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Subject: Defence

  • Atmanirbharta in defence: It’s not as simple as it seems

    Why in the News

    The Defence Minister has set out a vision to “design in India, develop in India, manufacture in India” for military equipment. Yet full indigenisation is the costliest way to acquire a weapon, so real atmanirbharta lies in controlling the few technologies that decide a platform’s edge.

    What is atmanirbharta in defence, and why does India pursue it?

    1. What it is: Atmanirbharta (self-reliance) means designing, developing, testing and building weapons at home. It is like a household growing all its own food instead of buying any.
    2. Import dependence: India was the world’s fifth largest defence spender last year and the second largest arms importer, behind only war hit Ukraine.
    3. Strategic autonomy argument: A rising power must build its own arsenal to escape pressure from foreign governments and original equipment manufacturers (OEMs), the firms that design and sell weapons.
    4. The takeaway: A nationalistic public backs self-reliance and brands critics as arms industry agents, so its cost is rarely questioned.

    What has the self-reliance push delivered so far?

    1. Slogans: “Make in India” was coined in 2014, followed by “Vocal for Local” and Atmanirbhar Bharat (self-reliant India) in 2020.
    2. Production: Ministry of Defence figures show indigenous defence and aerospace production roughly quadrupled since 2014.
    3. Exports: Defence exports reached a record Rs 38,434 crore last year.
    4. Hidden import content: The Tejas fighter, Navy warships and many Army missiles are not fully Indian, since much of their cost buys foreign subsystems.

    Why is full self-reliance the costliest route?

    1. Cost hierarchy in defence acquisition: Acquisition methods rise in cost and time in a fixed order:
      • Lease, for only as long as needed, is cheapest and fastest;
      • Buy off the shelf costs more;
      • Licensed production, buying the technology and building a factory at home, costs more still;
      • Atmanirbharta, designing from scratch, costs the most.
    2. High cost of autarky: Developing every element raises cost unacceptably, so even leading defence economies avoid total autarky (complete self-sufficiency).
    3. Control the core, buy the rest: Top weapon makers keep key technologies in house and source other subsystems from established leaders.
    4. Ejection seats: Even top makers buy ejection seats from British firm Martin-Baker, which supplies over half the world’s combat aircraft. Eg. Lockheed Martin’s F-35 Lightning II.

    What should India control, and how?

    1. Flight control software: The Tejas is built inherently unstable, which makes it agile. Quadruplex fly-by-wire software steers it by electronic signals over four backup channels.
    2. Indigenous flight software: That software, built for the first Tejas, is being upgraded to control the Tejas Mark 2 and the Advanced Medium Combat Aircraft (AMCA), India’s planned fifth generation fighter.
    3. Project management: The key skill is deciding which systems a platform needs, where to source them, what to build and when to close a project.
    4. Supply chain leverage: Buying abroad gives foreign suppliers leverage. If Indian firms become key subcontractors in global supply chains, an embargo on India hurts OEMs too.

    Challenges

    1. Induction delays: Indigenous platforms slip for years before reaching the forces, leaving capability gaps. Eg. The Arjun tank and INS Vishal.
    2. Weak programme management: Projects lack a process to identify core technologies early and close failing lines of work.
    3. Commodity dependence: Home built weapons do not remove leverage over a middle power that imports critical commodities such as oil.

    Way Forward

    1. Core technology list: Name each platform’s essential technologies at the start of development and buy mature subsystems globally.
    2. Programme management cadre: Build project skills in the Defence Research and Development Organisation (DRDO) and the services, with authority to close failing projects.
    3. Supplier integration: Make Indian firms suppliers to global weapon makers, so an embargo also costs the supplier.

    Conclusion

    India’s self-reliance drive has succeeded on volume, but volume is not control of critical technology. Whether future programmes name and own their core technologies from the start will decide if atmanirbharta buys capability or only cost.

    Key numbers

    1. Indigenous production base: Rs 46,000 crore (2014).
    2. Defence exports base: Rs 600 crore (2014).
    3. Export target: Rs 50,000 crore by 2028-29 (Defence Minister).
    4. Martin-Baker share: 50 to 55 percent of world combat aircraft.
    5. GE F414 technology transfer: about 80 percent.

    Government initiatives for defence indigenisation

    1. Positive indigenisation lists: Ministry of Defence lists of items to be bought only from Indian sources after set timelines; they crossed 5,500 items by early 2025.
    2. GE F414 engine co-production: Hindustan Aeronautics Limited (HAL) will build this engine in India with most technology transferred, to power the Tejas Mark 2.

