India Successfully Tests RudraM-II Air-To-Surface Missile With Pinpoint Precision

India has successfully tested the RudraM-II air-to-surface missile from an airborne platform, achieving pinpoint accuracy and validating all mission objectives.

This indigenous weapon, capable of speeds up to Mach 5.5 and ranges of around 300 km, marks a major leap in India’s precision-strike capability and strengthens its self-reliance in advanced defence technologies.

The Defence Research and Development Organisation (DRDO) and the Indian Air Force (IAF) conducted the flight-tests of the RudraM-II missile on 2 June 2026. Released under extreme operational conditions, the missile followed its planned trajectory and struck its predefined target with remarkable precision.

Flight data captured by range instruments deployed at the Integrated Test Range (ITR), Chandipur, confirmed that all objectives were met, validating the missile’s critical subsystems and overall performance.

The RudraM-II has been indigenously developed by the Hyderabad-based Research Centre Imarat (RCI), which served as the nodal DRDO laboratory for the program. Other DRDO institutions such as the Defence Research and Development Laboratory (DRDL), High Energy Materials Research Laboratory (HEMRL), Armament Research & Development Establishment (ARDE), and ITR contributed significantly to the project.

The missile program also benefited from the involvement of Development-cum-Production Partners (DcPPs) and agencies including Hindustan Aeronautics Limited (HAL), the Regional Centre for Military Airworthiness (RCMA), the Missile System Quality Assurance Agency, and several industry partners, reflecting a broad collaborative effort across India’s defence ecosystem.

The RudraM-II is designed to be launched from fighter aircraft such as the Sukhoi Su-30MKI, operating at altitudes between 3 km and 15 km. It is capable of achieving speeds up to Mach 5.5, engaging targets at ranges of approximately 300 km, and carrying a 200-kg warhead.

These capabilities make it a formidable precision-strike weapon, able to neutralise high-value targets deep inside adversary territory with minimal collateral damage. Its performance under extreme release conditions demonstrates the robustness of its design and the maturity of India’s indigenous missile technology.

Raksha Mantri Rajnath Singh congratulated DRDO, the IAF, defence public sector undertakings, industry partners, and all stakeholders involved in the program.

He emphasised that the successful trials highlight the growing maturity of India’s indigenous defence technologies and will contribute significantly to the country’s Atmanirbharta drive in advanced weapon systems.

The Secretary of the Department of Defence R&D and Chairman of DRDO, Dr Samir V. Kamat, also commended the teams for their achievement, noting that the RudraM-II represents a critical step forward in India’s strategic strike capabilities.

The successful demonstration of RudraM-II adds to India’s expanding portfolio of advanced indigenous weapons, complementing other recent developments such as hypersonic glide vehicles, scramjet engines, and MIRV-equipped ballistic missiles.

Together, these advancements are reshaping India’s defence posture, ensuring credible deterrence and enhancing its ability to respond to evolving security challenges in the region.

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India May Revive Javelin Missile Procurement After Sixteen-Year Delay

United States Defence Secretary Pete Hegseth’s announcement at the Shangri-La Dialogue on 30 May 2026 effectively revived India’s long-stalled program to acquire the American FGM-148 Javelin anti-tank guided missile, a procurement saga that has remained unresolved for over sixteen years.

The move signals a decisive shift in India’s anti-armour capability and underscores the deepening of Indo-US defence cooperation.

India’s interest in the Javelin system dates back to 2010, when New Delhi first explored the possibility of acquiring the missile. The Javelin, jointly developed by Raytheon and Lockheed Martin, is a third-generation, man-portable fire-and-forget weapon renowned for its effectiveness against modern main battle tanks.

However, the initial negotiations faltered due to disagreements over technology transfer and the conditions of joint production. India subsequently turned to Israel’s Spike ATGM in 2014, signing a major deal, but this too was later cancelled as the government shifted focus towards indigenous development.

In the intervening years, India’s Defence Research and Development Organisation (DRDO) pursued the Man-Portable Anti-Tank Guided Missile (MP-ATGM) program. While progress was made, the indigenous system struggled to meet the Army’s stringent requirements for portability and operational flexibility.

This left a critical gap in India’s infantry modernisation plans, particularly in mountainous and urban theatres where man-portable, shoot-and-scoot weapons are indispensable.

The Javelin’s international reputation grew significantly during recent conflicts, most notably in Ukraine, where it proved highly effective against Russian armour. Its combat performance reignited Indian interest, and by late 2025, New Delhi had already moved to acquire a limited emergency batch of 12 launchers and 104 missiles.

This urgent procurement was intended to plug immediate operational gaps while broader negotiations continued. The emergency buy was paired with a formal request to Washington for co-production rights, reflecting India’s twin priorities of rapid capability infusion and long-term indigenisation.

Hegseth’s statement in Singapore now places the Javelin firmly back on India’s procurement track. His remarks confirm that the United States is prepared to support India’s acquisition and potentially co-production of the missile, aligning with Washington’s broader Indo-Pacific strategy.

For India, the revival of this program represents not only a tactical enhancement but also a strategic milestone in bilateral defence ties. The Javelin’s advanced imaging-infrared seeker, selectable top-attack and direct-attack modes, and tandem HEAT warhead capable of defeating explosive reactive armour make it a formidable addition to India’s arsenal.

Operationally, the Javelin offers Indian infantry units a survivable, mobile, and highly lethal anti-armour solution. Its fire-and-forget capability allows soldiers to engage targets and immediately redeploy, a critical advantage in contested environments.

