India 

In a significant boost to India’s push for self-reliance in advanced defence technologies, Raghu Vamsi Aerospace Group on Tuesday announced the launch of a new DeepTech design, production and integration facility while unveiling a comprehensive portfolio of indigenous unmanned and autonomous defence systems. The twin announcements mark one of the company’s largest expansions to date, backed by an investment exceeding ₹100 crore in manufacturing infrastructure and next-generation technology development. The new facility, named the Citadel Campus, is located at Hardware Park near the Rajiv Gandhi International Airport, Hyderabad. Designed as a large-scale hub for design engineering, system integration, assembly and testing, the campus significantly enhances the Group’s ability to support Indian strategic defence programmes and global OEMs with faster turnaround times and scalable production capacity.   Expanding Industrial Footprint Raghu Vamsi Aerospace Group currently operates 10 manufacturing facilities across three countries and employs over 1,000 professionals. The company has established itself as a key supplier of aero-engine components, missile subsystems and precision assemblies to Indian Defence Public Sector Undertakings (DPSUs) and global aerospace majors. The Citadel Campus builds on this foundation, enabling the company to move further up the value chain by integrating concept design, prototyping, qualification, and full-scale production under one roof. The facility aligns closely with the Ministry of Defence’s Aatmanirbhar Bharat initiative, aimed at reducing import dependence in critical defence technologies.   Indigenous UAV and Autonomous Systems Unveiled Alongside the infrastructure launch, the company introduced six indigenous defence product families, spanning aerial, ground and mission-support domains. Developed entirely in India, these systems reflect the country’s rapidly expanding technological footprint in unmanned and autonomous warfare solutions. The unveiled portfolio includes jet-powered loitering munitions, long-endurance kamikaze UAVs, decoy drones, target drones, tethered surveillance drones, unmanned ground vehicles (UGVs), autonomous ground combat systems, air-launched missile systems, micro turbojet engines, and robotic aircraft maintenance solutions. Designed for surveillance, deep-strike missions, battlefield logistics and force protection, several platforms are capable of operating at ranges exceeding 300 km with speeds of up to 650 kmph. The product line—RV Astra, RV Maya, RV Lakshya, RV Rudra, RV Indra, RV Yodha and RV Drishti—signals a decisive shift in India’s defence ecosystem, from being a buyer of UAV and propulsion technologies to a nation capable of designing and manufacturing future-ready unmanned systems at scale.   Strategic Partnerships and MoUs To accelerate development and deployment, Raghu Vamsi Aerospace Group announced the signing of four strategic MoUs with leading defence and research institutions. A key MoU was signed with the 515 Army Base Workshop of the Indian Army for the co-design, development, testing and validation of advanced drone platforms and associated systems. Under this collaboration, ARROBOT, the Group’s autonomous systems arm, will support the Workshop in becoming a system integrator and in establishing dedicated drone manufacturing facilities within its premises. Another major MoU was signed with Bharat Dynamics Limited (BDL) for the co-development and supply of fully indigenised 200 kgf thrust-class engines, intended to power next-generation autonomous fighter and high-performance unmanned platforms—a critical milestone in India’s propulsion self-reliance journey. The Group also entered into an MoU with IIIT Hyderabad to co-develop AI-based autonomy, intelligent perception systems, swarm intelligence and mission management technologies, strengthening artificial intelligence integration in future UAVs. A fourth MoU with ARCI (International Advanced Research Centre for Powder Metallurgy and New Materials) focuses on laser cladding, additive manufacturing and thermal barrier coatings for next-generation aero-engine technologies.   High-Profile Defence and Scientific Presence The launch event witnessed participation from senior leaders across India’s defence and scientific ecosystem. Dignitaries included Vice Admiral Sanjay Vatsayan, AVSM, NM, Vice Chief of the Naval Staff; Commodore A Madhavarao (Retd), CMD, Bharat Dynamics Ltd; Maj Gen Shivendra Kumar, VSM, ADG-EME, Indian Army; Dr G Satheesh Reddy, former Scientific Advisor to the Raksha Mantri and DRDO Chairman; and Lt Gen Vinod G Khandare, PVSM, AVSM, SM, Principal Advisor, Ministry of Defence. Also present were Ajit Rangnekar, Director, Research and Innovation Circle of Hyderabad (RICH); Praveen P A, Director (Aerospace), Government of Telangana; Prof Ramesh Loganathan, Dean, IIIT Hyderabad; Dr R Vijay, Director, ARCI; and Dr BHVS Narayana Murthy, Vice Chancellor, Defence Institute of Advanced Technology (DIAT).   Industry Outlook and Vision Commenting on the expansion, Vamsi Vikas, Founder and Managing Director, Raghu Vamsi Aerospace Group, said the facility and product lineup demonstrate India’s growing confidence in shaping its aerospace future. “This investment is about more than building capacity; it is about building core defence technologies in India. We are developing globally benchmarked systems engineered for the next era of warfare, powered by homegrown talent. India is ready not only to meet domestic defence needs but also to emerge as a global supplier of high-technology aerospace systems.”   Strengthening India’s Defence Manufacturing Ecosystem With global demand rising for unmanned systems and autonomous warfare solutions, the expansion positions Raghu Vamsi Aerospace Group as a key contributor to India’s defence exports and strategic capability development. By consolidating deep-tech design, propulsion expertise and autonomous systems, the Group is reinforcing India’s position as one of the world’s fastest-advancing defence manufacturing destinations.

