National Resilience | Airpower Sovereignty | Strategic Preparedness
The Sector at a Glance
The aerospace, airpower and aero-industrial ecosystem is the integrated system through which a nation designs, builds, operates, defends and sustains everything that flies within and above its territory. It extends far beyond conventional aviation and airports. The sector covered under this tab includes civil aviation infrastructure and smart airports, defence aviation and combat air platforms, military transport and strategic air mobility, rotary-wing systems, unmanned aerial vehicles and autonomous aerial platforms, integrated air defence, radar, ISR and surveillance systems, air cargo and aerospace logistics, airspace management and navigation, and the emerging frontier of space-air integration.
The scope of this tab is not limited to the aircraft on the runway. It covers the full aero-industrial value chain behind it: aerospace materials and alloys, aero-engines and propulsion, avionics, flight control and sensors, airframe structures and composites, design, simulation and certification, maintenance, repair and overhaul, airbase and airport infrastructure, and the human capital that sustains all of these over long platform lifecycles. It is this complete chain, together with the doctrine and command architecture that employs it, that determines whether Bharat commands its own skies or merely occupies them.
Why This Sector Is Critical
Airpower is the first instrument of national defence to be called upon and frequently the decisive one. It underwrites deterrence, territorial integrity, maritime domain awareness, rapid reinforcement across difficult terrain and the protection of every other critical infrastructure asset from aerial threat. In peacetime the same ecosystem carries passengers, high-value cargo, medical supplies and relief material; during floods, cyclones, earthquakes and evacuations, air mobility is often the only route through which the state can reach its citizens. Aerospace infrastructure is therefore a continuity system in the fullest sense, and its disruption is felt simultaneously in security, economy and disaster response.
The structural vulnerability of the sector lies in its dependencies. Aero-engines, high-end avionics, specialty alloys, certain composites, airborne radar components and a large share of spares and MRO capability have historically been sourced from a narrow set of external suppliers. A platform fleet that depends on imported engines and imported spares is only as available as the supply line that sustains it, and that line can be throttled by sanctions, export controls, conflict or the commercial priorities of a foreign vendor. It is argued that in aerospace, sovereignty is measured less by the number of aircraft a nation holds than by its ability to keep them flying under denial; and if this capability fails, fleets are grounded, airspace is contested and the national response to crisis is slowed at the very moment speed matters most.
The Bharat Context
Bharat has built genuine aerospace capability over several decades through its public sector aircraft manufacturer, its defence research and development laboratories, its space agency and a growing base of private and MSME suppliers. Indigenous fighter, helicopter, trainer and unmanned programmes demonstrate that design competence exists. The persistent gaps lie in aero-engine development, certain critical materials, airborne sensors and electronic warfare subsystems, airworthiness certification throughput, and the depth of a tier-two and tier-three supplier base that can deliver at volume and on schedule. Civil aviation has expanded rapidly, yet a large share of MRO work, leasing and component supply continues to reside outside the country, and the integration of drones into national airspace is still at an early stage.
The enabling environment has strengthened considerably. Make in India and Aatmanirbhar Bharat have placed defence and aerospace indigenisation at the centre of industrial policy; the Defence Acquisition Procedure, positive indigenisation lists and the Defence Industrial Corridors in Uttar Pradesh and Tamil Nadu have created demand certainty and geographic clusters for aero-industrial investment. HAL, DRDO and its Aeronautical Development Agency, ISRO and CEMILAC anchor design and certification; iDEX connects start-ups to the armed forces; the Drone Rules and the PLI scheme for drones and drone components have opened a domestic unmanned industry; and the UDAN regional connectivity scheme, the National Civil Aviation Policy and the GAGAN satellite augmentation system are reshaping civil aviation demand and navigation. What remains missing is a unified research-to-resilience framework that links airpower doctrine, aero-industrial capacity, supply chain security and civil aviation continuity into one coherent national picture; and this is the gap that BAP-I seeks to address through this tab.
Importance of the Sector
Economy
Aerospace is among the highest value-adding industries a nation can host, and its economic effect is multiplied across the industrial base. Every aircraft programme draws upon metallurgy, precision machining, electronics, software, composites, testing and logistics, and the quality disciplines demanded by airworthiness raise standards in every supplier that participates. Civil aviation, air cargo and airport infrastructure enable tourism, high-value exports, time-sensitive trade and regional development, while a domestic MRO and leasing base retains within the country revenue that would otherwise flow abroad. Keeping this at centrality, aerospace capability should be viewed not as a cost centre of defence but as a long-term economic asset.