    Matching Previous Year Question

    “[2026] Consider the following statements about Mission Sudarshan Chakra of India: 1. It aims to enhance India’s air defence, ballistic missile defence and aerial offensive capabilities. 2. Designed to enhance rapid, precise, and powerful defence responses, reinforcing India’s strategic autonomy. 3. One of the aims is to cover all public places of India by an expanded nationwide security shield by 2035. (a) 1, 2 and 3 (b) 1 and 2 only (c) 2 and 3 only (d) 1 only Answer: A”

  • HAL Hands Over Tejas Trainers, HTT-40 and Dhruv NG

    HAL Hands Over Tejas Trainers, HTT-40 and Dhruv NG

    Why in the News?

    Hindustan Aeronautics Limited (HAL) handed over 2 LCA Tejas FOC Twin Seater Trainers and 3 HTT-40 Basic Trainers to the Indian Air Force (IAF), along with 4 Dhruv Next Generation (NG) helicopters to Pawan Hans Limited (PHL) on 18 September 2026 in Bengaluru. The event highlights India’s growing indigenous defence and civil aerospace capabilities.

    Key Highlights

    LCA Tejas FOC Twin Seater Trainer

    • 2 aircraft handed over to IAF.
    • These are the final two aircraft under the FOC contract.
    • Designed to support pilot training before frontline fighter operations.
    • Retains the core systems and combat capability of the frontline Tejas platform.
    • Provides an indigenous training continuum for fighter pilots.
    • FOC: Final Operational Clearance

    HTT-40 Basic Trainer

    • 3 aircraft handed over to IAF.
    • HTT-40: Hindustan Turbo Trainer-40.
    • Indigenously designed and developed basic trainer aircraft.
    • Intended for primary training of Defence Forces pilots.
    • Uses a turboprop engine.
    • Features modern cockpit and avionics.

    Training Roles

    • HTT-40 can undertake: Aerobatics, General handling, Instrument flying, Navigation, Night flying, and Close formation flying

    Dhruv NG

    • 4 helicopters handed over to Pawan Hans Limited (PHL).
    • Represents HAL’s entry into the civil and commercial rotary-wing segment.
    • Features:
      • Enhanced systems
      • Modern avionics
      • More powerful engine
    • Intended applications:
      • Passenger transport
      • Emergency Medical Services (EMS)
      • Offshore logistics support

    Strategic Significance

    • The initiative demonstrates the development of an integrated Indian aerospace ecosystem covering:
    • Aircraft design, Avionics, Propulsion, Composite materials, Flight-control systems, Manufacturing, Certification, and Maintenance and lifecycle support
    • The government also emphasised greater public-private synergy and indigenous development of emerging technologies such as:
      • Artificial Intelligence (AI)
      • Autonomous systems
      • Unmanned Aerial Systems (UAS)
      • Electronic warfare
      • Cyber technologies
      • Next-generation propulsion

    Defence and Civil Aerospace Linkage

    • An important aspect of the event is the convergence of military and civil aerospace capabilities.
      • Tejas FOC Trainer: indigenous military aerospace capability.
      • HTT-40: indigenous basic military trainer.
      • Dhruv NG: indigenous civil/commercial helicopter capability.
    • This illustrates how common capabilities such as avionics, propulsion, materials, manufacturing and certification can support both civil and defence aerospace sectors.
  • Govt. to ease MSME, start-up entry into R&D in defence

    Why in the News

    The Defence Minister has unveiled a set of policy initiatives lowering the technical and financial barriers facing Micro, Small and Medium Enterprises (MSMEs) and deep technology startups that want to enter defence research, development and manufacturing. The initiatives were announced at VIMARSH 2026, a synergy meet between the Defence Research and Development Organisation (DRDO) and industry. The stated position is that collaboration between DRDO and industry should extend beyond production to the entire technology value chain, covering research, design, testing, certification and manufacturing. The question the framework raises is whether access to facilities and funding is enough to bring small firms into a sector whose entry costs are set by certification and order volume rather than by capital alone.

    What does the new framework give smaller firms access to?

    1. Direct funding: MSMEs and deep technology startups become eligible for funding from DRDO rather than only for subcontracting work from established defence producers.
    2. Incubation support: The framework provides incubation for a firm that holds a technology idea and lacks the facilities to develop it to a testable stage.
    3. Dedicated testing access: Small firms get dedicated access to DRDO testing facilities, which removes the largest fixed cost a new entrant in defence electronics or materials faces.
    4. The whole value chain, not the last stage: Participation is extended from manufacturing back into research, design, testing and certification, so a firm can enter the chain at the point where its capability actually sits.
    5. Source code sharing: A standardised and secure mechanism has been introduced for sharing DRDO developed software source codes with licensed industry, aimed at accelerating software defined defence capabilities and addressing technology obsolescence.