Read More → Posted on 2025-12-17 14:34:30

 India 

Raghu Vamsi Aerospace Group has entered the high-speed loitering munition segment with the development of RV ASTRA, a jet-powered kamikaze unmanned aerial vehicle (UAV) designed for precision strike missions in contested battle environments. The system is being positioned as an indigenous, attritable strike platform capable of operating at high speeds while conducting coordinated swarm attacks.   High-speed precision strike platform RV ASTRA is built around a jet propulsion system that enables speeds of up to 600 kilometres per hour, significantly higher than conventional propeller-driven loitering munitions. The UAV is capable of carrying a warhead payload of up to 20 kilograms, allowing it to neutralise high-value and time-sensitive targets such as air defence assets, radar installations and fortified positions. With an estimated operational range of around 300 kilometres, the platform is intended to deliver deep precision strikes while remaining cost-effective compared to traditional cruise missile systems. Its high speed is expected to reduce enemy reaction time and improve survivability against air defences.   Designed for electronic warfare environments A key design focus of RV ASTRA is its ability to operate in high-threat electronic warfare (EW) conditions. The system is equipped with secure communications, autonomous navigation modes and adaptive mission logic, enabling continued operation in GPS-denied or jammed environments. The UAV follows a fire-and-forget strike concept, with onboard guidance and terminal targeting systems ensuring high accuracy against designated targets even under electronic attack.   Swarm-enabled strike capability One of the most notable features of RV ASTRA is its swarm capability, allowing multiple UAVs to operate as a networked formation. In swarm operations, individual units can share targeting data, coordinate attack profiles and execute simultaneous or sequential strikes. Such swarm-based operations are designed to overwhelm enemy air defence systems, conduct multi-axis attacks and increase the overall probability of mission success. The concept also supports roles such as decoys, saturation attacks and distributed targeting.   Boost to indigenous defence manufacturing The development of RV ASTRA forms part of Raghu Vamsi Aerospace Group’s broader expansion into advanced unmanned and autonomous defence systems. The programme aligns with India’s Aatmanirbhar Bharat initiative, aimed at strengthening domestic defence manufacturing and reducing reliance on imported weapon systems. Defence analysts note that jet-powered loitering munitions represent an emerging class of weapons globally, combining the speed of missiles with the flexibility of UAVs.   Outlook While detailed flight-test data and induction timelines have not yet been made public, RV ASTRA’s stated capabilities position it as a potentially game-changing tactical strike system. Further testing, validation and interest from the Indian armed forces will determine the pace of its operational deployment. For now, RV ASTRA highlights the growing role of Indian private defence companies in delivering next-generation, network-enabled strike platforms suited for modern, electronically contested warfare.

Read More → Posted on 2025-12-17 14:24:43

 India 

India has formally launched the development of an indigenous aviation-grade heavy machine gun, with the Defence Research and Development Organisation (DRDO) inviting domestic industry to partner in the programme. The Armament Research and Development Establishment (ARDE) has issued an Expression of Interest (EoI) for the design and development of a 12.7×99 mm Aviation Machine Gun (AMG) along with a dedicated external pod for deployment on aerial platforms of the Indian Navy and the Indian Coast Guard. The move marks a significant step in India’s effort to reduce dependence on imported airborne weapon systems and strengthen self-reliance in critical combat equipment used in maritime security operations.   Project scope and objectives According to the EoI, the project will cover the complete development cycle of the aviation machine gun system, including design, prototyping, testing and qualification. In addition to the gun, ARDE is seeking solutions for an aircraft-compatible pod or mounting system, capable of safely integrating the weapon onto helicopters and fixed-wing maritime aircraft. Aviation-grade machine guns demand higher engineering standards than ground-based systems, particularly in areas such as recoil and vibration management, structural safety, environmental endurance and compatibility with aircraft avionics and power systems.   Operational requirement The Indian Navy and Indian Coast Guard require airborne heavy machine guns primarily for maritime patrol, surveillance support and limited engagement roles. Such weapons are used to deter and, if necessary, engage fast-moving small boats and asymmetric threats, especially during coastal security missions and law-enforcement operations at sea. The 12.7 mm calibre provides a balance between firepower and integration complexity, offering high lethality and extended range without the weight and operational burden associated with larger automatic cannons.   Calibre and capability The 12.7×99 mm (.50 BMG) round is a globally proven heavy machine gun calibre, widely used in both land and aviation roles. When mounted on aircraft, it enables precise engagement of surface targets from standoff distances, making it particularly effective in maritime environments. By developing an indigenous aviation-qualified version, India aims to gain greater control over performance parameters, logistics, maintenance and future upgrades, while also reducing long-term procurement and sustainment costs.   Existing foreign-origin systems in service At present, Indian naval and coast guard aviation units largely rely on imported 12.7 mm machine guns, including M2 Browning-based systems and the FN M3M aviation machine gun, manufactured by FN Herstal of Belgium and other licensed overseas producers. While these systems are widely respected, they remain foreign-sourced, creating dependence on external suppliers for spares, upgrades and life-cycle support. The new ARDE programme is intended to replace or supplement these imported systems with a domestically developed alternative.   Industry participation and development model ARDE will lead the programme and work closely with Indian defence manufacturers under a collaborative development framework. The EoI is expected to attract participation from firms with expertise in weapon design, aerospace structures, electro-mechanical systems and fire-control integration. Beyond the gun itself, industry partners are likely to contribute to the development of weapon pods, ammunition feed systems and aircraft integration solutions, depending on service requirements.   Strategic significance The initiation of the indigenous aviation machine gun project comes amid growing maritime security challenges and the continued modernisation of India’s naval aviation fleet. A home-grown 12.7 mm aviation machine gun and pod system would enhance operational flexibility, improve sustainment autonomy, and reinforce India’s broader Atmanirbhar Bharat goals in defence manufacturing. Further clarity on development timelines and partner selection is expected once responses to the EoI are evaluated and the programme progresses into the contract and prototype development phase.

