DRDO Unveils New Push to Bring MSMEs and Start-ups Into India’s Defence Technology Ecosystem

New Delhi, September 15, 2026: India is stepping up efforts to build a more integrated and self-reliant defence manufacturing ecosystem, with the government placing MSMEs and deep-tech start-ups at the centre of the country’s next phase of defence innovation.

At the VIMARSH 2026 DRDO-Industry Synergy Meet in New Delhi, Defence Minister Rajnath Singh unveiled a series of policy initiatives aimed at reducing the technical and financial barriers faced by smaller companies seeking to enter the defence sector.

The initiatives include direct funding, incubation support, dedicated access to DRDO testing facilities and a new framework for securely sharing DRDO-developed software source codes with licensed industries. The objective is to accelerate innovation, improve technology absorption and strengthen India's domestic defence supply chain.

From technology development to an integrated defence ecosystem

The significance of VIMARSH 2026 goes beyond individual technology transfers. The government is seeking to change the way India's defence establishment and private industry work together.

Rajnath Singh said DRDO-industry collaboration should no longer be restricted to manufacturing. Instead, cooperation should extend across the entire value chain—from research and design to testing, certification and manufacturing.

The underlying model is one of complementary  capabilities: DRDO contributes scientific knowledge and defence technologies, established industry provides manufacturing scale, start-ups contribute innovation and agility, while India's young talent pool supplies the next generation of technological capabilities.

This approach could potentially make the defence industry less dependent on a small number of large manufacturers and create more opportunities for smaller technology companies to participate in complex defence programmes.

New policy support for MSMEs and deep-tech start-ups

One of the most important announcements at VIMARSH 2026 is the effort to lower the entry barriers for MSMEs and deep-tech start-ups.

The new framework is designed around several forms of support:

• Direct funding for promising companies
• Incubation support to help technologies move towards maturity
• Dedicated access to DRDO testing facilities
• Greater emphasis on industry-led research and development
• Funding and mentorship for start-ups and MSMEs
• Stronger academia-industry collaboration
• Opportunities to work on emerging technologies such as artificial intelligence, quantum computing, hypersonics and directed-energy systems.

For smaller companies, access to testing and validation facilities can be particularly important. Defence technologies often need to meet demanding operational, reliability and certification requirements before they can enter service. Providing structured access to testing infrastructure could therefore help promising technologies move more efficiently from laboratory concepts towards deployable systems.

A new framework for sharing defence software source code

Another significant initiative unveiled at the event is a standardised and secure framework for sharing DRDO-developed software source codes with licensee industries.

The move is intended to support the development of software-defined defence capabilities and help address technology obsolescence.

As modern military systems increasingly depend on software, secure access to relevant source code can become important for maintaining, adapting and upgrading systems over their operational lifetimes.

The framework therefore represents an attempt to make the technology-transfer process more relevant to today's increasingly software-intensive defence environment.

Nine technology-transfer agreements handed to 13 manufacturers

The event also saw nine Licensing Agreements for Transfer of Technology (LAToTs) handed over to 13 manufacturing partners.

These agreements are intended to enable commercial production of state-of-the-art defence systems.

Technology transfer is an important component of India's defence-indigenisation strategy because it allows technologies developed through public-sector research to move into industrial production.

The government says the expansion of technology transfer has already helped establish parallel production lines for meeting the requirements of the armed forces while also benefiting MSMEs and expanding India's previously limited manufacturing base.

According to Defence Secretary and Secretary, Department of Defence R&D, Rajesh Kumar Singh, more than 2,300 technology transfers have so far been handed over to more than 1,100 industries. He also said technologies relating to approximately 50 DRDO-developed missiles have been made available to industry to encourage greater participation.

Industry outreach gets a further push

VIMARSH 2026 also sought to broaden participation beyond established defence companies.

Strategic MoUs were exchanged with the Society of Indian Defence Manufacturers (SIDM) and Laghu Udyog Bharati (LUB) to expand industry outreach and encourage grassroots participation.

DRDO also signed a contract with the Quality Council of India for System for Advance Manufacturing Assessment and Rating (SAMAR) version 2.0.

The system is intended to benchmark the manufacturing maturity of domestic defence enterprises.

Such standardisation can help provide a clearer picture of the capabilities and maturity levels of companies operating within the domestic defence manufacturing ecosystem.

India's defence transition: From importer to exporter

The policy push comes against the backdrop of India's stated ambition to transition from a defence importer to a defence exporter.

Rajnath Singh specifically highlighted areas such as drone technology, artificial intelligence and cybersecurity where MSMEs and start-ups could accelerate innovation and strengthen India's technological and strategic capabilities.

He described MSMEs as both the backbone of India's economy and a critical component of the defence ecosystem, while stressing the importance of quality, delivery, innovation, global standards and partnerships with larger companies.

The broader objective is to develop a defence industrial base capable not only of satisfying domestic requirements but also of competing in international markets.

Defence reforms creating space for private innovation

The government has pointed to a series of reforms undertaken in recent years to reduce India's dependence on defence imports.

These include:

• Positive Indigenisation Lists
• Make in India
• iDEX
• ADITI
• Allocation of 25% of the defence R&D budget to the private sector
• Grants for start-ups through the Technology Development Fund.

According to the Defence Minister, these measures have helped create a new ecosystem in which start-ups can develop solutions based on actual operational requirements.

The emphasis on operational requirements is particularly important. Rather than innovation being developed in isolation, the ecosystem is designed to connect technology developers with the needs of India's armed forces.

VIMARSH's bigger message: From buyer-seller to co-creation

The theme of VIMARSH 2026 was “Varta se Vikas”, and the event was designed to connect commercial innovation with national defence readiness.

Rajesh Kumar Singh described the objective as moving India's defence ecosystem away from a traditional transactional buyer-seller relationship towards a collaborative, co-created technology ecosystem.

That shift could be significant for emerging defence technologies, where development cycles can be complex and close interaction between researchers, manufacturers and end users is often necessary.

Focus on faster technology absorption

The technical sessions at VIMARSH 2026 covered roadmaps across several major DRDO technological clusters, including:

• Aeronautical Systems
• Missiles
• Armaments
• Microelectronics
• Naval Systems

DRDO headquarters also introduced initiatives aimed at simplifying procedural compliance, accelerating access to facilities and reducing licensing timelines.

A high-level panel involving DRDO, the Department of Defence Production and the armed forces discussed ways to accelerate technology absorption, optimise Development-cum-Production Partner models and speed up the induction of indigenous technologies into active service.

The focus on speed is important because developing a technology is only one part of the defence innovation cycle. Its value ultimately depends on how efficiently it can be tested, certified, manufactured and inducted.

Preparing for the technologies of future warfare

A particularly forward-looking aspect of the initiative is its focus on technologies expected to shape future military capabilities.

The policy initiatives explicitly identify AI, quantum computing, hypersonics and directed energy as areas where investment and collaboration should be encouraged.

Rajnath Singh stressed that technological leadership would increasingly determine strategic advantage in future warfare, arguing that companies investing in emerging technologies today could become tomorrow's technology leaders.