The system’s proven effectiveness against heavily armoured vehicles ensures that India can counter evolving threats along its borders, particularly in high-altitude regions where conventional armour is difficult to manoeuvre but still poses a threat.

The revival of the Javelin program also reflects India’s broader defence modernisation trajectory post-Operation Sindoor in 2025, which exposed gaps in preparedness and accelerated acquisitions.

Alongside indigenous efforts, India is increasingly willing to integrate high-end foreign systems where necessary, while simultaneously negotiating co-production and technology transfer to strengthen its domestic defence industry.

In strategic terms, the Javelin acquisition underscores India’s intent to balance immediate operational needs with long-term self-reliance. It also highlights the growing convergence between New Delhi and Washington in defence cooperation, with the United States viewing India as a central partner in its Indo-Pacific security architecture.

For India, the Javelin is not merely a weapon system but a symbol of its evolving defence posture and its determination to field cutting-edge capabilities against future threats.

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India’s Rafale Deal Boosts Air-Power But Cannot Alone Solve Fighter Shortage

India has formally moved closer to finalising its largest-ever fighter aircraft acquisition, with the Ministry of Defence issuing a Letter of Request to France for 114 Rafale fighters, reported Times of India.

The deal, valued at approximately ₹3.25 lakh crore, will be structured as a government-to-government agreement between New Delhi and Paris. Based on the precedent of the earlier contract for 36 Rafales, the Indian Air Force is unlikely to receive its first aircraft for at least four years after the signing.

Dassault Aviation’s order book has grown substantially in recent years, with over 150 aircraft already committed to other customers, which could further delay deliveries.

Reports suggest the contract may be signed early next year, with 18 aircraft to be delivered directly from France in fly-away condition and the remaining 96 to be manufactured in India. The first of the fly-away aircraft is not expected to arrive before 2032.

This development comes against the backdrop of the IAF’s squadron strength falling to a historic low of 29, well below the authorised 42.5 squadrons. Even with six squadrons of Rafales added, the total would rise only to 35.

Compounding the challenge, the IAF plans to retire its Jaguar squadrons around 2030, while the MiG-29 and Mirage-2000 fleets are expected to be phased out by the mid-2030s. Together, these retirements could reduce the force by 12 squadrons, worsening the numerical shortfall.

Hindustan Aeronautics Limited has yet to deliver any of the contracted TEJAS MK-1A fighters, with delays attributed to integration issues and engine supply bottlenecks. The TEJAS MK-2 program, originally slated for a first flight in 2025, has also been delayed, with the aircraft yet to be rolled out.

The Rafale is a potent 4.5-generation multi-role fighter, equipped with advanced avionics, electronic warfare systems, and precision strike capabilities.

Its RBE2 radar, based on Gallium Arsenide technology, provides strong performance, though rival platforms increasingly employ Gallium Nitride radars, which offer superior range and resilience. Thales, the radar’s manufacturer, is developing a GaN-based variant to keep pace with competitors.

Despite these strengths, Rafales alone cannot offset the IAF’s numerical deficit, particularly in a two-front war scenario. Pakistan has inducted upgraded J-10 and JF-17 fighters with AESA radars, while China deploys advanced J-16s and the fifth-generation J-20 stealth aircraft.

Reliance on a single imported platform also raises concerns about over dependence and escalating costs. The estimated ₹3.25 lakh crore expenditure underscores the financial burden of such acquisitions.

To achieve a balanced force, India must accelerate indigenous programs. The TEJAS MK-2 is critical to replacing retiring MiGs and Jaguars, while the Advanced Medium Combat Aircraft project will provide stealth capabilities to counter fifth-generation threats. Unmanned Combat Aerial Vehicles are also expected to play a role in future force structures.

In essence, the Rafale deal strengthens the IAF’s qualitative edge but cannot alone resolve its quantitative weakness.

India’s air-power strategy must blend imported quality with indigenous quantity, ensuring a diverse mix of platforms capable of handling simultaneous threats from Pakistan and China.

The Rafale acquisition should be viewed as one pillar of a broader force-building plan. Only by integrating Rafales with TEJAS MK-2, AMCA, and UCAVs can the IAF achieve a balanced, future-ready force structure.

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India And France Push Forward $40 Billion Rafale Deal With Local Production

India and France are rapidly advancing negotiations for the acquisition of 114 Dassault Rafale fighter jets, a deal worth nearly $40 billion.

The agreement is expected to feature extensive technology transfer, with up to 90 aircraft manufactured in India, reinforcing New Delhi’s “Make in India” defence production drive and ensuring greater autonomy in integrating indigenous weapons systems.

India has formally issued a Letter of Request to France, marking the next stage in one of its largest-ever defence acquisitions. French authorities are expected to respond within two to three months with details on pricing, production schedules, logistics support and industrial participation. Once the response is received, formal negotiations will begin, with both governments aiming to conclude the deal by late 2026 or early 2027.

The Indian Air Force currently operates only 29 fighter squadrons against a sanctioned strength of 42.5, following the retirement of ageing MiG-21 aircraft. The proposed Rafale acquisition is intended to bridge this gap, providing advanced multirole combat capabilities to counter threats on both western and northern fronts.

The Rafale, already in service with 36 aircraft deployed at Ambala and Hasimara, has proven to be one of the IAF’s most advanced platforms, making further induction faster and more efficient.