Read More → Posted on 2025-12-13 12:19:45

 India 

The Indian Navy will commission DSC A20, the first vessel of its indigenously designed and constructed Diving Support Craft (DSC) series, at Kochi on Tuesday, December 16, in a ceremony led by Vice Admiral Sameer Saxena, Flag Officer Commanding-in-Chief of the Southern Naval Command. The addition of the new vessel marks a major boost to the Navy’s underwater support and diving operations capability. Built by Titagarh Rail Systems Limited (TRSL) in Kolkata, DSC A20 is the lead ship in a fleet of five Diving Support Craft ordered by the Ministry of Defence in 2021. Conceived specifically for coastal and harbour-based underwater missions, the vessel has been engineered with advanced diving systems that meet the Navy’s highest safety and efficiency standards.   According to the Ministry of Defence, DSC A20 has been “purpose-built for a wide spectrum of diving and underwater missions,” and features a modern suite of equipment for underwater inspection, salvage assistance, and specialised diving operations. The vessel is based on a catamaran-hull design, offering superior stability, increased deck space, and improved seakeeping—features essential for safe and sustained underwater tasks in varying sea conditions.   The 32.9-metre-long craft displaces around 390 tonnes and is powered by twin engines delivering a combined output of approximately 2,600 horsepower, enabling a service speed of about 12 knots. It can remain deployed for up to 72 hours, carries a crew of about 18, and is fitted with essential navigation, communication, and self-defence systems, including a mount for a 12.7 mm machine gun.   In keeping with India’s indigenous shipbuilding standards, the vessel has been designed and constructed in accordance with the Naval Rules and Regulations of the Indian Register of Shipping (IRS). It underwent extensive hydrodynamic analysis and model testing at the Naval Science and Technological Laboratory (NSTL) in Visakhapatnam to ensure optimal operational reliability before its handover to the Navy in September 2025.   The launch of DSC A20 in 2023 and its subsequent delivery two years later mark a smooth progression of the project, which showcases strong coordination between the Indian Navy, domestic shipbuilders, and national research institutions. The remaining four vessels in the DSC series are slated for phased delivery, further expanding the Navy’s specialised support fleet.   Officials said the commissioning of DSC A20 is a significant milestone in the Navy’s drive toward Aatmanirbharta and highlights the success of the ‘Make in India’ initiative in the maritime sector. The vessel will now be based in Kochi and operate under the Southern Naval Command, substantially strengthening the Navy’s operational readiness in coastal waters and enhancing India’s ability to conduct underwater inspections, diving operations, and salvage tasks with greater efficiency and autonomy.

Read More → Posted on 2025-12-12 16:49:17

 India 

The Indian Army has formally sought Defence Acquisition Council (DAC) approval for the purchase of next-generation Pinaka Mk-III rockets, a long-range guided variant capable of striking targets at up to 120 kilometres. The procurement proposal, valued at approximately ₹2,500 crore, marks a significant step in expanding India’s indigenous rocket artillery capability. Officials confirm that the first test firing of the Mk-III is expected shortly, indicating that the system is nearing a key developmental milestone.   Pinaka Mk-III: The New Long-Range Upgrade The Mk-III rocket represents the latest advancement in DRDO’s Pinaka programme, incorporating enhanced propulsion and guidance systems. While the existing Pinaka Mk-I has a range of 38–40 km and the guided Mk-II reaches about 75 km, the Mk-III’s extended 120-km reach dramatically improves the Army’s deep-strike and counter-artillery capabilities along sensitive operational sectors. Defence sources note that development is in an advanced stage, with the upcoming test firing expected to validate performance ahead of limited-series production.   Current Status of Pinaka in the Indian Army The Indian Army currently fields six Pinaka regiments, deploying over 108 launchers of the Mk-I and guided Mk-II variants across key operational sectors. These systems form the backbone of India’s indigenous rocket artillery fleet and are supported by launcher vehicles, command posts and automated fire-control units supplied by major domestic defence manufacturers. To strengthen long-range firepower, the Army has placed orders for four additional Pinaka Mk-II regiments, which will raise the total to ten regiments once inducted over the next few years. Looking ahead, the Army has outlined a long-term plan to expand the fleet to 22 Pinaka regiments, ensuring a complete transition to indigenous rocket systems and phasing out older platforms such as the BM-21 Grad. Strategic Impact Once inducted, the Pinaka Mk-III will offer the Army a potent, long-range, precision-capable strike system that fills the gap between conventional rocket artillery and ballistic missiles. Its 120-km range allows engagement of critical enemy infrastructure, logistics nodes, and artillery positions from safer standoff distances. Defence officials describe the upcoming tests and DAC’s decision as “critical milestones” that will shape induction timelines over the next several years.