For India's start-up ecosystem, this potentially opens a much wider field than conventional defence manufacturing. Companies working in artificial intelligence, advanced computing, autonomous systems, cybersecurity and other deep-tech fields could increasingly find opportunities within defence programmes.

A long-term vision for 2047

The initiatives announced at VIMARSH 2026 form part of a larger vision linked to Viksit Bharat 2047.

According to Rajnath Singh, India's goal by 2047 is to achieve self-reliance in critical technologies, substantially increase indigenous content, achieve multi-fold growth in defence exports and establish a robust presence in global supply chains.

This means the ambition extends beyond simply replacing imported defence equipment.

The larger objective is to build an ecosystem in which India can research, design, develop, manufacture and export advanced defence technologies while maintaining control over strategically important capabilities.

DRDO's growing technology-transfer footprint

The scale of technology transfer highlighted at VIMARSH provides an indication of how the ecosystem is evolving.

With more than 2,300 technology transfers involving over 1,100 industries, DRDO's research is increasingly being connected with private and industrial manufacturing capabilities.

The next challenge is to deepen this network—particularly by bringing more MSMEs and start-ups into the supply chain.

Smaller firms can play an important role in specialised components, subsystems and niche technologies. Rajnath Singh specifically highlighted their role in developing components and subsystems alongside major defence systems.

More than a defence manufacturing programme

VIMARSH 2026 ultimately reflects an attempt to build a broader national defence innovation ecosystem.

The event brought together more than 250 defence industry leaders, industry chamber representatives, senior civil and military officials and DRDO scientists, with the Secretary of the Department for Promotion of Industry and Internal Trade also participating.

The presence of such a broad group underlines the increasingly interconnected nature of India's defence technology ambitions.

The government's message is clear: building an Aatmanirbhar defence sector will require more than government laboratories and large defence manufacturers. It will require start-ups, MSMEs, academia, established companies, researchers and the armed forces to work together.

What VIMARSH 2026 could mean for India's defence industry

The immediate announcements at VIMARSH 2026 can be viewed as pieces of a larger strategy:

Lower barriers → more start-ups and MSMEs → greater innovation → faster technology transfer → stronger domestic manufacturing → higher indigenous content → greater export potential.

Whether this translates into sustained technological leadership will depend on how effectively the new frameworks are implemented and how quickly technologies can move from research and prototypes into reliable, scalable production.

But the direction is unmistakable. India is seeking to move from a defence ecosystem centred primarily on procurement towards one increasingly based on domestic innovation, collaborative development and industrial co-creation.

As India works towards its 2047 objectives, the ability to connect DRDO's technological capabilities with the speed and innovation of private industry could become one of the defining factors in building a globally competitive Indian defence-industrial base. 

Avantel Secures ₹117.88 Crore DRDO Contract to Build Indigenous Satellite Communication Hub for Defence

Representative Image 

Avantel Limited, a leading provider of technology solutions for the defence and communication sectors, has secured a contract worth ₹117.88 crore (inclusive of applicable taxes) from the Defence Electronics Applications Laboratory (DEAL), Defence Research and Development Organisation (DRDO), Ministry of Defence, Government of India, for the development, installation and commissioning of a Ground Segment Hub for voice and data communication using an Indian geostationary satellite.

The project further adds to Avantel's engagement in developing communication infrastructure for strategic and defence applications.

Commenting on the development, Siddhartha Abburi, Director, Avantel Limited, said, “We are pleased to receive this contract from DRDO for the development, installation and commissioning of a Ground Segment Hub for voice and data communication. The order reflects confidence in our technological and execution capabilities. We remain focused on delivering indigenous communication solutions that support India's strategic and defence requirements.”

This win strengthens Avantel's position as a technology partner in India's defence communication ecosystem and highlights its continued engagement in supporting indigenous communication capabilities for strategic applications.

Avantel remains focused on developing and delivering communication technologies that support India's evolving defence requirements and contribute to the country's broader objective of strengthening domestic capabilities in critical technologies.

About Avantel Limited

Founded by Dr. Abburi Vidyasagar, Avantel Limited has been a pioneer in strategic communication technologies for over three decades. The company specialises in advanced communication products, satellite communication systems (SATCOM), radar subsystems, Software-Defined Radios (SDRs), electronic warfare components, and network management software. Avantel’s innovation-driven approach is rooted in strengthening national security and enhancing India’s technological self-reliance across critical defence domains.

India Unveils First Indigenous 350‑Kg Turbojet, Powering Next‑Gen Missiles and UAVs

India has successfully developed its first indigenous expendable turbojet engine in the 350 kg thrust class, designed by DRDO’s Gas Turbine Research Establishment (GTRE) and manufactured by Hyderabad-based Azad Engineering. This marks a landmark achievement in aerospace propulsion, placing India among the few nations capable of mastering such complex technology.

Azad Engineering, Hyderabad was chosen by GTRE as the industry partner for manufacturing and assembling the engine. On July 22, 2026, Azad Engineering successfully delivered the fully realized engine to GTRE — a landmark in India’s aerospace and defence journey. This milestone reflects years of precision engineering, advanced manufacturing, and the seamless collaboration between India’s scientific and industrial communities.

Key Facts

• Developer: DRDO’s Gas Turbine Research Establishment (GTRE)
• Industry Partner: Azad Engineering, Hyderabad
• Thrust Class: 350 kg
• Applications: Cruise missiles, UAVs, drones, expendable aerospace platforms
• Delivery Date: July 22, 2026
• Significance: Strengthens India’s self-reliance under Aatmanirbhar Bharat

Technical Highlights

• Architecture: Single-spool turbojet with four-stage axial-flow compressor, annular combustor, single-stage axial-flow uncooled turbine, fixed exit-area nozzle
• Design Suitability: Compact, cost-effective, reliable for expendable or medium-endurance missions
• Primary Role: Powering medium-range anti-ship missiles; adaptable for UAVs and drones

Strategic Significance

• Global Context: Jet engine technology mastered by few nations due to complexity in metallurgy and precision engineering
• National Impact: Reduces dependence on foreign propulsion systems, bolsters indigenous missile/UAV programmes
• Defence Ecosystem: Reflects successful collaboration between DRDO and private industry

Comparative Context

Engine Type	Thrust Class	Applications	Status in India
Expendable Turbojet	350 kg	Cruise missiles, UAVs	First indigenous, delivered July 2026
Compact Turbofan (Yantur)	4.5–12.5 kN	Long-range autonomous systems	Under development by Paninian India
Scramjet (DRDO)	Supersonic combustion	Hypersonic demonstrators	Tested, ongoing R&D

Risks & Challenges

• Manufacturing Precision: Requires advanced metallurgy and uncompromising standards; scaling production could be challenging
• Operational Reliability: Expendable engines must balance cost-effectiveness with performance consistency
• Global Competition: US, Russia, and China already field advanced expendable propulsion systems; India must accelerate deployment

India’s Startup D-Propulse Ignites Detonation Future — TRL-5 Breakthrough in Supersonic Propulsion

Indian startup D‑Propulse has marked a significant propulsion milestone by successfully testing a 5 kN air‑breathing Rotating Detonation Engine (RDE) integrated with an aerospike nozzle, achieving Technology Readiness Level‑5 (TRL‑5) at a government test facility.