Nearly 90 of the 114 jets will be manufactured in India through a partnership between Dassault Aviation and an Indian firm, with estimates suggesting indigenous content of up to 50 per cent. This will be the first time Rafale aircraft are produced outside France, a milestone that will significantly boost India’s aerospace manufacturing ecosystem. TATA Advanced Systems is already producing fuselage sections in Hyderabad, and other hubs such as Nagpur are being considered for assembly lines.

India is also negotiating access to Interface Control Documents, technical blueprints that allow integration of indigenous weapons such as the Astra beyond-visual-range missile and the BrahMos-NG cruise missile.

While full access to source codes is unlikely, ICDs would provide India with operational sovereignty, enabling it to deploy homegrown systems without reliance on foreign certification. This demand reflects India’s insistence on greater technical autonomy in its defence acquisitions.

The deal is valued at approximately ₹3.25 lakh crore, making it one of the largest fighter jet procurements globally. Deliveries are expected to begin around 2030 if the contract is signed by the end of 2026.

France is likely to supply around 20 aircraft in fly-away condition, with the remainder built in India. The Defence Acquisition Council has already cleared the proposal, and final approval from the Cabinet Committee on Security will be required before signing.

Strategically, the Rafale expansion is critical as China continues to expand its fleet with stealth fighters such as the J‑20 and J‑35, while Pakistan is expected to induct the J‑35. India’s indigenous projects, including the TEJAS MK-1A, TEJAS MK-2 and the Advanced Medium Combat Aircraft, are progressing but will not mature before the mid-2030s. The Rafale deal is therefore seen as the fastest route to restoring parity in a potential two-front scenario.

Air Chief Marshal Amar Preet Singh’s ongoing visit to France and Prime Minister Narendra Modi’s upcoming participation in the G7 Summit hosted by President Emmanuel Macron underscore the high-level political commitment to the deal.

If successful, India will become the first country outside France to produce Rafale fighters domestically, strengthening bilateral defence ties and creating thousands of skilled jobs in India’s aerospace sector.

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Indian Air Force Explores Expendable Digital Jammers To Enhance Rafale Survivability

The Indian Air Force is examining ways to strengthen the survivability of its Dassault Rafale fleets by integrating self-contained, expendable Digital Radio Frequency Memory jammers such as Leonardo’s BriteCloud.

These advanced off-board decoys are designed to be launched from conventional dispensers, drawing radar-guided threats away from the aircraft and providing an additional layer of protection during combat operations.

Expendable Active Decoys, or EADs, function as miniature jammers once deployed. They are fired directly from standard onboard countermeasure dispensers, including 55 mm or 218-format units, requiring no structural modifications to the fighter aircraft.

Once airborne, the decoy uses its built-in receiver, power source, and DRFM to detect the radar emissions of an incoming missile. It then transmits a false, high-power signal that mimics the aircraft, effectively seducing the hostile radar or missile seeker into tracking the decoy instead of the jet.

This deception breaks the missile’s lock on the original target and creates a significant miss distance, thereby saving the aircraft.

The strategic significance of such systems for the Indian Air Force lies in their ability to complement the highly capable integrated SPECTRA Electronic Warfare System already onboard the Rafale. While SPECTRA provides robust onboard protection, the addition of attritable “smart” expendables introduces an off-board layer of defence.

Decoys like BriteCloud are particularly effective against “home-on-jam” missiles, which are designed to exploit traditional jamming techniques. By actively luring these threats away from the aircraft, the expendables reduce vulnerability during critical strike and penetration missions.

India’s Defence Research and Development Organisation is also pursuing indigenous solutions in this domain. The development of Photonics-based RF Memory technology represents a step towards evolving future smart jammer systems.

PRFM technology aims to provide enhanced signal fidelity and resilience, potentially offering a domestic alternative to imported expendable decoys. This aligns with India’s broader push for self-reliance in defence technology under the Atmanirbhar Bharat initiative.

Globally, expendable decoys have been gaining traction as cost-effective survivability enhancers. The Royal Air Force has already fielded BriteCloud on its Typhoon and Tornado fleets, with ongoing trials on F-35 aircraft.

The United States has similarly explored advanced expendable jamming solutions, recognising their utility in countering modern radar-guided threats. For India, adopting such systems would not only bolster the Rafale’s survivability but also ensure that its frontline fighters remain competitive against evolving missile technologies.

The integration of expendable active decoys represents a logical progression in the Indian Air Force’s electronic warfare strategy.

By combining the proven capabilities of SPECTRA with the disruptive potential of off-board jammers, the Rafale fleet could achieve a layered defence posture. This would significantly enhance mission success rates in contested environments, particularly against adversaries deploying advanced radar-guided missile systems.

The parallel pursuit of indigenous PRFM technology further underscores India’s determination to secure long-term autonomy in critical defence capabilities.

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Rolls-Royce Reboots Bid For India’s Fifth-Gen Fighter Engine

Rolls-Royce has formally proposed establishing a major aero gas turbine complex in India with full technology transfer, a move that could directly support the Advanced Medium Combat Aircraft (AMCA) program.

Alongside this, the company is exploring a civil aviation Maintenance, Repair and Overhaul (MRO) facility, investments that could bring billions of dollars and create over 10,000 jobs.

Rolls-Royce has pitched the creation of a significant aero gas turbine complex in India, backed by the UK government. The facility would initially focus on military aircraft engines, particularly those required for India’s ambitious AMCA fifth-generation fighter program

 The proposal includes complete transfer of technology, ensuring India’s sovereignty over intellectual property and strengthening its indigenous propulsion capabilities. According to the company, ground trials for the AMCA engine could begin by 2032, with the first flight targeted around 2034.