Read More → Posted on 2025-12-12 15:47:57

 India 

Hindustan Aeronautics Limited (HAL) is moving to strengthen the manufacturing process of a key component in its ALH Dhruv helicopters after an investigation linked the part to the January 5 Porbandar crash, which killed three Indian Coast Guard personnel. The component, known as the Non-Rotating Swashplate Bearing (NRSB), plays an essential role in transferring pilot control inputs to the helicopter’s main rotor.   A multi-agency Defect Investigation Committee (DIC) examined the wreckage and confirmed that the NRSB had fractured suddenly during flight, causing the crew to lose control of the helicopter. Laboratory analysis described the failure as critical and instantaneous, leaving the pilots with no time to respond. After the crash, emergency inspections of Navy and Coast Guard Dhruv fleets revealed additional cracks and early fatigue marks in several swashplate assemblies.   Investigators determined that Dhruv helicopters serving with the Navy and Coast Guard operate in much harsher maritime conditions compared to land-based fleets. These helicopters face saltwater exposure, ship-deck landings, strong winds, and rapid mechanical load changes. According to the DIC, these conditions greatly increase wear and corrosion, especially on sensitive components like the NRSB. The investigation recommended that HAL upgrade and strengthen the manufacturing process to improve the bearing’s durability.   HAL has accepted the findings and begun making production modifications to the NRSB. Officials said the new approach includes enhanced material treatment, improved surface finishing, and stricter quality inspections. These changes aim to increase the bearing’s fatigue life and prevent similar failures in the future. The upgrade will be carried out on 28 Dhruv helicopters operated by the Navy and Coast Guard, and the work will be done in phases to ensure essential missions can continue.   Dhruv helicopters used by the Army and Air Force were not affected, as their operational environments do not expose the NRSB to the same level of corrosion or mechanical stress. Their fleets resumed flying after routine checks.   The development has also brought renewed attention to earlier remarks by HAL Chairman C.B. Ananthakrishnan, who had publicly stated that the Dhruv had “no manufacturing defects” and suggested that earlier mishaps were mainly due to maintenance lapses by the user agencies. The DIC’s findings do not indicate a design flaw in the helicopter itself but confirm that this specific bearing requires stronger manufacturing standards in maritime roles.   The Dhruv has been in service for over two decades and is widely used across the armed forces for transport, search and rescue, coastal patrol, and ship-based operations. While the helicopter has performed successfully in many missions, its maritime variants have faced higher mechanical stress and corrosion, contributing to periodic technical issues and temporary groundings in past years.   The DIC is still preparing its final detailed report, which will shape new inspection intervals, maintenance rules, and any additional engineering changes needed. For now, HAL and the armed forces say their focus is on restoring full operational confidence in the Dhruv fleet, especially for missions where reliability is critical.

Read More → Posted on 2025-12-12 15:25:41

 India 

Bengaluru — Hindustan Aeronautics Limited’s (HAL) HTFE-25 turbofan programme has been significantly delayed due to late approvals and shortages in test-bed infrastructure, a parliamentary Committee on Public Undertakings reported in March 2025. The committee found that essential testing facilities and procurement milestones were not ready when required, resulting in schedule slippages and increased costs.   Project Significance And Scope The HTFE-25 (Hindustan Turbo Fan Engine — 25 kN) is being developed at HAL’s Aero Engine Research & Development Centre (AERDC) in Bengaluru. Designed for advanced trainers, light combat aircraft, UAVs, and small jets, the engine is considered crucial for India’s goal of achieving indigenous aero-engine capability and reducing dependence on foreign suppliers.   What Went Wrong: Test Beds, Procurement And Vendor Problems According to the committee, HAL encountered delayed land and clearance approvals for constructing test facilities. The absence of early-stage test-bed infrastructure forced HAL into unplanned procurement and retrofitting, further delaying progress. The report also highlighted supply-chain difficulties, including late deliveries of critical components like the Intermediate Gear Box and challenges in developing spiral bevel gears, along with limited domestic availability of specialised manufacturing processes. As a result, Full Engine Technology Demonstrator testing could not proceed on schedule because component readiness and configuration decisions were dependent on the missing test infrastructure. The committee recommended that the Ministry of Defence (MoD) ensure test beds and key facilities are established before major D&D projects begin.   Official Responses And Recent Steps The MoD inaugurated upgraded test and design facilities at AERDC on December 29, 2023, aimed at accelerating India’s engine development capabilities. HAL and MoD representatives told the committee they are improving planning, procurement and vendor development to prevent recurrence of such delays. Analysts have pointed to long-standing issues such as vendor immaturity, clearance delays, and lack of specialised test rigs, urging faster capital investment and tighter oversight to keep the HTFE-25 programme moving.   Impact on Timelines And Wider Implications Delays in the HTFE-25 gas-turbine project have extended R&D timelines, pushed back certification milestones, and created uncertainty for platforms expected to use the engine. The committee stressed the need for dedicated funding for test-bed infrastructure and stronger project governance. A successful HTFE-25 would strengthen India’s aerospace sector by providing a homegrown medium-thrust engine for future trainers, UCAVs, and light combat aircraft. Continued delays, however, risk prolonging dependence on foreign engines and slowing India’s Atmanirbhar defence manufacturing goals.   What’s Next The committee has directed the MoD to monitor corrective actions and ensure HAL prioritises test-bed readiness and vendor development in upcoming programmes. HAL officials say remedial steps are underway; observers note that the programme’s progress will depend on achieving timely demonstrator and certification testing over the next 12–36 months.