D-Propulse Aerospace was co-founded by defense journalist Saurav Jha and aerospace scientist Dr. V. Ramanujachari, with former DRDO chief Dr. V.K. Saraswat serving as chief mentor.

This breakthrough is directly useful for supersonic missiles and UAVs as it solves long‑standing propulsion challenges while opening new tactical possibilities.

First announced by the D-Propulse Co-founder & CEO Saurav Jha, and followed by Navbharat Times report, the D‑Propulse’s breakthrough took on 21-22 July 2026, confirming the successful TRL‑5 test of its 5 kN air‑breathing Rotating Detonation Engine (RDE) with an aerospike nozzle at a DRDO facility.

For an uninitiated, TRL‑5 means a technology has moved beyond lab validation and is now tested successfully in a relevant environment with realistic supporting systems. For D‑Propulse, this confirms its RDE prototype works under real‑world aerospace test conditions, not just in controlled lab setups.

This breakthrough could be a game‑changer for India’s aerospace ambitions, complementing DRDO’s scramjet work and ISRO’s reusable launch vehicle efforts.

D‑Propulse, incubated at IIT‑Madras, tested its 5 kN air‑breathing RDE at a DRDO government test rig. The engine achieved TRL‑5, meaning it has moved beyond lab validation into prototype maturity.

The engine produced stable 5 kN thrust even at reduced air mass flow, equivalent to a small cruise missile engine.

Key Highlights

• Rotating Detonation Engine: Uses continuous detonation waves for combustion, offering higher efficiency than conventional gas turbines or scramjets.
• Aerospike nozzle: Maintains efficiency across varying altitudes, unlike traditional bell nozzles.
• 5 kN thrust: A meaningful scale for tactical UAVs, small launch systems, or future hypersonic demonstrators.
• TRL‑5 achievement: Demonstrates validation in a relevant environment, bridging lab innovation with operational readiness.
• Government test facility: Adds credibility, ensuring rigorous evaluation under controlled conditions.

Thought I'll give you guys a sneak peek. Here's a video of one of the short duration runs conducted by @dpropulse with its air-breathing rotating detonation prototype at a government facility during July 21-22, 2026. 5 kN burn with reduced air mass flow and reduced fuel flow as… pic.twitter.com/wx6da8LWZ5

— Saurav Jha (@SJha1618) July 23, 2026

Close-Up Video

This breakthrough is highly useful in both supersonic missiles and UAVs because it directly addresses propulsion efficiency, adaptability, and compactness.

For supersonic missiles, an air‑breathing Rotating Detonation Engine (RDE) allows extended range since it doesn’t require carrying oxidizers, reducing weight and increasing payload capacity. Continuous detonation waves sustain thrust at supersonic speeds, enabling faster cruise missiles than current scramjet‑based systems. The aerospike nozzle ensures efficiency across altitudes, which is vital for missiles that must fly low to evade radar or high to maximize range. With a compact thrust class of 5 kN, the engine is well‑suited for tactical cruise missiles, balancing destructive power with deployability.

For UAVs, the RDE’s fuel efficiency extends endurance, making long‑duration surveillance or strike missions more feasible. Its compact size allows integration into smaller UAVs without compromising payload capacity. The high thrust‑to‑weight ratio enables UAVs to carry heavier sensors or weapons while still achieving supersonic dash capability. Additionally, air‑breathing RDEs could power reusable UAV demonstrators or spaceplane concepts, reducing operational costs and opening new possibilities for reusable platforms.

Overall, D‑Propulse’s TRL‑5 RDE is a dual‑use breakthrough: it strengthens India’s missile deterrence by enabling lighter, faster, longer‑range supersonic cruise missiles, while also enhancing UAV endurance and speed, a rare combination globally.

Why It’s Considered “Most Advanced”

Calling D‑Propulse’s 5 kN RDE with aerospike nozzle the “world’s most advanced supersonic missile engine” rests on several disruptive features that set it apart from conventional propulsion systems:

• Rotating Detonation Combustion: Unlike scramjets or turbojets, RDEs harness continuous detonation waves, yielding higher thermal efficiency (up to 25–30% more) and reduced mechanical complexity.
• Aerospike nozzle integration: Maintains thrust efficiency across altitudes, solving the bell‑nozzle limitation. This is rare even in global RDE prototypes.
• Air‑breathing capability: Enables sustained supersonic flight without carrying oxidizers, critical for long‑range cruise missiles.
• TRL‑5 validation: Tested in a relevant environment at a DRDO facility, proving real‑world readiness beyond lab experiments.
• Compact thrust class: 5 kN is ideal for tactical supersonic missiles and UAVs, making it deployable rather than just experimental.

Global Context

• U.S. & Russia: Have demonstrated RDE prototypes, but most remain at TRL‑3/4 (lab scale).
• China: Focused more on scramjets; RDE work is less public.
• India (D‑Propulse): Achieving TRL‑5 with aerospike integration places it ahead in practical supersonic missile propulsion.

Comparative Edge

Engine type	Efficiency	Altitude adaptability	Current maturity
RDE + Aerospike	Highest	Excellent	India TRL‑5
Scramjet	Moderate	Limited	India TRL‑5 combustor
Turbojet	Low	Poor	Mature, outdated for hypersonics

Why “World’s Most Advanced”

• Unique integration: No other startup or nation has publicly demonstrated an air‑breathing RDE with aerospike nozzle at TRL‑5.
• Efficiency + adaptability: Combines detonation efficiency with altitude‑independent thrust.
• Deployment potential: Represents the closest step toward deployable supersonic missile propulsion globally.

It combines efficiency, adaptability, and validated readiness in a way unmatched worldwide, making D‑Propulse’s RDE a benchmark in supersonic missile engine technology.

Strategic Significance

• Efficiency leap: RDEs can reduce fuel consumption while sustaining high thrust‑to‑weight ratios.
• Hypersonic potential: Air‑breathing RDEs with aerospike nozzles could power next‑gen cruise missiles or reusable spaceplanes.
• Startup ecosystem: D‑Propulse’s success highlights India’s growing private‑sector role in advanced aerospace propulsion.
• Global context: Few nations have demonstrated RDEs beyond lab scale; TRL‑5 positions India among early movers in this disruptive technology.

Contextual Comparison

Propulsion type	Efficiency	Scalability	Current Status
RDE	High (detonation‑based)	Compact, modular	Emerging, TRL‑5 in India
Scramjet	Moderate (supersonic combustion)	Large scale	India tested 1,200s combustor
Conventional turbojet	Lower	Mature	Widely deployed

This breakthrough could be a game‑changer for India’s aerospace ambitions, complementing DRDO’s scramjet work and ISRO’s reusable launch vehicle efforts.