    What agreements were concluded at VIMARSH 2026?

    1. Technology transfer licences: Nine Licensing Agreements for Transfer of Technology were handed over to 13 manufacturing partners to enable commercial production of advanced defence systems.
    2. Industry body outreach: Strategic memoranda of understanding were exchanged with the Society of Indian Defence Manufacturers and Laghu Udyog Bharati to widen industry outreach and draw in smaller enterprises.
    3. Manufacturing maturity benchmarking: DRDO signed a contract with the Quality Council of India (QCI) for version 2.0 of the System for Advanced Manufacturing Assessment and Rating (SAMAR), which benchmarks the manufacturing maturity of domestic defence enterprises.

    What existing measures does this build on?

    1. Positive Indigenisation Lists: These bar the import of listed defence items after stated dates, creating assured domestic demand for the items on them.
    2. Make in India: The programme sets domestic manufacture of defence platforms as a procurement objective rather than leaving it to price competition alone.
    3. Innovations for Defence Excellence (iDEX): It funds startups, MSMEs and individual innovators to develop defence and aerospace technologies against problem statements set by the services.
    4. Acing Development of Innovative Technologies with iDEX (ADITI): It supports startups working on critical and strategic defence technologies at a higher funding tier than the base iDEX grant.
    5. Private share of research spending: 25 percent of the defence research and development budget is allocated to the private sector.

    Challenges to MSME participation in defence research and development

    1. Certification is the real entry barrier: Qualification and certification cycles for a defence component run for years, and a small firm cannot carry its working capital across that period. Eg. Airworthiness certification for an airborne subsystem routinely takes longer than the firm’s own funding runway.
      The Fix: Allow staged payment against certification milestones, so a firm is paid as it clears each stage rather than only on final acceptance.
    2. Order volumes are uncertain: A qualified MSME faces no committed offtake, so it cannot justify tooling investment against a possible order. Eg. Items placed on the Positive Indigenisation Lists carry an import bar and no guaranteed quantity.
      The Fix: Attach indicative multi year quantities to indigenisation listings, so a supplier can size its capacity to a stated demand.
    3. Rights in transferred technology are unresolved: A licensee producing under transfer of technology holds no rights in the improvements it makes, which reduces the incentive to invest in the product. Eg. Such licensing in Indian defence has historically covered production rights without design rights.
      The Fix: Define ownership of downstream improvements in the licence itself, assigning the improving party rights in what it develops.
    4. Payment cycles strain small suppliers: Defence procurement payment terms are set for large integrators and impose delays that a small firm’s balance sheet cannot absorb. Eg. Delayed receivables are the most cited constraint in MSME surveys across manufacturing sectors.
      The Fix: Apply a fixed payment window for MSME suppliers in defence contracts, enforced through the prime contractor’s own terms.
    5. Source code access does not resolve legacy dependence: Sharing software source codes helps new development and does not address systems already in service on proprietary foreign software. Eg. Imported platforms in service carry mission software that the operator cannot modify.
      The Fix: Make source code escrow a standing condition in new import contracts, so the dependency is not recreated with each fresh acquisition.

    Conclusion

    The framework moves smaller firms from the subcontracting edge of defence production towards the research and design stages, and it does so by opening facilities, funding and software that DRDO already controls. The status now is that the instruments exist while the demand side commitments that would make them bankable do not. The measure to watch is whether the technology transfer licences issued here convert into production orders, since that conversion rate is the only evidence that access has become participation.

    Back2Basics: Defence Research and Development Organisation

    1. What it is: It is the research and development wing of the Ministry of Defence, responsible for designing and developing defence systems for the armed forces.
    2. Formation: It was formed in 1958 by merging the Technical Development Establishment, the Directorate of Technical Development and Production, and the Defence Science Organisation.
    3. Structure: It runs a network of laboratories across disciplines including aeronautics, armaments, missiles, naval systems, electronics and life sciences.
    4. Role in industry: It develops systems and transfers the technology to public and private production agencies rather than manufacturing at scale itself.

    Matching Previous Year Question

    “Foreign Direct Investment (FDI) in the defence sector is now set to be liberalized: What in fluence this is expected to have on Indian defence and economy in the short and long run?”

  • INS Mysore arrives at Lumut, Malaysia for Exercise Samudra Laksamana [MENTION]

    PIB class: Press Release. Ministry: Ministry of Defence.

    Why in News

    Indian Naval Ship (INS) Mysore arrived at Lumut, Malaysia for the 4th edition of Exercise Samudra Laksamana.