Read More → Posted on 2025-12-12 13:43:42

 India 

India’s meteorological radar network is set for a significant boost as Astra Microwave Products Ltd. has secured a ₹170-crore order (₹171.38 crore including GST) from the India Meteorological Department (IMD) to deliver six S-band Doppler Weather Radar (DWR) systems along with critical supporting equipment. The contract includes Automatic Weather Stations (AWS), Disdrometers, a three-year warranty, and seven years of comprehensive maintenance, with the full project scheduled for completion within 18 months.   The S-band radars being supplied are high-power, long-range systems designed to track severe weather patterns including thunderstorms, cyclones, and intense rainfall. Their enhanced detection capability is expected to strengthen IMD’s forecasting accuracy, particularly during the monsoon and cyclone seasons when early alerts are essential for public safety.   This order comes at a time when Astra Microwave is rapidly expanding its presence in the country’s environmental sensing sector. The company recently confirmed that 15 Doppler Weather Radars it previously supplied to IMD are now fully operational across India, forming a key part of the national weather surveillance grid. In addition, Astra Microwave is currently developing around 20 new DWR units across multiple frequency bands, including S-band, X-band, and C-band systems, under ongoing programs to modernize India’s meteorological infrastructure.   The Hyderabad-based manufacturer has also emerged as one of the few Indian companies capable of delivering indigenously designed weather radar systems, aligning with the government's Atmanirbhar Bharat push to reduce dependence on foreign radar technology. Its portfolio includes not only DWRs but also Wind Profilers, AWS networks, and integrated hydro-meteorological monitoring systems, which have become increasingly important amid rising extreme-weather events.   Industry analysts noted that the latest IMD contract strengthens Astra Microwave’s already robust order book, enhancing revenue visibility for the company over the coming financial years. The deal is also expected to accelerate India’s broader initiative to expand radar coverage nationwide, closing gaps in regions that remain underserved during high-impact weather.   With the six new S-band radars set to join IMD’s growing network, the project marks another step forward in India’s efforts to build a resilient, technologically advanced weather-forecasting ecosystem capable of meeting the challenges of a changing climate.