India Successfully Tests Pinaka Long‑Range Guided Rocket at 60 km Minimum Range

On 8 July 2026, the Defence Research and Development Organisation (DRDO) successfully flight-tested the Pinaka Long Range Guided Rocket (LRGR) at the Integrated Test Range (ITR), Chandipur, validating its performance at a user-defined minimum range of 60 km. This marks a major milestone in India’s indigenous rocket artillery capability.

A guided rocket is a traditional artillery rocket fitted with a guidance assembly (GPS, inertial navigation, or laser seekers).

Essentially, guided rockets in rocket artillery are precision‑strike weapons that combine the high‑volume firepower of traditional rockets with modern guidance systems, allowing them to hit targets with accuracy measured in meters rather than kilometers. They bridge the gap between unguided artillery rockets and tactical missiles, offering armies flexible, cost‑effective precision firepower.

Pinaka Long Range Guided Rocket (LRGR) Successfully Tested

Pinaka Long Range Guided Rocket (LRGR) was successfully tested for a user defined minimum range of 60 km at the Integrated Test Range (ITR), Chandipur on 08 July 2026. During the trial, LRGR impacted on the target with textbook precision exactly following the predicted… pic.twitter.com/c8daYom3rw

— DRDO (@DRDO_India) July 8, 2026

• Date & Location: 8 July 2026, Integrated Test Range (ITR), Chandipur, Odisha.
• System Tested: Pinaka Long Range Guided Rocket (LRGR).
• Range Validated: Minimum operational range of 60 km.
• Performance: Executed all planned in‑flight manoeuvres and struck the designated target with precision.

Development & Design

• Lead Agency: Armament Research and Development Establishment (ARDE)
• Collaborators: High Energy Materials Research Laboratory (HEMRL), Defence Research and Development Laboratory (DRDL), Research Centre Imarat (RCI)
• Launcher: Fired from the in‑service Pinaka launcher, demonstrating compatibility across Pinaka variants

Strategic Significance

• Operational Flexibility: Validating minimum range ensures rockets can be deployed in close‑support missions as well as long‑range strikes
• Indigenous Capability: Strengthens India’s Aatmanirbhar Bharat initiative
• Force Multiplier: Enhances the Indian Army’s precision strike capability with guided rockets that minimize collateral damage
• Versatility: Same launcher can deploy multiple Pinaka variants, simplifying logistics and battlefield adaptability

Official Statements

• Defence Ministry: Confirmed successful validation of LRGR’s minimum range and precision strike capability
• Defence Minister Rajnath Singh: Congratulated DRDO, the Indian Army, and industry partners, calling it “a major milestone in indigenous design and development capability for long‑range guided rockets.”

Broader Impact

• Army Modernisation: Pinaka LRGR adds depth to India’s artillery arsenal, complementing systems like Pinaka Mk‑II
• Strategic Deterrence: Demonstrates India’s ability to deliver precision strikes at varying ranges
• Industry Collaboration: Reflects synergy between DRDO labs and defence industry partners in advancing rocket technology

India Empowers DRDO with Faster Defence R&D Approvals

Defence Minister Rajnath Singh has approved the revised Delegation of Financial Powers to DRDO (DFP‑2026), a landmark reform aimed at speeding up defence R&D projects, strengthening industry–academia collaboration, and reinforcing India’s vision of Aatmanirbhar Bharat. The framework decentralises financial authority to enhance efficiency, accountability, and timely execution of strategic projects.

This is a significant development in India’s defence R&D framework. The Delegation of Financial Powers to DRDO 2026 (DFP‑2026) is designed to streamline how projects are sanctioned and executed, ensuring that critical systems move from concept to deployment faster.

By decentralizing financial authority, DRDO labs and clusters can approve projects more quickly without waiting for lengthy clearances. By empowering DRDO, the reform reinforces India’s push for self‑reliance in defence technologies.

DFP‑2026:

Key Features of DFP‑2026

• Enhanced financial autonomy: Greater delegation of powers across DRDO labs and clusters, reducing bureaucratic delays.
• Dedicated provisions: Specific allocations for trial campaigns, testing, and evaluation activities.
• Pre‑project R&D sanctioning: Authorises early‑stage research initiatives to accelerate innovation.
• Clear segregation of powers: Grants‑in‑aid for Extra‑Mural Research, Defence Innovation Accelerator Centres of Excellence, and Technology Development Fund projects are streamlined under separate schedules.
• Industry–academia collaboration: Encourages partnerships with start‑ups, MSMEs, and universities to strengthen the innovation ecosystem.

Strategic Impact

• Faster delivery of defence systems: Critical technologies such as missile systems, airborne surveillance platforms, and combat aircraft projects will benefit from reduced approval timelines.
• Boost to Aatmanirbhar Bharat: Reinforces India’s self‑reliance in defence technologies by empowering indigenous R&D.
• Improved defence preparedness: Ensures timely induction of systems into the armed forces, enhancing operational readiness.
• Operational synergy: Complements the Delegation of Financial Powers to Defence Services (DFPDS‑2026), which expanded financial ceilings for field commanders.

Expert Perspectives

• Government stance: The Ministry of Defence highlights DFP‑2026 as a tool to cut procedural bottlenecks and empower DRDO at multiple levels.
• Analyst view: Former MoD financial advisor Amit Cowshish noted that while the reform improves efficiency, its transformative impact on major strategic programmes may be limited by funding availability and compliance rules.

Conclusion

DFP‑2026 marks a critical step in modernising India’s defence R&D ecosystem, balancing speed with accountability. By decentralising financial powers, it empowers DRDO to deliver cutting‑edge technologies faster, strengthens collaboration with industry and academia, and aligns with India’s long‑term strategic goal of self‑reliance in defence.

DRDO Hands Over Netra AEW&C FOC to IAF – Landmark in India’s Aerospace Self‑Reliance

The Defence Research & Development Organisation (DRDO) has handed over the Final Operational Clearance (FOC) of the indigenous ‘Netra’ Airborne Early Warning and Control (AEW&C) system to the Indian Air Force (IAF), marking a landmark in India’s journey toward aerospace self‑reliance. The ceremony took place in Bengaluru on June 25, 2026, with senior defence leaders and scientists in attendance.

The Netra AEW&C system is India’s first fully indigenous airborne early warning and control platform, developed by DRDO over two decades. It received Initial Operational Clearance (IOC) in 2017 and Final Operational Clearance (FOC) in June 2026, marking a major milestone in India’s defence self‑reliance.

DRDO Hands Over Final Operational Clearance of Netra AEW&C to IAF

Key Highlights of the Milestone

• Final Operational Clearance (FOC): Granted to the Netra AEW&C system, indigenously developed by DRDO in collaboration with IAF and industry partners.
• Operational Legacy: The system proved its reliability during Operation Sindoor (2025) and the Balakot strikes (2019), enhancing India’s airborne surveillance and battle management capabilities.
• Ceremonial Leadership: Presided over by Air Marshal Awadhesh Kumar Bharti, Deputy Chief of the Air Staff, with participation from former IAF Chief RKS Bhadauria (Retd), former DRDO Chairman Dr S Christopher, and senior DRDO scientists.
• Indigenous Achievement: Represents a major stride in Aatmanirbhar Bharat and the vision of Viksit Bharat through advanced aerospace technologies.