    Static Context (the exam value sits here)

    1. Exercise Samudra Laksamana is the bilateral naval exercise between India and Malaysia. It builds maritime interoperability between the two navies.
    2. Lumut hosts the main base of the Royal Malaysian Navy. It sits on the west coast of Peninsular Malaysia facing the Strait of Malacca.
    3. INS Mysore is a guided missile destroyer of the Indian Navy. It belongs to the Delhi class of destroyers.
    4. The exercise supports India’s Act East Policy and Indo Pacific outreach. Malaysia is an ASEAN member and a maritime neighbour across the Bay of Bengal.

    Prelims angle

    Pairing exercises with countries. Samudra Laksamana is India and Malaysia. Location cue Lumut and the Strait of Malacca as a chokepoint. Distinguish from other India naval exercises such as Varuna with France and Malabar with the United States, Japan and Australia.

    Mains angle

    GS3, security, and GS2, India and its neighbourhood. Naval diplomacy and maritime security cooperation in the Indo Pacific.

    Matching Previous Year Question

    “No direct PYQ on this bilateral exercise was traced in the provided files. Closest tracked Microtheme is Defence and India’s maritime security cooperation.”

  • Defence Acquisition Council clears capital acquisition proposals worth about ₹1.10 lakh crore

    Defence Acquisition Council clears capital acquisition proposals worth about ₹1.10 lakh crore

    Why in the News

    The Defence Acquisition Council (DAC), chaired by Defence Minister Rajnath Singh, has accorded Acceptance of Necessity (AoN) for defence acquisition proposals worth around ₹1.10 lakh crore.

    • About 98% of the approved procurements are planned from Indian industry, reinforcing the government’s focus on defence indigenisation and self reliance.

    What is the DAC?

    • Defence Acquisition Council (DAC) is the highest decision-making body in the Ministry of Defence for defence procurement.
    • It was constituted in 2001 following the recommendations of the Group of Ministers after the Kargil War.
    • Chairperson: Union Defence Minister.
    • It deals with major decisions related to acquisition of capital assets for the Armed Forces.

    What has the DAC approved?

    Indian Army

    • CBRN reconnaissance vehicles: Detect, identify, monitor and mark areas contaminated by chemical, biological, radiological and nuclear agents.
    • High Mobility Vehicles (HMVs): Improve operational mobility and logistics in difficult terrain.
    • Self Propelled Mechanical Mine Layers (MMLs): Provide faster mine laying capability.
    • Advanced Light Helicopters (ALHs): Support operations across diverse terrains.
    • Trawl tanks: Facilitate movement through mine contaminated areas.
    • Sarvatra Bridge System: Provides rapid bridging and crossing capability during military operations.

    Indian Navy

    • Arudhra radars: To replace existing air route surveillance radars at naval air stations.
    • Marine Gas Turbines (MGTs): Indigenous design, development and procurement for warship propulsion, reducing dependence on foreign vendors.

    Indian Air Force and Defence Forces

    • Proposals to enhance capabilities of fighter aircraft, transport aircraft and helicopters.
    • Ground Based Multi Purpose Jammers (GBMPJ): Provide jamming capability against adversary radars.
    • Defence Forces Secure Access Card (DEFSAC): Replace paper based identity cards, passes and permits with interoperable RFID based smart cards.

    Why is Defence Indigenisation Important?

    • Strategic autonomy: Reduces dependence on foreign suppliers for critical military systems.
    • Operational security: Minimises vulnerabilities arising from dependence on external vendors.
    • Domestic manufacturing: Creates demand for Indian defence companies and strengthens the defence industrial base.
    • Technology development: Encourages indigenous R&D and advanced defence technologies.
    • Economic benefits: Generates skilled employment and strengthens domestic supply chains.

    Prelims Pointers

    • Total value: Around ₹1.10 lakh crore.
    • DAC: Defence Acquisition Council, chaired by the Defence Minister.
    • AoN: Acceptance of Necessity, the initial approval for a defence procurement proposal.
    • CBRN: Chemical, Biological, Radiological and Nuclear.
    • ALH: Advanced Light Helicopter.
    • MGT: Marine Gas Turbine.
    • DEFSAC: Defence Forces Secure Access Card.
    • 98%: Approximately 98% of the approved procurement value is planned to be sourced from Indian industry.

    [2026] Which of the following items of defence hardware is/are manufactured in India?
    1.Su-30 MKT Fighter Jects
    2.T-90 MKI-III Tanks
    3.Akula Class Submarine
    Select the answer using the code given below:

    [A] 1 and 2

    [B] 1 and 3

    [C] 1 only

    [D] 2 only

  • 16th Aero India set for Bengaluru in February 2027

    16th Aero India set for Bengaluru in February 2027

    Why in the News

    The 16th Aero India will be held in Bengaluru from 8 to 12 February 2027.