Read More → Posted on 2025-12-12 13:17:13

 India 

India’s push for defence self-reliance received a major endorsement this week after a parliamentary panel revealed that the Defence Research and Development Organisation (DRDO) saved ₹2,64,156 crore over the past five years through its indigenous research and development efforts. The Parliamentary Standing Committee on Defence, which tabled its latest report in Parliament on Tuesday, said these savings demonstrate the “transformative impact” of India’s domestic defence innovation ecosystem.   Major Savings and Breakthrough Technologies According to the report, the DRDO’s expanding portfolio of homegrown systems—ranging from advanced missiles and sensors to protective systems and unmanned platforms—has significantly reduced dependence on costly foreign imports. The committee noted that “crucial milestones in developing next-generation hypersonic technologies and missiles have been achieved” in recent years. Among these achievements: India’s first long-range hypersonic anti-ship missile was successfully flight-tested in November 2024. The test marked a major step in India’s indigenous hypersonic capabilities, an area previously dominated by only a handful of global powers. In March 2024, DRDO conducted a landmark flight test of Multiple Independently Targetable Re-entry Vehicle (MIRV) technology using an Agni-class ballistic missile. MIRV capability allows a single missile to carry multiple warheads, each directed at different targets—an advanced strategic capability possessed by only a few nations. The organisation also successfully developed and flight-tested the Very Short Range Air Defence System (VSHORADS), designed to counter low-altitude aerial threats such as drones, helicopters, and slow-moving aircraft. The Man-Portable Anti-Tank Guided Missile (MPATGM) has completed its Provisional Staff Qualitative Requirements (PSQR) validation trials for the Indian Army, bringing India closer to fielding an indigenous alternative to imported anti-tank systems.   Government Cites Expanding Indigenous Capabilities In its submission to the committee, the Ministry of Defence highlighted DRDO’s role in the Aatmanirbhar Bharat initiative, pointing to recent programmes such as next-generation combat aircraft technologies, directed-energy systems, advanced materials, underwater platforms, and AI-enabled defence solutions. Officials also revealed that DRDO laboratories are working with private industry and startups under the “DRDO Technology Development Fund” and Innovations for Defence Excellence (iDEX) to accelerate innovation cycles and reduce dependency on imports.   Massive Expansion of SPARSH Pension Platform In a separate report, the committee examined progress in pension reforms across India’s defence establishment. It noted that the country currently has 6,40,536 defence civilian pensioners and 26,79,645 armed forces pensioners, forming one of the world’s largest military pension communities. The Committee praised the rapid rollout of the System for Pension Administration (Raksha) — SPARSH, a digital platform intended to streamline pension sanction and disbursement: 28.24 lakh defence pensioners have already been migrated to the platform. ₹67,388.45 crore has been disbursed through SPARSH in FY 2024–25 up to August 2024. While applauding the progress, the committee urged the Ministry to expedite migration of the remaining pensioners to ensure full standardisation and transparency in pension processing.   Push to Boost Defence Exports The committee’s report also noted that to strengthen India’s global defence footprint, newly formed defence Public Sector Undertakings have begun identifying “major target countries and exportable products” aligned with global military market trends. India’s defence exports have surged sharply in the past decade—from ₹1,521 crore in 2016–17 to over ₹21,000 crore in 2023–24—driven by systems such as BrahMos missiles, Akash SAM systems, radars, armored vehicles, and maritime platforms. The new export strategy aims to consolidate India’s presence in Southeast Asia, Africa, West Asia, and Latin America.   Committee Encourages DRDO’s Future Roadmap In its concluding remarks, the Parliamentary Standing Committee praised the DRDO for its “various feats” and expressed confidence that the organisation will “continue its successful stride” in mastering complex and critical technologies—from hypersonics and electronic warfare to AI-enabled systems and strategic missiles. The report underscores a broader trend: India’s rapid transition from a major defence importer to an emerging global defence innovator, with DRDO at the centre of that shift. If you want, I can also prepare a shorter version, a headline-only version, or a more narrative-style article.