Strategic Importance

• Enhanced Surveillance: Netra AEW&C provides 360° radar coverage, real‑time situational awareness, and command‑and‑control functions critical for modern warfare.
• Battlefield Flexibility: Indigenous design allows custom modifications to adapt to evolving war scenarios, ensuring operational agility.
• Self‑Reliance: Demonstrates India’s ability to design, test, and operationalize complex airborne systems without foreign dependence.

Contributions & Recognition

• System Engineering Excellence: Dr K Rajalakshmi Menon (DG Aeronautics Cluster, DRDO) highlighted the role of system engineering and flight‑test planning in achieving programme objectives.
• Electronics Innovation: Dr BK Das (DG Electronics Cluster, DRDO) emphasized stakeholder synergy as the cornerstone of success.
• Industry & Scientific Collaboration: Organisations and units pivotal to Netra’s success were felicitated, underscoring the ecosystem approach to defence innovation.

Broader Defence Context

• Operation Sindoor (2025): Netra AEW&C played a vital role in precision strikes against terror camps in Pakistan and PoK, showcasing India’s Made‑in‑India defence capabilities.
• DRDO’s Expanding Portfolio: Alongside Netra, DRDO has advanced systems like Astra Mk‑II BVRAAM, Anant Shastra QRSAM, and LRASSCM, reinforcing India’s defence modernization.

Leadership Endorsements

• Raksha Mantri Rajnath Singh: Called the FOC a technological and strategic milestone, strengthening India’s airborne surveillance and command capabilities.
• Defence Secretary Rajesh Kumar Singh: Congratulated DRDO’s Aero Cluster and Team AEW&C for delivering an operationally capable system.

Brief History of Netra AEW&C

Origins and Early Development

• 1980s–1990s: India’s first attempt at airborne surveillance was the Airborne Surveillance Platform (ASP) project, codenamed Airavat.
• 1999 setback: A tragic crash of a modified HS‑748 Avro testbed near Arakkonam killed eight personnel, leading to suspension of the programme.
• 2003 revival: IAF and DRDO jointly studied requirements for a new AEW&C system.
• 2004 sanction: Government approved the AEW&C project, assigning primary responsibility to Centre for Airborne Systems (CABS).

Platform and Technology

• Aircraft base: Mounted on Embraer EMB‑145I jets, procured in 2008 with modifications for in‑flight refueling and SATCOM.
• Radar: Equipped with Active Electronically Scanned Array (AESA) radar providing 240° coverage and detecting threats up to 375 km.
• Mission suite: Includes Identification Friend or Foe (IFF), secure datalinks, electronic support measures (ESM), and communication support measures.

Operational Milestones

• IOC (2017): Netra entered service with the IAF’s 200 Squadron.
• Combat use: Demonstrated reliability during the Balakot strikes (2019) and Operation Sindoor (2025).
• FOC (2026): Officially handed over to the IAF in Bengaluru, confirming full operational capability.

Legacy and Future

Netra’s journey reflects perseverance after setbacks, scientific innovation, and strong IAF‑DRDO collaboration. The programme has laid the foundation for future indigenous AEW&C variants with expanded coverage and endurance.

Conclusion

The Netra AEW&C system evolved from India’s abandoned 1999 ASP project into a fully operational indigenous airborne surveillance platform by 2026. It now stands as a symbol of Aatmanirbhar Bharat, strengthening India’s aerial command‑and‑control capabilities.

The FOC of Netra AEW&C is more than a technological achievement—it is a strategic leap in India’s defence preparedness, symbolizing the synergy of science, industry, and armed forces. It strengthens India’s aerial command‑and‑control capabilities while advancing the nation’s vision of self‑reliance in defence technologies.

India Enters Elite League with Successful Ballistic Missile Defence and Naval Anti-Ship Missile Tests

India’s Defence Research and Development Organisation (DRDO) has successfully demonstrated multi-layered Ballistic Missile Defence (BMD) and the maiden flight-test of the Naval Anti-Ship Missile-Medium Range (NASM-MR) on June 10–11, 2026, placing India among the elite nations capable of intercepting Intercontinental Ballistic Missiles (ICBMs).

The @DRDO_India has successfully demonstrated multiple crucial technologies bolstering nations defence capabilities against different types of enemy threats.

Three consecutive flight-tests were successfully conducted to demonstrate multi-layered defence against long range… pic.twitter.com/0DKQF0LB30

— Rajnath Singh (@rajnathsingh) June 13, 2026

Key Highlights of the Tests

• Multi-Layered BMD Success
  - Conducted three consecutive flight-tests on June 10–11, 2026.
  - Interceptors successfully engaged long-range ballistic missile targets.
  - Systems designed with latest indigenous technologies to counter emerging missile threats.
  - Demonstration places India in the elite group of nations with capability to engage up to ICBMs.
  
• Naval Anti-Ship Missile-Medium Range (NASM-MR)
  - Maiden flight-test successfully conducted during the same trials.
  - Enhances India’s naval strike capability against medium-range maritime threats.
  - Witnessed by senior officials of DRDO and Defence Forces.
  
• Leadership Statements
  - Raksha Mantri Rajnath Singh congratulated DRDO, calling the achievement a major boost to national defence.
  - Secretary, Department of Defence R&D and Chairman DRDO Shri Rajesh Kumar Singh closely monitored the trials and applauded the combined efforts of DRDO and industry partners.
  

Strategic Significance

• Elite Status: India now joins a select group of nations with proven multi-layered BMD capability against ICBMs.
  
• Naval Power Projection: NASM-MR strengthens India’s maritime deterrence, complementing existing missile systems.
  
• Indigenisation: Developed with indigenous seekers, avionics, propulsion, and guidance technologies.
  

Technical Insights

• Ballistic Missile Defence (BMD)
  - Designed to intercept threats at multiple layers (exo-atmospheric and endo-atmospheric).
  - Uses advanced radar, electro-optical tracking, and guidance systems.
  - Capable of neutralising missiles across ranges, including long-range and intercontinental threats.
  
• NASM-MR
  - Builds on earlier NASM-SR developments.
  - Equipped with solid propulsion booster, advanced seeker, fibre-optic gyroscope-based navigation, and jet-vane control.
  - Developed by Research Centre Imarat (Hyderabad) in collaboration with other DRDO labs and Indian industries.
  

Implications for India’s Defence

• Enhanced Deterrence: Strengthens India’s defensive shield against hostile missile attacks.
  
• Maritime Security: Expands naval strike options, crucial for safeguarding sea lanes and deterring adversaries.
  
• Industry Collaboration: Demonstrates synergy between DRDO labs and Indian industry/start-ups.