The complex is designed to evolve beyond military applications. Over time, it could expand to dual-use and civil aviation engines, thereby broadening India’s aerospace ecosystem. This aligns with India’s strategic push to reduce dependence on imported propulsion systems and establish itself as a global hub for advanced aerospace manufacturing.

In parallel, Rolls-Royce is exploring the establishment of a civil aviation MRO facility in India. At present, Indian commercial aircraft engines are serviced at overseas centres in Singapore and Hong Kong.

With Air India and IndiGo placing firm orders for more than 100 Airbus A350 aircraft powered exclusively by Rolls-Royce engines, the demand for local engine support services is expected to rise sharply. The company already has around 100 civil aviation engines operating in India across business jets and commercial aircraft, making a domestic MRO centre both timely and strategically important.

Beyond aerospace, Rolls-Royce is also evaluating opportunities in India’s civil nuclear energy sector. Following the enactment of the Shanti Act in 2025, which opened the nuclear sector to private participation, the company is considering the deployment of Small Modular Reactors (SMRs).

These reactors are seen as a promising low-carbon energy solution that could contribute significantly to India’s clean energy transition and long-term energy security.

Rolls-Royce already operates across multiple sectors in India, including civil and defence aerospace, power systems, naval and land defence. It has joint ventures with Hindustan Aeronautics Limited (HAL) and Force Motors, and has expanded its aerospace manufacturing capabilities through its Hosur facility in Tamil Nadu, which produces critical jet engine components for global programs.

The company has indicated that India is emerging as its next “home market” alongside the UK, US, and Germany, reflecting the scale of its ambitions in the country.

If these proposals materialise, Rolls-Royce expects to invest billions of dollars and create more than 10,000 jobs in India. The initiatives are expected to strengthen India’s position as a global hub for advanced manufacturing, aerospace engineering, and clean energy technologies, while directly supporting indigenous defence programs such as the AMCA.

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Balu Forge Secures Landmark Contract For Indigenous 152mm Artillery Shell Production

Balu Forge Industries has achieved a major strategic milestone by securing a forward integration contract in the high-precision, large-calibre ammunition manufacturing sector. This development marks a significant expansion of the company’s defence manufacturing portfolio and strengthens its role in India’s self-reliance mission under Aatmanirbhar Bharat.

The contract involves an initial order to supply 30,000 units of 152mm artillery shells to a leading domestic energetics company. This order represents a substantial entry into the heavy ammunition domain, with production scheduled to commence in June.

The scale of the agreement is expected to grow rapidly, with projections indicating that volumes could exceed 1,00,000 shells as additional ammunition variants are introduced into the pipeline. This expansion will not only meet domestic requirements but also position the company to serve broader markets in the future.

The manufacturing will take place at Balu Forge’s state-of-the-art greenfield campus in Belgaum, Karnataka. The facility is equipped with a fully automated robotics forging line that has been indigenously designed and built, underscoring India’s growing capability in advanced defence manufacturing.

The integration of robotics ensures precision, efficiency, and consistency in production, while also reducing reliance on imported technologies. This achievement highlights the company’s engineering expertise and its ability to deliver turnkey solutions in critical defence technologies.

The agreement carries significant market implications. By leveraging its existing global NATO certifications, Balu Forge is able to align domestic production with international standards, thereby enhancing India’s credibility in the global defence ecosystem.

This dual advantage of indigenous capability and international compliance strengthens the country’s ammunition manufacturing base and supports the armed forces with reliable supply chains. It also creates opportunities for future exports, reinforcing India’s ambition to become a global hub for defence manufacturing.

This contract reflects the company’s strategic vision of forward integration, moving from its established expertise in precision engineering and metallurgy into the demanding domain of large-calibre ammunition. It validates the company’s investments in advanced infrastructure and research, while also contributing to India’s broader defence modernisation goals.

The development is a clear signal of progress towards sovereign capabilities in ammunition production, industrial growth in defence engineering, and enhanced preparedness for future challenges.

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Naypyitaw Pledges: Myanmar Won’t Host Forces Threatening India

Prime Minister Narendra Modi and Myanmar President Min Aung Hlaing held extensive discussions in New Delhi on Monday, focusing on security cooperation, border management, regional stability and critical minerals.

The meeting was described as wide-ranging, covering all major aspects of the bilateral relationship, including trade, defence, economic cooperation and regional developments, according to Foreign Secretary Vikram Misri.

One of the most significant outcomes was Myanmar’s renewed assurance that its territory would not be used for activities detrimental to India’s security interests. This commitment comes against the backdrop of longstanding concerns in New Delhi about cross-border insurgency, with some Indian insurgent groups from the North-Eastern states operating from Myanmar’s border regions.

While the Myanmar Army has cooperated with India to tackle these groups, it does not exercise full control over all border areas, making continued collaboration essential.

The leaders also agreed to remain in close contact on the issue of critical minerals and rare earths. India has expressed keen interest in harnessing rare earths from Myanmar, particularly given China’s extensive exploitation of these resources for manufacturing permanent magnets used in electric vehicles. This area of cooperation is expected to gain strategic importance in the coming years.

Connectivity initiatives were another major focus of the talks. Both sides emphasised the need to accelerate work on the Kaladan Multi-Modal Transit Transport Project, a strategically important scheme that will strengthen trade links and improve connectivity between India’s Northeast and Southeast Asia. Completion of this project is seen as vital for India’s Act East policy and regional integration.