    Static Context

    1. Nature: Aero India is Asia’s largest aerospace and defence exhibition, held once every two years.
    2. Venue: The event is held at Air Force Station Yelahanka, Bengaluru.
    3. Organiser: The Ministry of Defence organises the exhibition through its Department of Defence Production.
    4. Purpose: The show promotes indigenous defence manufacturing under the Atmanirbhar Bharat policy and draws global original equipment manufacturers and delegations.
    5. Last edition: The 15th edition was held in February 2025 at Bengaluru.

    Prelims Angle

    1. Aero India is held at Air Force Station Yelahanka, Bengaluru.
    2. It is a biennial event.
    3. The organising ministry is the Ministry of Defence.

    Mains Angle

    1. GS3, defence and indigenous manufacturing: A question can ask how such platforms advance defence exports and self reliance.
    2. The procurement side: It can probe how exhibition led engagement translates into actual technology transfer.
  • Navy Chief: INS Nipun will enhance our critical underwater capabilities

    Navy Chief: INS Nipun will enhance our critical underwater capabilities

    Why in the News

    The Indian Navy has commissioned INS Nipun at Mumbai, a dedicated Diving Support and Submarine Rescue Vessel built for work beneath the surface.

    What capability does INS Nipun add?

    1. It is a specialist platform for underwater work: The vessel is built for deep sea diving, underwater intervention and submarine rescue.
    2. It can carry the rescue submersible: Its ability to embark and operate the Indian Navy’s Deep Submergence Rescue Vessel is what converts it into a rescue platform.
    3. The rescue role extends beyond Indian submarines: It can respond to a distressed submarine of the Indian Navy or of a partner navy, which is the basis of the claim that India can emerge as the region’s preferred submarine rescue partner.
    4. Its diving capability supports relief work: The specialised diving capability can assist partner nations in underwater salvage and in humanitarian assistance and disaster relief (HADR) missions.
    5. Few navies hold the combination: The vessel brings together a range of capabilities possessed by only a handful of navies.

    Why does the Navy frame this as a strategic requirement?

    1. The maritime environment is described as contested: The Chief of the Naval Staff assessed that threat perceptions are constantly evolving and morphing into newer forms.
    2. Preparedness is the stated response: The exact nature of future threats cannot be predicted, so robust capability has to be built against anticipated threats in advance.
    3. The Western Naval Command gains a full column capability: The addition allows the command to operate above, on and beneath the waves.
    4. Integration is the immediate task: The command is to fold the vessel into operational plans, exercise her capabilities rigorously and develop proficiency around her systems.

    What does the vessel mean for indigenous shipbuilding?

    1. The builder is an Indian yard: Hindustan Shipyard Limited at Visakhapatnam designed and built the vessel indigenously.
    2. The class is new to the fleet: INS Nipun is the second ship of the Nistar class of diving support vessels.
    3. The Ministry of Defence frames it as self-reliance: The induction is presented as a further step towards self-reliance in defence shipbuilding.
    4. The platform type is rarely built domestically: A diving and rescue vessel is a niche design, so building it in India establishes a capability that cannot be sourced quickly from imports.

    Challenges to India’s submarine rescue and underwater capability

    1. Rescue is a race against the air supply: A disabled submarine’s crew survives on limited oxygen, so a rescue system has to be transported and mated within hours. Eg. All 118 crew aboard the Russian submarine Kursk died in the Barents Sea in 2000 before foreign rescue assistance was accepted.
      The Fix: Keep rescue systems prepositioned on both seaboards with standing mating certification against partner navy hatch designs.
    2. The fleet operates on two seaboards with few rescue platforms: Indian submarines patrol the Arabian Sea and the Bay of Bengal, and dedicated rescue assets are limited in number. Eg. India inducted its first Deep Submergence Rescue Vehicle system only in 2018, with the second following the next year.
      The Fix: Retain air transportable rescue systems that can be flown to the nearest usable port instead of sailed from a home base.
    3. Rescue only works where the hatch fits: A rescue vehicle can dock only with a submarine whose escape hatch matches its mating skirt, so cross navy rescue depends on standardisation. Eg. The International Submarine Escape and Rescue Liaison Office exists to run exercises that test exactly this compatibility.
      The Fix: Certify Indian rescue systems against partner navy hatch standards and publish the compatibility list to regional navies.
    4. Naval shipbuilding timelines stretch: Indian yards have delivered warships and submarines behind their original schedules, which delays the capability rather than the contract. Eg. Deliveries under the Scorpene class submarine programme ran years behind the timeline set at signing.
      The Fix: Link yard payments to certified milestone completion rather than to calendar tranches.
    5. Saturation diving is a scarce skill: Deep diving support needs trained saturation divers and chamber operators, and that trained pool is small worldwide. Eg. Offshore energy operators and navies draw saturation divers from the same limited global workforce.
      The Fix: Run a joint naval and commercial diving training school whose certification is recognised for offshore industry work, so the pool grows beyond service requirements.