Employment
The sector generates employment that is both highly skilled and widely distributed. Aeronautical, mechanical, electronics and software engineers work in design, simulation and systems integration; metallurgists and materials scientists work on alloys, coatings and composites; certification specialists, test pilots and flight test engineers sustain airworthiness; and licensed aircraft maintenance engineers, technicians and machinists form the backbone of production and MRO. Airports, air traffic management, ground handling and air cargo add a large services workforce, and the drone economy is creating new roles in operation, data analysis and maintenance in both urban and rural areas. The employment footprint is therefore deep within the aero-industrial chain and broad across aviation services.
Entrepreneurship
The aerospace supply chain is a layered pyramid, and its lower tiers are naturally suited to MSMEs and start-ups. Precision components, harnesses, sensors, test rigs, simulation software, composite parts, ground support equipment, MRO services and drone platforms and payloads are all domains in which a focused enterprise can build value without owning a complete aircraft programme. The principal barriers are the cost and duration of qualification, access to test facilities and the long payment cycles of large programmes. It is argued that a deliberate effort to shorten the path from prototype to certified, qualified supplier, through shared testing infrastructure, defence corridor incubation and assured procurement, would do more to deepen the aero-industrial base than any single platform order.
Partnership
Aerospace capability is built through partnership by necessity. The sector calls for structured collaboration between the armed forces and industry on requirements and trials, between public sector manufacturers and private suppliers on workshare, between DRDO laboratories, ISRO and academia on propulsion, materials and avionics research, and between civil aviation authorities, airport operators and airlines on safety and continuity. Partnerships with trusted international partners for co-development and co-production of engines and critical subsystems are valuable, provided that they are structured to transfer design authority and not merely assembly work. BAP-I positions itself as the convening platform where these stakeholders can meet on shared research questions.
Research Focus Possibilities
BAP-I invites original research articles, policy papers, technical reports, diagnostic assessments, case studies and white papers across the following indicative research streams. The list is open-ended; contributions that connect a new question to the resilience objective of this tab are equally welcome.
A. Airpower, Air Defence and Strategic Mobility
- Fleet availability and sustainment under supply denial: modelling the effect of spares, engine and avionics dependencies on operational readiness
- Airbase resilience, dispersal, hardening and rapid runway repair as elements of air campaign continuity
- Integrated air defence, radar coverage and counter-drone architecture for protection of critical infrastructure assets
- Strategic airlift and emergency air mobility for disaster response, evacuation and reinforcement of remote regions
B. Aero-Industrial Capability and Supply Chains
- Mapping indigenous capability across aero-engines, avionics, flight control systems, airborne sensors and composites, and the gap between prototype and series production
- Supplier base depth in the Defence Industrial Corridors: tier-two and tier-three readiness, qualification bottlenecks and cluster performance
- Critical aerospace materials, including titanium, nickel superalloys and carbon fibre, and options for domestic or diversified sourcing
C. Civil Aviation, Airspace and Unmanned Systems
- Continuity planning for airports and air traffic management against cyber attack, GNSS interference, extreme weather and power failure
- Integration of drones into national airspace: traffic management, regulatory design and security safeguards
- Air cargo resilience for pharmaceuticals, electronics and other time-critical supply chains
D. Technology, Standards and Human Capital
- Airworthiness certification capacity and timelines, with comparative assessment against international certification practice
- Aerospace cyber security, electronic warfare resilience and secure communications for networked air operations
- Space-air integration, hypersonic research and AI-enabled autonomy: readiness assessment and research priorities
- Workforce pipelines for aircraft maintenance engineers, aerospace design and flight test, including curriculum gap analysis
Who Can Participate
This tab invites participation from serving and retired air warriors and defence aviation professionals, DRDO and its aeronautical laboratories, HAL and other defence public sector undertakings, ISRO, CEMILAC and airworthiness bodies, the Directorate General of Civil Aviation and the Airports Authority of India, airport operators, airlines and MRO providers, aerospace manufacturers, MSMEs and drone start-ups in the Defence Industrial Corridors, IITs, NITs and aeronautical engineering colleges, strategic studies institutions, policy think tanks, international collaborators and individual researchers with domain expertise. Contributions from practitioners, policymakers and academics carry equal standing within the BAP-I research framework.
The Resilience Objective
Every contribution under this tab must serve one purpose: strengthening Bharat's capacity to design, build, sustain and defend its aerospace and airpower ecosystem as a sovereign, self-reliant and globally competitive national asset. BAP-I does not treat research as an end in itself; it treats research as the instrument through which the nation's command of its own skies is identified, measured and built.