India’s UAV‑Launched Missile V3 Clears Dual‑Mode Trials, Boosting Global Air Power

India’s Defence Research and Development Organisation (DRDO) has successfully completed final trials of the UAV‑Launched Precision Guided Missile‑V3 (ULPGM‑V3) at its Kurnool test range, marking a strategic milestone in indigenous defence capability under the Aatmanirbhar Bharat initiative.

DRDO has partnered with two production agencies - Bharat Dynamics Limited, Hyderabad and Adani Defence Systems & Technologies Limited, Hyderabad - for the development and production of the missiles. The system has been integrated on UAVs developed by Newspace Research and Technologies, Bengaluru for current trials.

The ULPGM missile has been developed by Research Centre Imarat, Hyderabad as the nodal lab along with other DRDO laboratories namely Defence Research & Development Laboratory (DRDL) Hyderabad, Terminal Ballistics Research Laboratory (TBRL), Chandigarh and High Energy Materials Research Laboratory (HEMRL), Pune.

Key Highlights of ULPGM‑V3 Trials

Development trials of Unmanned Aerial Vehicle Launched Precision Guided Missile-V3 in Air-to-Ground & Air-to-Air modes was successfully completed at DRDO test range near Kurnool, Andhra Pradesh. pic.twitter.com/Hl3AuJhsMP

— DRDO (@DRDO_India) May 19, 2026

• Dual‑mode capability: Effective in air‑to‑ground (anti‑tank) and air‑to‑air (drones, helicopters, airborne targets).
• Advanced Ground Control System: Integrated GCS automates readiness and launch operations.
• Indigenous development: Designed by Research Centre Imarat (RCI), Hyderabad with support from DRDL, TBRL, and HEMRL.
• Industrial collaboration: Partners include Bharat Dynamics Limited (BDL), Adani Defence Systems, and UAV integration by NewSpace Research & Technologies.
• Supply chain maturity: Trials confirmed readiness for serial mass production with MSME participation.
• Leadership recognition: Defence Minister Rajnath Singh and DRDO Chairman Samir V. Kamat hailed the achievement as a “strategic milestone.”

Technical Features

• High‑definition dual‑channel seeker: Enables day‑night precision targeting.
• Two‑way data link: Allows post‑launch target updates.
• Modular warheads: Anti‑armour, Penetration‑cum‑blast, Pre‑fragmentation.

Strategic Significance

• Force multiplier: UAV‑based PGMs reduce pilot risk and extend operational reach.
• Regional defence hub: Aligns with Andhra Pradesh’s aerospace and missile integration initiatives.
• Aatmanirbhar Bharat: Reinforces India’s push for self‑reliance in defence technologies.

Comparison Table: ULPGM‑V3 Capabilities

Feature	Details
Strike Modes	Air‑to‑Ground (anti‑tank), Air‑to‑Air (drones, helicopters, airborne targets)
Seeker System	Dual‑channel, day‑night capable
Warhead Options	Anti‑armour, Penetration‑cum‑blast, Pre‑fragmentation
Control System	Integrated GCS with automated launch readiness
Production Partners	Bharat Dynamics Ltd, Adani Defence
UAV Integration	NewSpace Research & Technologies
Supply Chain	Indigenous, MSME participation, ready for mass production

The missile has been produced entirely through the Indian defence ecosystem involving a large number of MSMEs and other industries. The trials confirmed fully mature domestic supply chain, equipped for immediate serial mass production.

Defence Minister, Shri Rajnath Singh  has complimented DRDO, PSUs, Defence cum Production Partners and industry for the successful development trials of ULPGM-V3 in Air-to-Ground mode for anti-tank role and Air-to-Air modes for Drone, Helicopter and other airborne targets. He termed it a strategic milestone achieved towards Aatmanirbharta in Defence.

India’s Hypersonic Leap: DRDL Runs 1,200‑Second Scramjet Test, Paving Way for Cruise Missiles

DRDO’s Defence Research & Development Laboratory (DRDL) has achieved a major breakthrough in India’s Hypersonic Cruise Missile programme with the successful long-duration test of an Actively Cooled Full Scale Scramjet Combustor at Hyderabad on May 09, 2026.

The indigenous scramjet engine clocked over 1,200 seconds of run-time, validating advanced supersonic air-breathing propulsion technologies. Raksha Mantri Shri Rajnath Singh termed the achievement a strong foundation for India’s hypersonic missile capability.

Key Highlights

• Duration: Over 1,200 seconds (20 minutes) continuous run, one of the longest sustained scramjet combustor tests globally.
• Facility: Conducted at the SCPT Facility, Hyderabad, validating both combustor design and test infrastructure.
• Technology:
  • Supersonic air‑breathing scramjet engine.
  • Indigenously developed liquid hydrocarbon endothermic fuel.
  • High‑temperature thermal barrier coatings.
  • Advanced manufacturing processes for extreme thermal load management.
• Previous Milestone: Builds on the 700‑second test in January 2026, showing rapid progression.

The 1,200‑second scramjet combustor test is remarkable because it demonstrates sustained hypersonic propulsion stability at a scale few nations have achieved. Scramjets operate under extreme conditions—airflow at several times the speed of sound, temperatures exceeding 2,000°C, and immense structural stress. Most global tests last only seconds or a few minutes before overheating or material failure.

India’s test ran for a full 20 minutes, proving that its actively cooled combustor design can handle prolonged thermal loads. This was achieved using indigenously developed endothermic hydrocarbon fuel, which absorbs heat while circulating through the combustor walls, alongside advanced coatings and manufacturing techniques.

The milestone is not just about duration—it validates India’s ability to build reliable hypersonic cruise missile engines. With this, India moves from short‑term experimental runs to deployable propulsion systems, placing it in the same league as countries like the U.S., Russia, and China that are racing to operationalize hypersonic weapons.

In essence, the 1,200‑second test is special because it transforms India’s hypersonic programme from proof‑of‑concept to credible capability, laying the foundation for long‑range, high‑speed missiles that are extremely difficult to intercept.

Strategic Significance

• Hypersonic Capability: Scramjet propulsion enables cruise missiles to sustain speeds above Mach 5 (6,100 km/h), making them harder to intercept.
• Active Cooling Breakthrough: Fuel circulation through combustor walls prevents structural failure under extreme heat, a critical barrier in hypersonic flight.
• Global Context: Russia’s Zircon and China’s hypersonic systems are already demonstrated; the U.S. continues multiple programmes. India’s achievement places it among select nations advancing operational hypersonic propulsion.

Official Statements

• Raksha Mantri Rajnath Singh: Called the test a “solid foundation for the nation’s Hypersonic Cruise Missile Development Program.”
• Dr. Samir V. Kamat (Chairman, DRDO): Congratulated DRDL, industry partners, and academia for the milestone.

Timeline of India’s Hypersonic Progress

Year	Milestone	Duration/Outcome
2016	ISRO twin scramjet test	Initial demonstration
2019	DRDO HSTDV attempt	Unsuccessful flight
2020	HSTDV flight test	Sustained Mach 6 for ~20s
Jan 2025	Subscale combustor run	120s
Apr 2025	Subscale test	1,000+ seconds
Jan 2026	Full‑scale combustor test	700s
May 2026	Full‑scale combustor test	1,200s (20 minutes)

This 1,200‑second scramjet combustor test is a historic leap for India’s hypersonic missile programme, validating indigenous propulsion technology and positioning India at the forefront of next‑generation aerospace warfare.