    Back2Basics: Hindustan Shipyard Limited

    1. Status: A shipyard at Visakhapatnam that was transferred to the Ministry of Defence in 2010 from the Ministry of Shipping.
    2. Origin: It was founded in 1941 as Scindia Shipyard and built India’s first indigenous merchant ship, Jala Usha, in 1948.
    3. Work: It builds and repairs merchant and naval vessels and carries out submarine refits for the Indian Navy.
    4. Current orders: It is building the Nistar class diving support vessels and the fleet support ships ordered for the Navy.

    [2026] Which of the following items of defence hardware is/are manufactured in India?

    1. Su-30 MKI Fighter Jets

    2. T-90 MK-III Tanks

    3. Akula Class Submarine

    (a) 1 and 2

    (b) 1 and 3

    (c) 1 only

    (d) 2 only

  • Why India took 16 years to acquire fire-and-forget Javelin missiles

    Why India took 16 years to acquire fire-and-forget Javelin missiles

    Why in the News

    India has finalised a deal to purchase the Javelin anti-tank guided missile (ATGM) system from the United States through its Foreign Military Sales (FMS) process. The purchase closes a process that began in 2010 and was shelved and revived several times in between. The original attempt collapsed over the American refusal to release the missile’s core seeker technology, and the alternative India turned to in its place, Israel’s Spike system, also failed to convert into a contract. The tension is that the deal has now closed on terms India rejected sixteen years ago, since co-production of a finished round is a different thing from the full transfer of technology that was demanded the first time.

    What is the Javelin anti-tank guided missile?

    1. What it is: A third generation, man portable anti-tank guided missile produced in the United States, designed to be carried and fired by a two person infantry team.
    2. Fire and forget guidance: The operator locks the missile onto the target before launch and the missile then guides itself to impact. The firing team can leave the position immediately, which a wire guided missile does not allow.

    Why did India want the Javelin in 2010?

    1. The stated intent: In August 2010 the Defence Minister told Parliament that the government intended to procure third generation Javelin missiles through the FMS route, and that the procurement would include a transfer of technology.
    2. The inventory gap: The move was driven by a shortage of anti-tank guided missiles in the Indian Army’s inventory.
    3. The indigenous programme slipped: The original timelines for the indigenous systems being developed by the Defence Research and Development Organisation (DRDO) had been delayed.
    4. What it was meant to replace: The idea was to replace the ageing Milan-2T and Konkurs missile systems then in use with the Army.
    5. Where the preference came from: United States forces actively showcased the system during the 2009 bilateral exercise Yudh Abhyas, after which it was highlighted as the choice to immediately fill the gap.

    Why did the first attempt collapse?

    1. The technology restriction: The acquisition was shelved because of stringent technology transfer restrictions imposed by Washington.
    2. The specific component withheld: The United States refused to share the missile’s core seeker technology, the imaging sensor that identifies and tracks the target, under a 100 per cent transfer of technology model.
    3. The consequence: The refusal caused India to pivot to Israel’s Spike missile system, manufactured by Rafael Advanced Defense Systems, in 2014.

    What happened to the Spike alternative?

    1. Why Spike was chosen: In 2014 India went ahead with Spike over the Javelin, on the understanding that it could offer greater flexibility of technology transfer and local production.
    2. The order cleared: The Defence Acquisition Council cleared the purchase of over 8,000 Spike missiles.
    3. Why it was cancelled: Concerns over the system’s performance in trials, over technology transfer, and over progress in India’s own man portable missile programme led to cancellation of the $500 million order in 2017.
    4. Revived and shelved again: The deal was revived in 2018 following the Israeli Prime Minister’s visit, and was subsequently shelved again.
    5. The stopgap purchase: India undertook an emergency purchase of a limited quantity of the fourth generation Spike-LR missiles in 2019 to meet an immediate operational gap.
    6. What did get built: In August 2023 Kalyani Rafael Advanced Systems, a joint venture between the Kalyani Group and Rafael, said it had won a Rs 287.51 crore order from the Defence Ministry for the supply of the missile systems.