Read More → Posted on 2025-12-10 14:44:29

 India 

A new trade flashpoint has emerged between Washington and New Delhi after U.S. President Donald Trump accused India of subsidising rice and “dumping cheap rice into the U.S. market,” a move he claims is hurting American farmers. The remarks come as the White House considers fresh tariffs on rice imports from India, Vietnam, Thailand, and China, arguing that subsidised Asian rice is distorting domestic prices.   Trump Accuses India of “Dumping”; New Tariff Review Underway Speaking at a campaign event, Trump questioned why India was allowed to ship “large volumes” of rice into the United States without facing higher duties, saying Asian exporters were “killing American farmers” through unfair pricing. His comments triggered a review within the U.S. Trade Representative (USTR) office on whether additional tariffs should be imposed, potentially raising duties far above the current 50% rate. Rice imports in the U.S. have increased steadily over the past decade, driven largely by the growing demand from immigrant communities. While domestic U.S. rice farmers primarily grow long-grain varieties, Indian basmati and specialty non-basmati varieties have carved out a niche market.   Indian Exporters Push Back: “No Dumping, Only Demand-Driven Trade” India’s industry has firmly rejected Trump’s allegations.Indian Rice Exporters Federation (IREF) president Dev Garg clarified: “India is not dumping any rice into the U.S. market. All Indian exports are demand-driven, and the demand for Indian rice is deeply rooted in the food habits of ethnic communities from South Asia and the Gulf region. Though the U.S. is a substantial market for Indian rice, Indian rice exports are globally diversified, and no single market defines the sector.” Garg also noted that U.S. tariffs on Indian rice originally stood at 10%, later raised to 50%, yet demand has remained steady because Indian basmati holds a unique premium niche that U.S. farmers do not compete in. Exporters say the U.S. threat “is not a major concern” because shipments to America account for only a small fraction of India’s massive global rice trade.   How Much Rice Does the U.S. Actually Import From India? Despite President Trump’s sharp criticism of Indian rice exports, the trade numbers tell a very different story. India exported around 20.1 million tonnes of rice in 2024–25, maintaining its position as the world’s largest rice exporter. These shipments, covering both basmati and non-basmati varieties, reached more than 170 countries across the Middle East, Africa, and Asia. India’s Major Rice Markets The latest verified export data from FY 2023–24 shows that the bulk of India’s basmati shipments continues to flow to the Middle East: Saudi Arabia imported approximately 1.09 million tonnes of Indian basmati. Iraq received nearly 824,000 tonnes. Iran purchased around 671,000 tonnes. The United Arab Emirates (UAE) imported about 336,000 tonnes. Yemen accounted for nearly 250,000 tonnes. These markets consistently dominate global demand for Indian basmati.For non-basmati rice, the largest buyers typically include Benin, Togo, Senegal, Bangladesh, and Nepal, though country-wise verified 2024–25 figures are still being compiled.   Where Does the United States Stand? The United States is, by comparison, a very small buyer.India exported around US$ 380 million worth of rice to the U.S. in 2024. Based on average export prices, this translates to approximately 230,000–250,000 tonnes — barely 1 to 1.2 percent of India’s total rice exports. Almost every shipment to the United States falls under premium basmati rice, purchased mainly by: Indian and Pakistani diaspora households, Middle Eastern and African communities, Indian food-service chains and restaurants, and Ethnic and specialty grocery retailers. Indian basmati does not compete with U.S.-grown long-grain rice, which makes the allegation of “dumping” inconsistent with market reality. In effect, Indian shipments fill a niche cultural and culinary demand rather than displacing American producers.   Why U.S. Imports Rose Over the Years U.S. demand for Indian basmati grew sharply after 2014 as the South Asian population expanded and Indian, Pakistani, and Middle Eastern cuisines entered mainstream American supermarkets. At the same time, Indian basmati offered more competitive pricing than U.S.-grown long-grain rice, while also delivering a distinct aroma and taste that American producers cannot replicate. These factors helped Indian rice steadily gain a foothold in the U.S. market. However, despite the rise in demand, the United States still remains outside the top ten destinations for Indian rice exports, accounting for only a small share of India’s overall shipments.   India Rejects “Dumping” Charge; WTO Rules Allow Subsidies Indian trade officials have firmly rejected allegations of dumping. They explain that India’s support to farmers through the Minimum Support Price (MSP) system follows WTO rules and remains within permitted limits. Officials also point out that the U.S. itself provides extensive subsidies to its rice farmers in states such as Arkansas, California, Louisiana, and Texas—often amounting to billions of dollars annually. Moreover, Indian basmati does not directly compete with American rice varieties, making the charge of market distortion even weaker in the view of Indian exporters and policymakers.   Potential Economic and Diplomatic Impact If President Trump moves forward with additional tariffs, the immediate effect would likely be felt by American consumers, especially Asian communities who rely heavily on Indian basmati. Prices of specialty rice varieties could rise sharply in supermarkets and restaurants. For India, the impact would be limited; exporters might see minor diversions but no significant loss, as basmati enjoys strong demand in Europe, the Middle East, and Africa. The larger consequence could be diplomatic, with a tariff escalation adding another layer of tension to U.S.–India relations, already strained by past disputes involving steel duties, digital taxation, and broader market-access issues.   India Unlikely to Be Significantly Affected Industry analysts note that India enjoys: A huge and diversified global market Strong basmati brand value Limited dependence on the U.S. Meanwhile, U.S. buyers rely heavily on Indian basmati due to lack of domestic substitutes.   A Trade Fight with Limited Practical Stakes While politically charged, experts say Trump’s comments are unlikely to meaningfully hurt India’s rice sector. With over 150 countries importing Indian rice, the U.S. accounts for only a sliver of shipments—making any tariff hike more symbolic than impactful. Indian exporters remain confident: “The U.S. is an important market, but not big enough to disrupt our sector. Demand for Indian rice will continue globally.” If Washington escalates duties, the cost will likely fall more on American consumers than on Indian exporters.

