India is emerging as a key player in the global aerospace value chain, driven by advanced engineering, AI, digital technologies and growing indigenous capabilities. In this interview, Machine Edge Global speaks with Mathiazhagan Balasubramanian, Senior Director – Engineering, ALTEN, about India’s aerospace opportunities, AI-led engineering, sustainable aviation, smart manufacturing and the capabilities needed to build a globally competitive aerospace ecosystem.
What are the biggest opportunities for India in the global aerospace value chain over the next 5–10 years?
India’s opportunity isn’t just about capacity; it’s about trust. Global OEMs are increasingly entrusting India with higher-value engineering work because we’ve demonstrated the ability to deliver from ideation through certification, not just execute drawings. Over the next decade, we see three key shifts. First, Indian engineering centres will move beyond task-based outsourcing to owning complete work packages across design, integration, and industrialization. Second, India’s defence indigenization agenda will create a strong domestic demand stream that leverages the same certified talent base serving global aerospace programmes. Third, India will emerge as a genuine hub for digital and AI-enabled aerospace engineering, expanding its role far beyond traditional mechanical design.
How is ALTEN’s end-to-end lifecycle approach changing how aerospace companies innovate?
Aerospace leaders are moving beyond traditional engineering excellence toward digitally connected lifecycle excellence. The future belongs to organizations that can integrate AI-infused design, systems engineering, safety assurance, manufacturing, testing, certification, and sustainment into a single operating model. In a mission-critical industry where reliability and traceability are non-negotiable, AI must augment engineering judgement rather than replace it. ALTEN’s end-to-end lifecycle approach enables aerospace companies to innovate faster while maintaining certification readiness, safety, manufacturability, and long-term operational sustainability. By connecting engineering disciplines through a digital thread, ALTEN helps transform innovation from isolated technical achievements into scalable, certifiable, and business-impacting outcomes.
How are AI, ML and data-driven decision-making transforming aerospace engineering intelligent flight, predictive maintenance, safety?
AI, ML, and data-driven engineering are shifting aerospace from reactive execution to predictive decision-making. Predictive maintenance uses sensor and fleet data to anticipate failures before they impact safety or availability, improving uptime and reducing lifecycle costs. AI-assisted flight systems enhance anomaly detection, situational awareness, and pilot decision support, augmenting rather than replacing human judgment. In engineering, generative AI, digital twins, and advanced simulation are accelerating design, verification, and optimization cycles. Industry thought leaders highlight that competitive advantage comes from combining AI, domain expertise, and trusted lifecycle data, not AI alone. For aerospace, speed without traceability is unacceptable. The real transformation is creating a connected digital thread across design, manufacturing, operations, and sustainment while maintaining certification, safety, and regulatory compliance through standards such as DO-178C and DO-254. Ultimately, AI succeeds only when it improves safety, reliability, and mission readiness in certifiable systems.
What technologies and capabilities will determine the competitiveness of Indian aerospace manufacturing?
India’s aerospace competitiveness will be defined by its ability to move beyond engineering talent and build a fully integrated industrial ecosystem. Three differentiators will stand out: digital thread, connecting design, manufacturing, certification, and in-service data into a single source of truth; Industry 4.0 adoption, leveraging IIoT, real-time quality monitoring, automation, and predictive analytics to improve productivity and quality; and supplier industrialization maturity, enabling rapid transition from design intent to compliant, repeatable production at scale. While India already possesses strong engineering capabilities, the next decade’s advantage will come from how effectively it transforms this talent into smart manufacturing, certification-ready execution, and globally competitive aerospace supply chains.
Where are the most promising opportunities for engineering innovation in sustainable aviation?
Sustainable aviation is really three engineering problems stacked together: lighter structures, cleaner propulsion, and smarter operations. On structures, it’s continued advances in composite materials and design-for-weight optimization, every kilogram saved compounds over an aircraft’s lifetime. On propulsion, it’s supporting the transition toward hybrid-electric and alternative-fuel-compatible systems, which requires new systems integration and testing capability, not just incremental engine tuning. And on operations, it’s data-driven flight path and fuel-efficiency optimization, this is where AI and digital twins have an immediate, measurable impact without waiting for next-generation aircraft platforms to arrive. Engineering services firms have a real role here because sustainable aviation isn’t one breakthrough, it’s hundreds of incremental engineering decisions done well across a program, and that requires deep bench strength.
What gaps in infrastructure, skills, technology or policy need to be addressed for India to realize its full aerospace potential?
Honestly, the biggest gap isn’t ambition, it’s depth of specialized talent. India produces excellent generalist engineers, but certification-literate, systems-level aerospace engineers with DO-178/254 exposure are still scarce relative to demand. That needs sustained investment in specialized training, not just headcount hiring. Second, on infrastructure, testing and certification infrastructure within India is still catching up to what’s needed to support end-to-end indigenous programs, which means some certifications work still has to route through international facilities. Third, on policy, continued clarity and consistency in defence procurement and offset policy would help global primes commit longer-term investment into Indian engineering and manufacturing capacity, rather than treating India purely as a cost center. If we close these three gaps, India will move from being a preferred engineering partner to being a genuine co-development hubs.
What is your vision for ALTEN India’s role in shaping the next generation of aerospace engineering, and which emerging technologies are you watching most closely?
Our vision for ALTEN India is to become a strategic aerospace innovation partner, helping customers transform ideas into certifiable, mission-ready products across the entire lifecycle. As aerospace evolves toward software-defined, connected, autonomous, and sustainable platforms, ALTEN India is playing a key role by combining engineering excellence with digital technologies and safety-critical expertise. The technologies I am watching most closely are AI-augmented engineering, Model-Based Systems Engineering (MBSE), digital thread and digital twins, intelligent and autonomous systems, cybersecurity, and Industry 4.0-enabled manufacturing. These capabilities will accelerate development, improve quality, enhance operational performance, and enable faster decision-making. However, in aerospace, innovation must always be balanced with safety, certification, and reliability. ALTEN India’s differentiator will be its ability to integrate advanced technologies with rigorous engineering discipline, helping customers deliver products that are innovative, certifiable, secure, and sustainable throughout their operational life.