about aligning cybersecurity with mission outcomes. It is not simply about protecting systems, it is about safeguarding intellectual property, ensuring production continuity, and maintaining confidence across complex programs. In an era of digitally connected factories and increasingly sophisticated threats, resilience by design emerged as a critical enabler of operational excellence, mission readiness, and sustained competitive advantage.
How will AI-driven and autonomous cyber resilience shape the future of aerospace and defence manufacturing?
As aerospace and manufacturing enters its next phase, cyber resilience is no longer just about protecting operations, it is becoming a defining factor in how organisations compete, innovate, and scale. In an industry under pressure to increase production rates, accelerate program delivery, and navigate an increasingly volatile geopolitical landscape, resilience is evolving from a defensive capability into a strategic differentiator.
The future belongs to manufacturers that can operate with confidence in uncertainty. As digital engineering, autonomous systems, AI, and connected production environments become foundational to aerospace and programs, resilience will determine how quickly organisations can adapt to disruption without compromising performance. The ability to absorb shocks, maintain continuity, and recover seamlessly will become as important as cost, quality, and speed.
Leading organisations are already moving beyond traditional notions of cybersecurity. Rather than focusing solely on preventing attacks, they are building manufacturing ecosystems designed to anticipate risk, adapt in real time, and sustain mission-critical operations under stress. In this model, resilience becomes embedded across the enterprise—from engineering and production to supply chains and partner networks.
Looking ahead, the industry's ambition is likely to extend beyond resilience toward autonomy. Aerospace and will become increasingly intelligent, leveraging AI-powered insights, predictive decision-making, and self-correcting processes to detect anomalies, isolate disruptions, and optimize operations before issues escalate. The result will be manufacturing environments that are not only more secure, but also more agile, efficient, and responsive.
Ultimately, the conversation is shifting from how to defend against disruption to how to thrive despite it. For aerospace and leaders, cyber resilience will be measured not by the absence of incidents, but by the ability to sustain innovation, protect critical programs, and deliver mission outcomes in an increasingly complex world. Those that embed resilience into the core of their manufacturing strategy today will be best positioned to lead the industry tomorrow.