Prime Minister Modi reiterated India’s support for Myanmar’s sovereignty and territorial integrity, while both countries underlined the importance of maintaining close cooperation on regional issues. President Hlaing’s choice of India for his first overseas visit since his election in April was viewed as a significant gesture, highlighting the importance of bilateral ties.

The leaders also discussed the growing threat posed by cyber scam networks operating along Myanmar’s border regions. India stressed that the issue is not merely bilateral but requires broader regional cooperation.

Misri revealed that India and Myanmar have already worked together to repatriate over 2,400 Indian citizens trapped in cyber scam compounds in Myanmar over the past 18 months. Efforts are ongoing to secure the return of around 150 more individuals. He noted that many of these victims were trafficked through third countries, underscoring the need for enhanced regional collaboration.

In addition to political and security discussions, President Hlaing attended the India-Myanmar Business Conclave in New Delhi, jointly organised by the Union of Myanmar Federation of Chambers of Commerce and Industry, the Confederation of Indian Industry and the Federation of Indian Chambers of Commerce and Industry.

The conclave provided a platform for both sides to exchange views on trade and commerce. Current bilateral trade stands at over $600 million in Indian exports and more than $1.5 billion in Myanmar’s exports.

The Myanmar President also visited the NTPC Energy Technology Centre on Sunday, reflecting the growing emphasis on energy cooperation. He is scheduled to travel to Mumbai on Tuesday to visit the Jawaharlal Nehru Port and Chhatrapati Shivaji Maharaj International Airport, further underlining the economic dimension of his visit.

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Kaal Bhairava: India’s AI-Powered Long-Endurance Combat Drone

Kaal Bhairava, developed by Bangalore-based Flying Wedge Defence & Aerospace, is India’s first indigenous AI-powered Medium Altitude Long Endurance (MALE) combat drone, capable of flying nearly 3,000 km and staying airborne for over 30 hours.

It represents a major leap in India’s push for autonomous aerial warfare, combining endurance, precision strike capability, and AI-driven decision-making with global export ambitions.

The Kaal Bhairava project was unveiled in August 2025 as part of the Atmanirbhar Bharat initiative, marking India’s entry into the elite club of nations capable of producing advanced MALE combat drones.

Named after the Hindu deity associated with time, the drone reflects both cultural symbolism and technological ambition. Its design features a twin-boom configuration with a wingspan of 6.5 metres, supporting a payload of 91 kg that includes electro-optical/infrared sensors, laser-guided rockets, and missiles.

The drone’s endurance is particularly noteworthy. It can remain airborne for up to 30 hours during ISR missions and about 11 hours during strike missions, with a maximum operational range of 3,000 km via SATCOM and 150 km under line-of-sight control.

Operating at altitudes of up to 20,000 feet, it cruises between 151–187 km/h and can reach a maximum speed of 288 km/h. Its short take-off and landing capability makes it adaptable to varied battlefield conditions.

AI integration is at the heart of Kaal Bhairava. The platform employs adaptive flight pathing, enabling autonomous navigation through contested or GPS-denied environments. Its adaptive targeting system processes real-time sensor data to identify, track, and prioritise targets with minimal human intervention.

The AI also supports live combat decision-making, allowing the drone to assess threats, select engagement strategies, and coordinate with other unmanned systems. Importantly, it is designed for swarm warfare, enabling multiple drones to operate in synchronised attacks to overwhelm enemy defences.

Strategically, the drone addresses India’s long-standing dependence on foreign UAVs such as the U.S. Predator and Israeli Searcher models. These imports often carried vulnerabilities like kill-switch mechanisms and data routed through external servers, raising concerns about operational sovereignty. By contrast, Kaal Bhairava ensures fully indigenised operations with strategic autonomy, safeguarding sensitive defence data and reducing foreign dependency.

The project has already attracted international interest. Flying Wedge Defence secured a $25 million export order from a South Asian nation, part of a $30 million strategic deal, underscoring global confidence in India’s emerging aerospace capabilities.

More recently, the company partnered with Portugal-based SKETCHPIXEL to integrate simulation technologies, encrypted communications, and battlefield interoperability. This collaboration potentially opens pathways into NATO-linked defence ecosystems, signalling India’s ambition to become a global defence exporter.

Beyond its technical prowess, Kaal Bhairava embodies India’s broader transformation in defence manufacturing. It highlights the shift from being one of the world’s largest arms importers to becoming a developer of globally deployable autonomous combat systems.

At the same time, its emergence intensifies debates around autonomous warfare ethics, human oversight in lethal decision-making, and the future role of AI in combat.

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Inverse Mirror Plasma Experimental Device Advances Fundamental Plasma Research In India

The Inverse Mirror Plasma Experimental Device (IMPED) at the Institute for Plasma Research in Gujarat is a specialised linear magnetised plasma facility designed to study fundamental plasma phenomena such as plasma waves, turbulence, wave breaking, and particle acceleration.

It is not a fusion reactor but a laboratory tool that provides insights crucial for advancing future fusion systems like tokamaks and magnetic mirror devices.

IMPED was conceived to enable controlled experimental investigations of plasma oscillations and their nonlinear behaviours. In a quasi-neutral plasma, electrons undergo collective oscillations when perturbed, propagating due to finite temperature effects.

However, inhomogeneities in plasma density can cause phase mixing, leading to loss of coherence among oscillators. At sufficiently high amplitudes, these oscillations can break, a process with direct applications in plasma heating and particle acceleration. IMPED provides a platform to study these processes in detail.