    What changed to make the second attempt succeed?

    1. A different bilateral setting: The Javelin reappeared in India United States strategic discussions at a point when defence cooperation between the two countries had deepened.
    2. Co-production replaced technology transfer as the ask: A United States Congressional Research Service report updated in 2025 noted that co-production discussions involving the missile were ongoing.
    3. The industrial tie-up: In February 2025 the Javelin Joint Venture, a partnership between Lockheed Martin and Raytheon, said it was exploring co-assembly and co-production in India. It signed a memorandum of understanding with Bharat Dynamics Limited.
    4. The operational trigger: Discussions gained pace after Operation Sindoor in May 2025.
    5. The two track negotiation: By July 2025 India was negotiating for the systems both as an emergency procurement and through a long term contract, the latter likely involving co-production of the weapon systems.
    6. The clearance: Washington officially cleared the sale in November 2025.

    Challenges to the Javelin acquisition

    1. A government to government sale surrenders schedule control: Under Foreign Military Sales the buyer contracts with the United States government rather than with the manufacturer, so delivery follows the seller’s production queue. Eg. GE Aerospace’s F404 engine deliveries for the Tejas Light Combat Aircraft programme ran late as European demand for American systems surged after 2024. Fix. Write dated delivery milestones with defined penalties into the Letter of Offer and Acceptance rather than relying on the standard schedule.
    2. Co-assembly is not the technology that was withheld: An arrangement to assemble finished rounds in India leaves the guidance package as an imported item, which is the precise gap that stalled the 2010 attempt. Eg. Indian co-production of imported systems has historically stopped at airframe and integration work. Fix. Tie offset credit to manufacture of the seeker and its imaging components rather than to assembly hours.
    3. Unit cost limits how deep the stock can go: A fire and forget round with an imaging seeker costs many times what a wire guided round costs, which restricts the number of rounds a formation can hold. Eg. The 2019 purchase of Spike-LR was a limited emergency buy rather than an inventory replacement. Fix. Pair the import with volume production of DRDO’s Man Portable Anti-Tank Guided Missile so the expensive round is reserved for the hardest targets.
    4. Four missile families in one role: The Army would operate legacy Milan and Konkurs stock, Spike, Javelin and the indigenous system together, multiplying training pipelines and spares chains. Eg. The Kalyani Rafael line and a Bharat Dynamics Limited line would produce competing rounds for the same infantry task. Fix. Fix a role split by range band and phase the legacy systems out on a published timetable.

    Conclusion

    India has been short of man portable fire and forget anti tank missiles for more than a decade. The purchase answers that operational gap rather than any shift in acquisition policy, and the indigenous programme’s repeated slippage is what left the gap open. The marker to watch is whether the domestic arrangement moves past final assembly into seeker manufacture, since that is the component the first attempt broke on. If it does not, the deal has bought rounds rather than capability, and a one time exception starts to look like the practice.

    Back2Basics: Foreign Military Sales

    1. What it is: The United States government’s programme for selling defence articles, services and training to foreign governments and international organisations.
    2. How the transaction runs: The buyer contracts with the United States government, which then places the order with the manufacturer on the buyer’s behalf, so there is no direct commercial contract with the company.
    3. Who administers it: The Defense Security Cooperation Agency, under the Department of Defense, runs the programme under the Arms Export Control Act, 1976.
    4. The Congressional step: Sales above set value thresholds must be notified to the United States Congress before a Letter of Offer and Acceptance is issued to the buyer.

    Matching Previous Year Question

    “[2021, GS3, 10 marks] How is S-400 air defence system technically superior to any other system presently available in the world?”

  • Govt. eases norms for defence exports, licences

    Why in the News

    The Defence Ministry has simplified its Defence Export Standard Operating Procedure (SOP) and overhauled the Open General Export Licence (OGEL) framework to help Indian defence manufacturers access global markets faster. Stakeholder consultation with concerned ministries and government agencies has been dispensed with for exports of non-lethal defence items to most destinations, though safeguards continue for sensitive countries, and the same consultation requirement has been removed altogether for exports linked to international tenders and exhibitions.

    What has changed under the revised Export SOP?

    1. Reduced consultation for non-lethal exports: Stakeholder consultation with concerned ministries and agencies is no longer required for exporting non-lethal defence items to most destinations, though safeguards remain in force for sensitive countries.
    2. No consultation for tenders and exhibitions: The same consultation requirement has been dropped for exports of all items meant for international tenders and exhibitions, letting Indian companies pursue overseas opportunities faster.

    How has the OGEL framework been restructured?