India Joins Elite League With Successful Solid Fuel Ducted Ramjet (SFDR) Missile Test

India’s Defence Research and Development Organisation (DRDO) has successfully demonstrated its indigenous Solid Fuel Ducted Ramjet (SFDR) technology on February 3, 2026, at the Integrated Test Range in Chandipur, Odisha—placing India among a select group of nations (including the US, Russia, and China) with this advanced missile propulsion capability.

Key Highlights of the Demonstration

Solid Fuel Ducted Ramjet (SFDR) technology was successfully flight tested from the Integrated Test Range (ITR), Chandipur off the coast of Odisha today. SFDR is very crucial for development of long range Air to Air Missiles pic.twitter.com/66ZwE0micY

— DRDO (@DRDO_India) February 3, 2026

• Date & Location: February 3, 2026, at Integrated Test Range (ITR), Chandipur, Odisha.
• Subsystems Tested: Nozzle-less Booster, Solid Fuel Ducted Ramjet Motor, Fuel Flow Controller.
• Performance: All subsystems functioned as expected, with flight data confirming successful propulsion and control.
• Strategic Significance: Enables development of long-range air-to-air missiles with superior speed and range.

What is SFDR Technology?

• Type: Advanced air-breathing propulsion system.
• How it Works: A solid fuel gas generator produces fuel-rich gases, which mix with incoming air and burn in a ramjet combustor.
• Advantages: Higher speeds, longer ranges, efficient propulsion for air-to-air and surface-to-air missiles.

Comparison: Conventional Rocket vs. SFDR

Feature	Conventional Rocket Motor	Solid Fuel Ducted Ramjet (SFDR)
Propulsion Source	Self-contained oxidizer + fuel	Uses atmospheric oxygen + solid fuel gases
Speed	Supersonic	Supersonic to hypersonic
Range	Limited	Extended, long-range capability
Efficiency	Lower (due to oxidizer weight)	Higher (air-breathing reduces weight)
Applications	Short/medium-range missiles	Long-range air-to-air & surface-to-air missiles

Strategic Importance for India

• India joins the US, Russia, and China in possessing ramjet-powered missile technology.
• Enhances India’s ability to develop next-generation long-range air-to-air missiles.
• Potential adaptation for surface-to-air missile systems, strengthening India’s layered air defence.

Pralay Missile: India’s New Battlefield Power Play

India’s Pralay missile is a cutting‑edge, short‑range ballistic weapon system that signals a major leap in the country’s conventional strike capabilities. Recently tested successfully off the Odisha coast, it is poised to become a cornerstone of India’s modern battlefield deterrence.

The Rise of Pralay: India’s Tactical Game-Changer

Developed by the Defence Research and Development Organisation (DRDO), Pralay is a surface‑to‑surface missile with a range of 150–500 kilometers. It carries a payload of 500–1,000 kilograms, making it versatile enough to deliver high‑explosive warheads against fortified enemy positions, airfields, or logistics hubs. Unlike India’s strategic missiles designed for nuclear deterrence, Pralay is intended for conventional precision strikes, filling a critical gap in India’s arsenal.

The missile is equipped with a state‑of‑the‑art navigation and guidance system, ensuring high accuracy even in complex battlefield environments. Its ability to perform salvo launches—firing multiple missiles in quick succession from the same launcher—was recently demonstrated in Odisha, proving its readiness for real combat scenarios. Defence Minister Rajnath Singh hailed the tests as a milestone in India’s march toward self‑reliance in advanced missile technology.

Why Pralay Matters

Pralay is often compared to Russia’s Iskander and China’s DF‑12, both tactical ballistic missiles designed for battlefield dominance. Analysts note that Pralay’s speed and precision make it a formidable counter to regional threats, especially in scenarios where India needs to neutralize enemy air defenses or strike high‑value targets quickly.

Its induction will give the Indian Army and Air Force a credible conventional deterrent, reducing reliance on nuclear options and strengthening India’s posture in limited conflicts. The missile’s ability to penetrate advanced air defense systems through rapid salvo firing adds another layer of strategic advantage.

Technical Highlights

• Range: 150–500 km
• Payload: 500–1,000 kg
• Guidance: Advanced navigation system for high precision
• Launch Capability: Salvo firing from mobile launchers
• Role: Conventional tactical strikes, complementing India’s strategic missile forces

Strategic Significance

The successful tests in late 2025 mark Pralay’s transition from development to user evaluation trials, paving the way for induction into India’s armed forces. Its indigenous design underscores India’s growing self‑reliance in defense technology, aligning with the government’s Atmanirbhar Bharat vision.

By fielding Pralay, India strengthens its ability to conduct quick, decisive conventional strikes, a capability that is crucial in modern warfare where speed and precision often determine outcomes. It also sends a clear signal to adversaries that India is prepared to defend its interests with advanced, homegrown technology.

In essence, Pralay is more than just a missile—it is a symbol of India’s evolving defense doctrine, blending indigenous innovation with strategic foresight. Its induction will not only enhance battlefield capabilities but also reinforce India’s position as a rising power in advanced missile technology.

India Tests Missile at 8x Speed of Sound

India has successfully tested a new hypersonic missile, the ET-LDHCM, which can fly at Mach 8 (eight times the speed of sound) and strike targets up to 1,500 km away.

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Key Details About the Missile

• Name: Extended Trajectory Long Duration Hypersonic Cruise Missile (ET-LDHCM).
• Speed: Mach 8 (approx. 9,800 km/h).
• Range: 1,500 km, far surpassing the BrahMos missile’s range of ~450 km.
• Developer: Defence Research and Development Organisation (DRDO).
• Project: Developed under Project Vishnu, India’s advanced missile modernization program.
• Purpose: Designed to enhance India’s long-range strike capability and strengthen deterrence posture.

ET-LDHCM

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Strategic Context

• The test comes amid rising global tensions, including conflicts in the Middle East and worsening India–Pakistan relations.
• India is accelerating defense modernization, upgrading systems like BrahMos, Agni-5, and Akash alongside this hypersonic program.
• Hypersonic weapons are considered game-changers because they combine extreme speed with maneuverability, making them difficult to intercept with current missile defense systems.

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Risks & Challenges

• Global Arms Race: Hypersonic weapons are being pursued by major powers (US, Russia, China). India’s entry adds to the competitive landscape.
• Regional Security: Pakistan and China may respond with accelerated missile programs, potentially heightening instability in South Asia.
• Technical Hurdles: Sustaining Mach 8 flight requires advanced propulsion and thermal shielding. Reliability and precision will be critical before deployment.
• Diplomatic Fallout: Such tests can trigger international scrutiny, especially from arms control advocates concerned about destabilizing technologies.