A key feature of IMPED is its multifilamentary plasma source arranged in cusp geometry, which ensures uniform plasma generation. The transition magnetic field region between the source chamber and the main chamber is flexible, allowing researchers to tailor plasma conditions for specific experiments. Probe measurements confirm axial and radial uniformity, creating an ideal environment for launching waves and studying their interactions with plasma particles.

The scientific significance of IMPED lies in its ability to explore fundamental processes such as Landau damping, resonant wave–particle interactions, and nonlinear wave behaviour. These phenomena underpin the physics of plasma heating and acceleration, which are essential for the development of efficient fusion reactors. By providing a controlled environment to study these effects, IMPED contributes to the refinement of theoretical models and the design of advanced plasma confinement systems.

IMPED also serves as a bridge between basic plasma physics and applied fusion research. While it does not attempt to produce fusion power, the knowledge gained from experiments on wave breaking, turbulence, and particle acceleration directly informs the optimisation of fusion devices.

For example, understanding how plasma waves lose coherence or break can help improve energy transfer mechanisms in tokamaks and magnetic mirror systems, enhancing their efficiency and stability.

The Institute for Plasma Research in Gujarat has established itself as a leading centre for plasma science, with IMPED adding to its portfolio of experimental platforms. The facility complements other devices aimed at fusion research, reinforcing India’s role in global efforts to achieve sustainable fusion energy.

By focusing on fundamental plasma behaviour, IMPED ensures that future fusion technologies are built on a solid scientific foundation.

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India Launches First Geothermal Power Project In Ladakh’s Puga Valley At 14,000 Feet

India has approved its first geothermal power project in Ladakh’s Puga Valley, where Oil and Natural Gas Corporation (ONGC) will establish a 1 MW pilot plant at over 14,000 feet altitude.

This pioneering initiative will harness underground heat and steam, making it one of the world’s highest geothermal energy projects and a milestone in India’s clean energy journey.

The Puga Valley in eastern Ladakh has long been recognised as India’s most promising geothermal site. Located within the Himalayan geothermal belt, the valley is rich in hot springs, sulphur deposits, and high underground heat flow. Scientists have studied the area for decades, but commercial progress was delayed due to extreme terrain, remoteness, and high development costs.

ONGC has now overcome these challenges, successfully drilling India’s deepest geothermal well at 1,000 metres despite harsh weather and subsurface conditions.

The project is being developed under a five-year extension of the memorandum of understanding between ONGC, the Ladakh administration, and the Ladakh Autonomous Hill Development Council. The pilot plant will generate 1 MW of electricity, with testing and commissioning expected during the 2026–27 financial year. Subsurface studies have revealed reservoir temperatures exceeding 240 degrees Celsius, suitable for power generation.

The turbine inlet temperature is expected to be around 200 degrees Celsius, ensuring reliable electricity output.

Geothermal energy offers unique advantages compared to solar and wind power. It is available round the clock, independent of weather conditions, and can serve as a dependable baseload renewable energy source.

The Puga Valley project will not only provide clean electricity to Ladakh but also demonstrate the feasibility of geothermal power in India, which has an estimated potential of 10 GW or more. This initiative aligns with India’s broader energy diversification strategy, complementing solar, wind, hydro, and green hydrogen.

The pilot project will also pave the way for larger-scale exploitation of geothermal resources. ONGC plans to deepen existing wells and drill additional ones in subsequent phases. Surveys are also planned in the Chumathang region, another geothermal-rich area in Ladakh. If successful, these efforts could lead to commercial-scale geothermal plants, reducing dependence on fossil fuels and strengthening India’s energy security.

The strategic importance of the project is underscored by its location at high altitude, where conventional energy infrastructure is difficult to establish. By harnessing geothermal heat, Ladakh can achieve sustainable energy independence while reducing reliance on diesel generators that currently power many remote areas. This will also contribute to India’s net zero emissions target by 2070.

The project has drawn international attention as one of the highest geothermal energy developments globally. It highlights India’s determination to explore unconventional renewable sources and establish leadership in clean energy innovation. ONGC’s success in drilling and preparing the pilot plant demonstrates the technical capability to overcome extreme environmental challenges.

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India’s Jupiter Tatravagonka Signs ₹3,000 Crore Pact To Export 50,000 Rail Wheelsets Annually To Europe

India’s Jupiter Tatravagonka Railwheel Factory has signed a landmark 10-year agreement with Slovakia’s Tatravagonka to export around 50,000 railway wheelsets annually to Europe, supported by a new ₹3,000 crore greenfield facility in Odisha.

This deal positions India as a global exporter of rail components, marking a strategic shift from being a net importer to a major supplier.

The Jupiter Tatravagonka Railwheel Factory (JTRWF), a subsidiary of Jupiter Wagons Limited, has entered into a definitive long-term supply agreement with Tatravagonka a.s., one of Europe’s leading rail wagon manufacturers.

The agreement covers the supply of railway wheels, axles, and wheelsets, with commercial deliveries expected to commence by the end of 2027. Structured for a decade, the deal establishes a procurement framework under which Tatravagonka and its affiliates will source critical rail components from India.

The European partner currently consumes between 20,000 and 30,000 wheelsets annually to sustain its freight wagon operations. With the Odisha facility designed to produce 100,000 wheelsets per year, nearly half of this capacity will be dedicated to exports, ensuring that India becomes a significant player in the global rail supply chain.

This facility, located in Khordha district, is the first private-sector forged rail-wheel and axle manufacturing plant in India, purpose-built with advanced design and engineering capabilities to meet both domestic and international demand.