    1. Consolidated procedures: Three separate OGEL SOPs, covering major platforms and equipment, parts and components, and intra-company technology transfer, have been merged into a single framework.
    2. Longer validity and wider country coverage: OGEL validity has been extended from two years to three, and its country coverage expanded from 41 countries to all countries except those designated negative or sensitive.
    3. A new licence category for long-term contracts: Indian companies with long-term contracts or agreements with foreign original equipment manufacturers can now obtain an OGEL for eligible items tied to that specific manufacturer, with validity aligned to the underlying contract.
    4. Expanded item coverage: OGEL eligibility now extends to civil-end-use exports of specified small-calibre arms components and protective equipment.

    Challenges to the liberalised export and licensing regime

    1. Diversion risk from wider country coverage: Extending OGEL coverage to all countries except a negative list raises the risk that dual-use or sensitive items reach unintended end users through re-export or transhipment. Eg. Widened general licensing regimes elsewhere have previously required retrofitted end-use verification systems after initial liberalisation exposed gaps, as seen in tightened United States Commerce Control List enforcement following early Export Administration Regulations liberalisation. Fix. Pair the wider OGEL coverage with mandatory post-export end-use certification audits for a sample of shipments to non-treaty destinations.
    2. Consultation removal versus oversight continuity: Dispensing with stakeholder consultation for non-lethal exports speeds approvals but removes a cross-ministry check that previously caught destination-specific concerns before shipment. Eg. Non-lethal classification itself can be contested, since components with civil and military dual use, such as certain protective equipment, may be misclassified at the exporter’s discretion. Fix. Retain a post-facto sampling audit by the Department of Defence Production even where pre-export consultation is waived.

    Conclusion

    The Defence Ministry’s overhaul of the Export SOP and the OGEL framework liberalises licensing timelines, validity and country coverage for Indian defence exporters while explicitly retaining safeguards for sensitive countries and technologies. The stated intent is to let Indian manufacturers respond faster to international tenders and deepen co-production ties with foreign original equipment manufacturers.

    Back2Basics: What is an Open General Export Licence (OGEL)?

    1. An OGEL is a standing, one-time authorisation that lets an eligible exporter self-generate export authorisations for multiple consignments of specified defence items without seeking a separate approval for every individual shipment.
    2. It is administered by the Defence Ministry’s Department of Defence Production and covers major platforms and equipment, parts and components, and intra-company technology transfers.
    3. Its use remains subject to end-destination safeguards, so items bound for negative or sensitive countries continue to require case-by-case authorisation outside the OGEL route.

    Matching Previous Year Question

    No direct PYQ traced in the provided files.

  • Rajnath approves transfer of missile technology to domestic defence industry

    Rajnath approves transfer of missile technology to domestic defence industry

    Why in the News

    Defence Minister Rajnath Singh has approved the transfer of technology (ToT) for all conventional missile systems developed by the Defence Research and Development Organisation (DRDO) to the Indian defence industry, opening the way for domestic private production of these systems for the first time. Until now, production had rested with Defence PSU Bharat Dynamics Limited, DRDO’s own in-house facilities, and the India-Russia joint venture that builds the BrahMos cruise missile. This is a One development, one row item; both The Hindu and The Indian Express carried the decision, and this entry is filed from the Indian Express account, which names the specific missile systems and the strategic systems excluded from transfer.

    What does the transfer of technology actually change?

    1. A closed production model opens to private industry: Production of DRDO-developed conventional missile systems was previously confined to a defence PSU and DRDO’s own facilities; the ToT decision allows private companies, MSMEs, and other technology partners to manufacture these systems, subject to qualifications, certifications, and regulatory requirements.
    2. An initial set of named systems anchors the rollout: Officials cited the beyond-visual-range air-to-air missile ASTRA, the anti-radiation missile RUDRAM, the short-range air defence system VSHORADS, the anti-tank guided missile NAG, and the Naval Anti-Ship Missile (NASM) as the systems the initiative could begin with, though the stated goal is to extend private production to all conventional missile systems.
    3. Strategic systems are explicitly carved out: The Agni series and the K-series missiles will not be part of this technology transfer, since they are classified as strategic missiles rather than conventional ones.
    4. The stated objective is industrial-scale transition: The Ministry of Defence framed the decision as enabling the transition of missile projects from the development stage to industrial-scale production, reducing import dependence and increasing indigenous value addition.

    Conclusion

    The decision restructures who is permitted to manufacture India’s conventional missile systems, shifting DRDO’s role from developer-cum-producer to developer-cum-technology-provider, and is intended to widen the industrial base, including private firms and MSMEs, that can supply the country’s expanding conventional missile requirements.