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Why This Matters

• Military Edge: Extends India’s strike reach deep into adversary territory, strengthening deterrence.
• Technological Leap: Positions India among the few nations with hypersonic missile capability.
• Geopolitical Signal: Demonstrates India’s intent to be a leading defense innovator amid shifting alliances (e.g., Turkey–Pakistan ties).

India’s ET-LDHCM test is not just a technological milestone—it’s a strategic message to both regional rivals and global powers that India is rapidly modernizing its defense arsenal.

DRDO Successfully Tests Indigenous Integrated Air Defence Weapon System (IADWS)

In a landmark achievement for India’s defense modernization, the Defence Research and Development Organisation (DRDO) today successfully conducted the maiden flight-tests of the all-indigenous Integrated Air Defence Weapon System (IADWS) off the coast of Odisha. The multi-layered system, designed to neutralize a spectrum of aerial threats, marks a significant leap in India’s self-reliant defense capabilities.

What Is IADWS?

The Integrated Air Defence Weapon System is a tiered, modular air defense architecture that combines:

• QRSAM (Quick Reaction Surface-to-Air Missiles) for medium-range threats
• VSHORADS (Very Short Range Air Defence System) for close-range engagements
• Directed Energy Weapons (DEW) using high-power lasers to disable drones and low-altitude targets

All components are seamlessly coordinated through a Centralised Command and Control Centre, developed by DRDO’s Defence Research & Development Laboratory (DRDL), enabling real-time threat assessment and response.

Maiden flight Tests of Integrated Air Defence Weapon System (IADWS) was successfully conducted on 23 Aug 2025 at around 1230 Hrs off the coast of Odisha.

IADWS is a multi-layered air defence system comprising of all indigenous Quick Reaction Surface to Air Missile (QRSAM),… pic.twitter.com/Jp3v1vEtJp

— DRDO (@DRDO_India) August 24, 2025

Inside the Test: Precision Across Layers

Conducted at 12:30 PM IST at the Integrated Test Range, Chandipur, the test involved three aerial targets:

• Two high-speed fixed-wing UAVs
• One multi-copter drone

Each target was intercepted by a different tier of the IADWS:

• QRSAM neutralized medium-range UAVs with precision-guided missiles
• VSHORADS engaged short-range threats using shoulder-fired systems
• DEW successfully disabled the drone using laser energy

Strategic Implications

Defence Minister Rajnath Singh lauded the achievement, stating:
“The successful demonstration of IADWS reflects India’s growing prowess in multi-layered air defence and indigenous innovation. It strengthens our ability to protect critical infrastructure and national assets against evolving aerial threats.”
This test places India in elite company alongside nations like:

Country	System Name	Capabilities
🇺🇸 USA	Patriot, THAAD	Long-range, ballistic missile defense
🇷🇺 Russia	S-400	Multi-target, long-range interception
🇮🇱 Israel	Iron Dome	Short-range rocket and drone defense
🇮🇳 India	IADWS	Integrated kinetic + laser-based defense

What’s Next?

With successful validation of its layered architecture, IADWS is expected to undergo further trials before deployment across strategic zones, including border regions and critical urban infrastructure. Its modular design allows for rapid deployment and scalability, making it a cornerstone of India’s future air defense grid.

India’s Pralay Missile Passes Back-to-Back Trials, Showcases Indigenous Precision Strike Power

DRDO has conducted two consecutive successful flight-tests of Pralay missile from Dr APJ Abdul Kalam island off the coast of Odisha. The flight-tests were carried out as a part of User Evaluation Trials to validate the maximum and minimum range capability of the missile system.

Pralay is an indigenously-developed solid propellant quasi-ballistic missile employing state-of-the-art guidance and navigation to ensure high precision. It is capable of carrying multiple types of warheads against various targets.

Test Overview

• Dates: July 28 & 29, 2025
• Location: Dr APJ Abdul Kalam Island, off the coast of Odisha
• Purpose: User Evaluation Trials to validate maximum and minimum range capabilities
• Outcome: Both missiles hit their targets with pinpoint accuracy, meeting all test objectives

Missile Specifications

Feature	Details
Type	Quasi-ballistic, surface-to-surface missile
Propulsion	Two-stage solid propellant rocket motor
Range	150–500 km
Speed	Mach 1 to Mach 1.6
Warhead Capacity	350–700 kg, multiple conventional types
Guidance System	Inertial navigation with real-time trajectory correction
Launch Platform	Mobile 8x8 BEML Tatra Transporter Erector Launcher
Maneuverability	Mid-course adjustments to evade interception

Test Highlights

• Trajectory: Quasi-ballistic, low-altitude flight path to evade radar detection
• Tracking: Verified using sensors from Integrated Test Range (ITR), including ship-based instruments
• Participants: Senior DRDO scientists, Indian Army & Air Force reps, and industry partners

Strategic Significance

• Battlefield Utility: Designed for tactical strikes on enemy logistics hubs, airbases, and command centers
• Rapid Deployment: Mobile launch capability ensures quick response in high-stakes scenarios
• Self-Reliance: Fully indigenously developed by DRDO and partners like Bharat Dynamics & BEL

Official Statements

• Defence Minister Rajnath Singh: Praised the trials as a “technological boost” to India’s Armed Forces
• DRDO Chairman Dr Samir V Kamat: Called it a milestone that paves the way for induction into active service

DRDO Successfully Tests SAAW, Enhancing India’s Precision Strike Capability

In a major boost to India’s defense technology, the Defence Research and Development Organisation (DRDO) has successfully tested the Smart Anti-Airfield Weapon (SAAW)—a precision-guided glide bomb designed to neutralize enemy airbases without crossing the border.

What is SAAW?

SAAW is a 125-kg class smart bomb capable of striking targets like runways, bunkers, radar stations, and fuel depots from over 100 kilometers away. Unlike traditional bombs or missiles, it doesn’t require the launching aircraft to enter enemy airspace—making it a game-changer in stand-off warfare.

Key Features:

• Stand-off Precision: SAAW can be launched from a safe distance, keeping pilots and aircraft out of any harm.
• Pinpoint Accuracy: With guidance from GPS, India's own NavIC satellite system, and onboard seekers, the weapon can strike within 3–7 meters of its intended target.
• Cost Efficiency: Unlike powered missiles, SAAW glides to its target, making it a relatively low-cost yet highly effective option.
• Platform Versatility: It’s compatible with a wide range of Indian Air Force aircraft including the Su-30 MKI, Mirage 2000, Tejas, and potentially upcoming unmanned platforms like HAL’s CATS Warrior.

Strategic Implications

SAAW enhances India’s capability to disable enemy airbases quickly and precisely—without direct confrontation. This not only strengthens defensive posture but allows for measured, non-escalatory responses in high-stakes situations.

Defense analysts view SAAW as a critical addition to India’s evolving smart weapons ecosystem, reflecting DRDO’s growing focus on indigenous innovation and strategic autonomy.

As global conflict theaters increasingly value precision and discretion over brute force, India's SAAW may very well mark a turning point in how modern air power is projected—quiet, calculated, and devastatingly effective from afar.