The project involves an estimated investment of ₹3,000 crore and is strongly backed by the Government of Odisha under the Invest Odisha programme. Land has been allocated from the Odisha Industrial Infrastructure Development Corporation (IDCO), with statutory approvals secured.

The plant’s proximity to key transport hubs, including an airport just 30 kilometres away, enhances its logistical connectivity for global exports. The facility will incorporate advanced forging technology tailored for high-speed and heavy-load railway applications, reducing India’s reliance on imports while expanding its export footprint.

Managing Director Vivek Lohia emphasised that the agreement marks a turning point for India’s rail manufacturing ecosystem. He noted that India, once a net importer of wheelsets, will now emerge as a major exporter to Europe and beyond.

The company expects export revenues in the range of ₹1,000–₹1,500 crore over the coming years, reinforcing the economic viability of the Odisha plant. Pawan Kumar Agrawal, CEO and Whole-Time Director of JTRWF, added that the long-term agreement provides strategic visibility for the upcoming facility and validates India’s potential to become a global supplier of forged wheelsets.

Jupiter Wagons Limited already operates manufacturing units in Kolkata, Jamshedpur, Indore, Jabalpur, Bengaluru, and Aurangabad, producing freight wagons, locomotives, commercial vehicles, marine containers, and rail components.

The new Odisha plant will complement these capabilities, positioning the company as a comprehensive mobility solutions provider with a strong international presence. The agreement also strengthens India’s standing in the global rail supply chain, aligning with the government’s Make in India and Aatmanirbhar Bharat initiatives.

This development is expected to generate significant employment opportunities in Odisha, while also boosting India’s reputation as a reliable supplier of complex rail systems. By securing such a large-scale export contract, Jupiter Tatravagonka Railwheel Factory is not only expanding its global footprint but also contributing to India’s broader ambitions of becoming a leading defence and industrial manufacturing hub.

Agencies

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India Targets 350 Kmph Indigenous Bullet Train As B28 Nears 2027 Trials

India is advancing its high-speed rail ambitions with two parallel indigenous projects: the B28 train, designed for 280 km/h and expected to begin trials by 2027, and a next-generation bullet train targeting 350 km/h, with design work set to start within six months.

These efforts mark a major leap in India’s Atmanirbhar Bharat initiative, aiming to reduce dependence on imported technology and build a robust domestic ecosystem for ultra-fast rail travel.

India’s Railway Minister Ashwini Vaishnaw has confirmed that the country is preparing to develop its fastest-ever train, capable of reaching 350 kilometres per hour. The design process for this advanced platform will commence within the next six months.

This project is expected to evolve into a new “B35” category, specifically tailored for ultra-high-speed operations, and will build upon the expertise gained from the ongoing B28 programme.

The B28 trainset, jointly developed by BEML Limited and the Integral Coach Factory (ICF), is designed for operational speeds of up to 280 km/h. The prototype is scheduled for rollout early next year, with trial operations planned on sections of the 508-kilometre Mumbai–Ahmedabad High-Speed Rail Corridor by August 2027.

This corridor, launched in 2016, is being constructed to support trains running at speeds of up to 320 km/h, and its first phase is expected to begin operations in 2027.

India’s first bullet train, currently under manufacture at BEML’s Bengaluru facility, is also expected to be ready by 2027. The combination of the B28 project and the planned 350 km/h train reflects a dual-track strategy: delivering the first operational bullet train while simultaneously pushing forward with an even faster, more advanced model.

This approach underscores the government’s commitment to indigenous development and technological self-reliance.

The upcoming 350 km/h platform is expected to incorporate advanced aerodynamics, distributed traction systems, intelligent monitoring, enhanced braking, and next-generation safety architecture. 

These trains will be engineered to withstand India’s diverse climatic conditions, including high temperatures, dust-prone regions, heavy rainfall, and humid coastal environments. Such localisation ensures reliable performance while reducing dependence on foreign technology.

Over the past decade, nearly 70,000 kilometres of railway tracks have been laid, and more than 80% of the national rail network is now capable of supporting speeds up to 110 km/h. This extensive groundwork provides a strong foundation for the introduction of high-speed rail services.

The Railway Board has also emphasised that safety will remain the top priority as new technologies are integrated during the current financial year.

Earlier this month, an image of the proposed design of India’s first indigenous bullet train was displayed at Rail Bhawan in New Delhi. The Railway Board clarified that the image was a symbolic stage-one design, not the final version. Nevertheless, it attracted significant public attention, with many assuming it was the first official glimpse of India’s inaugural bullet train project.

The localisation strategy behind these projects aims to strengthen domestic manufacturing capabilities in rolling stock, propulsion systems, signalling, precision engineering, and rail electronics.

By reducing reliance on imports, India seeks to establish a globally competitive high-speed rail ecosystem under the Atmanirbhar Bharat framework.

Agencies

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IIT-Bombay Breaks Ground On Advanced Research Labs To Boost Scientific Innovation

On 14 May 2026, the Indian Institute of Technology Bombay marked a significant milestone with the ground-breaking ceremony of its upcoming Advanced Research Labs (ARL).

This high-end facility has been envisioned to strengthen the Institute’s advanced scientific and technological research ecosystem and to provide a world-class platform for interdisciplinary innovation.

The event was attended by Prof. Shireesh Kedare, Director of IIT-Bombay, Prof. Ravindra Gudi, Deputy Director (Finance & Infrastructure Affairs), Mr. Abhay Nadkarni, Committee member (NN315), as well as Deans, Associate Deans, faculty members, end users, the project team of the IPS office, Architect M/s AAD, and other distinguished guests.

The ceremony began with a welcome address by Kiran Janjalkar, Deputy Executive Engineer of the IPS Office. Prof. P. Vedagiri, Dean of IPS, highlighted the salient features of the project and its strategic importance for the Institute’s research ambitions.

The ARL facility is conceived as an integrated high-technology research campus comprising four specialised research blocks dedicated to Mechanical Engineering, Quantum Technology, Semiconductor Technology, and Ocean Engineering.

This multi-disciplinary approach reflects IIT-Bombay’s commitment to fostering collaboration across diverse scientific domains.

The architectural design of the ARL has been conceived as a unified expression that responds sensitively to the site’s natural topography. Sustainability is a key feature, with the building targeted for a GRIHA 4-star rating.

The facility will include a common administrative and interaction hub, providing workspaces, conference facilities, exhibition areas, and industry collaboration spaces. This hub is intended to serve as a vibrant centre for knowledge exchange and partnerships with industry and academia.

The project incorporates a steel-framed Pre-Engineered Building (PEB) structural system, which enables large column-free spans, modular adaptability, and faster construction timelines.

This modern construction approach ensures flexibility for future expansions and adaptability to evolving research needs.

The facility will house advanced clean-room laboratories, vibration-isolated equipment, high-end utility support systems, and specialised experimental facilities, thereby meeting the stringent requirements of cutting-edge scientific research.

Prof. Shireesh Kedare, Director of IIT-Bombay, expressed appreciation for the efforts of the IPS office team and reiterated the Institute’s commitment to creating world-class research infrastructure.

He emphasised that the ARL will foster innovation, interdisciplinary collaboration, and scientific advancement at the highest level.

The facility is expected to significantly enhance IIT-Bombay’s ability to undertake pioneering research in areas critical to India’s technological future, including quantum computing, semiconductor fabrication, advanced mechanical systems, and ocean engineering technologies.

The ARL project represents a forward-looking vision for IIT-Bombay, aligning with national priorities in science and technology.

By integrating advanced infrastructure with sustainable design and collaborative spaces, the Institute is positioning itself as a leader in global research and innovation.

The ground-breaking of the ARL marks not only the beginning of a major construction project but also a new chapter in IIT-Bombay’s journey towards excellence in scientific discovery and technological development.

IIT-Bombay News

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ECONOMY: RBI To Pilot Polymer Banknotes For Durability, Cost Savings, And Security

The Reserve Bank of India is reviving its long-discussed plan to introduce polymer banknotes, beginning with a pilot project that will test ₹10 and ₹20 notes.

These notes are expected to last longer, reduce replacement costs, and incorporate stronger anti-counterfeiting features, addressing the rising demand for cash despite digital payment growth.

The Reserve Bank of India has decided to move forward with a pilot programme for polymer banknotes, a project that has been under consideration for more than a decade. The central bank’s board meetings in Patna and Mumbai recently revisited the issue, concluding that the advantages of polymer notes outweigh those of traditional cotton-based paper currency.

The pilot will begin with lower denominations such as ₹10 and ₹20, which face the highest wear and tear due to their heavy circulation.

The primary motivation behind this initiative is durability. Polymer notes, made from bi-axially oriented polypropylene (BOPP), are significantly more resistant to moisture, folding, and microbial damage compared to paper notes.

This resilience translates into a longer shelf life, reducing the frequency of replacement and disposal. In FY25 alone, India disposed of 23.8 billion pieces of soiled banknotes, a 12.3 per cent increase from the previous year. Most of these were ₹500 and ₹100 notes, but lower denominations also suffer rapid deterioration due to constant handling.

Cost efficiency is another major factor. The RBI’s expenditure on printing currency rose sharply to ₹6,372.8 crore in FY25, up from ₹5,101.4 crore in FY24. By extending the lifespan of notes, polymer currency can reduce the overall printing burden and associated costs. Automated teller machines (ATMs) are expected to be adapted to dispense polymer notes, ensuring smooth integration into the existing banking infrastructure.

Security enhancements are equally important. Polymer notes allow for advanced anti-counterfeiting features such as metameric inks, transparent windows, and complex holographic elements that are difficult to replicate.

This is particularly relevant in India, where counterfeit currency remains a persistent challenge. The adoption of polymer notes is expected to strengthen public confidence in the integrity of the currency system.

Globally, polymer banknotes have proven successful. Australia pioneered their use in 1988 and fully transitioned by 1996. Countries such as Canada, the United Kingdom, New Zealand, Vietnam, Romania, and the Maldives have since adopted polymer currency, citing both durability and environmental benefits.

Canada’s transition in 2011 followed environmental assessments that showed polymer notes performed better across multiple lifecycle stages compared to paper notes. Cotton-based paper notes require extensive water, pesticides, and chemicals, contributing to environmental degradation, whereas polymer notes are more efficient over their lifespan.

India’s currency in circulation continues to rise, reaching a record ₹42.86 trillion as of May 15, 2026, despite the rapid adoption of digital payments. This underscores the enduring reliance on physical cash, making innovations in banknote durability and security essential.

The pilot project will serve as a crucial testbed, and if successful, could pave the way for a phased rollout across higher denominations.

The RBI’s move reflects a balance between tradition and modernisation. While India has embraced digital payment systems, cash remains indispensable for millions, particularly in rural and semi-urban areas. Polymer notes represent a pragmatic step towards ensuring that physical currency remains cost-effective, secure, and environmentally sustainable.

Agencies

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