Read More → Posted on 2025-12-09 16:59:53

 India 

Bhairav Robotics has unveiled “Vrishabh” Combat ATV, an advanced unmanned ground platform (UGV) designed to take on some of the most dangerous jobs on the battlefield – from direct combat and intelligence gathering to casualty evacuation and front-line logistics support. The system reflects a growing push within India’s defence ecosystem to field indigenous autonomous and robotic solutions for high-risk, high-tempo operations.    Multirole Combat Support Vehicle According to the company, Vrishabh is built on a robust all-terrain vehicle chassis and is engineered to operate in Combat, ISR (Intelligence, Surveillance & Reconnaissance), Casualty Evacuation (Cas Evac) and Logistics roles. The unmanned platform can be tele-operated or used in semi-autonomous modes, allowing troops to push a sensor or weapon forward without exposing personnel to direct fire, ambush, mines or improvised explosive devices. In its ISR configuration, Vrishabh can carry electro-optical and infrared cameras, along with other mission payloads, to provide live video and situational awareness from the forward edge of the battle area. In logistics and Cas Evac roles, the flatbed/utility layout can be adapted to carry ammunition, rations, water, or to mount a stretcher frame for evacuating wounded soldiers from under fire.     Integrated with Rakshak Autonomous Weapon Station A key feature of Vrishabh is its seamless integration with Bhairav Robotics’ “Rakshak” Autonomous Weapon Station (AWS), which has already been showcased as a modular, AI-enabled remote weapon system. Rakshak is designed to convert medium machine guns (MMG), assault rifles and other weapons into autonomous or remotely controlled stations, using long-range stereo vision and artificial-intelligence–based detection and tracking. The system offers human recognition ranges of up to 2 km by day and 1 km by night and incorporates in-built ballistic correction for accurate fire. Mounted on Vrishabh, Rakshak can host weapons such as MMGs, automatic grenade systems and heavy machine guns like the NSVT, giving the small unmanned vehicle significant firepower for base defence, convoy escort, perimeter security or urban combat support. The combination effectively turns Vrishabh into a compact unmanned combat vehicle that can move ahead of infantry, detect threats and deliver suppressive fire while the operator remains under cover.   Stabilised Fire and On-the-Move Engagement Bhairav Robotics says Vrishabh features two-axis stabilisation, enabling the onboard weapon station or sensor mast to remain steady even when the vehicle is moving over uneven terrain. This stabilisation is critical for accurate firing on the move and for obtaining usable ISR imagery in cross-country conditions, where vibration normally degrades performance. The stabilisation approach draws on the firm’s broader work in motion-compensation platforms like “Dhruv,” a 3-DOF stabilisation system developed for keeping payloads level against vehicle motion and environmental disturbances. This technology base helps Vrishabh maintain weapon or camera alignment, improving first-round hit probability and target tracking.   Designed for Indian Terrain and Tactics Though detailed specifications of Vrishabh – such as weight, payload, endurance and range – have not yet been publicly released, the Combat ATV concept is clearly tailored for rugged Indian terrain and high-altitude or desert deployments, where traditional manned patrols face fatigue and exposure. The ATV-style chassis is expected to offer good off-road mobility, while its modular architecture allows commanders to switch between: a combat configuration with Rakshak AWS for fire support, an ISR configuration with mast-mounted sensors, a logistics/Cas Evac configuration with cargo or stretcher fittings. Such flexibility is intended to reduce the logistical footprint: the same unmanned platform can be re-tasked as the tactical situation evolves.   Part of a Growing Indigenous Robotics Ecosystem Vrishabh joins a growing portfolio of systems from Bhairav Robotics, which already includes the “Shvana” armed quadruped UGV – a robotic dog equipped with cameras, audio sensors, AI-based perception and options to carry munitions or electronic warfare payloads – and Prabal quasi-direct-drive actuators for legged robots and weapon stations. Together with Rakshak, these products position the company as one of several Indian start-ups trying to offer integrated unmanned and autonomous solutions for defence and homeland security, in line with New Delhi’s emphasis on “Atmanirbhar Bharat” (self-reliant India) in critical defence technologies.   Implications for Future Battlefield Operations For the armed forces, systems like Vrishabh could eventually be used to: probe suspected ambush zones or IED-prone stretches before manned vehicles enter, provide 24/7 surveillance around temporary posts and forward bases, act as armed escorts for supply convoys or infantry sections in built-up areas, and perform rapid casualty evacuation from locations where sending a manned vehicle or stretcher party would be too risky. Much will depend on field trials, reliability in harsh conditions, integration with existing communications networks and doctrine development. But the unveiling of Vrishabh underlines how unmanned ground systems are moving from concept to deployable hardware in India’s defence ecosystem. Further technical details and timelines for user trials are expected to emerge as Bhairav Robotics engages with the Indian Army and other security forces for evaluations.

Read More → Posted on 2025-12-09 16:28:09

 India 

India is set to install a new indigenous Integrated Air Defence Weapon System (IADWS) to protect the Delhi National Capital Region (NCR) from hostile aerial threats, replacing the earlier proposal to procure the American NASAMS-II missile shield. The move marks a major shift toward self-reliance in critical air-defence capability and follows months of internal assessments within the Ministry of Defence and the Indian Air Force.   Indigenous Shield for the Capital Senior defence officials say the new system will form a multi-layered defensive bubble around the national capital, combining Quick Reaction Surface-to-Air Missiles (QRSAMS), Very Short Range Air Defence Systems (VSHORADS), and an upgraded network of sensors, radars and command-and-control nodes. The decision to accelerate deployment comes amid heightened concern over the changing nature of aerial threats, including cruise missiles, hostile aircraft, armed drones and swarm UAVs. The responsibility for securing the capital’s airspace remains with the Indian Air Force, which will oversee the integration of all components into a single, rapidly responsive defensive grid.   How the Indigenous IADWS Works The new Integrated Air Defence Weapon System is designed to protect key political, strategic and population centres inside Delhi NCR through three core layers: QRSAM: Serving as the primary short-range missile shield, the QRSAM can engage targets out to 30 km, including fighter aircraft, unmanned systems and low-flying cruise missiles. The system includes AESA-based radars, high-mobility launchers, automatic target detection and multi-target engagement capability. DRDO and Indian industry partners have been refining the system over multiple rounds of successful flight tests. VSHORADS: Forming the innermost layer, India’s new-generation VSHORADS uses an infrared imaging seeker and dual-thrust propulsion to intercept low-flying aircraft, helicopters and drones at ranges up to 6 km. The system can be mounted on vehicles, tripods, or used in shoulder-fired mode, giving security forces the flexibility required in dense urban spaces. Anti-Drone Laser Systems: The IADWS also includes a directed-energy element for neutralising small drones and loitering munitions at short ranges. These systems are expected to be deployed around sensitive installations to counter the rapidly rising drone threat without expending missiles.   Why NASAMS-II Was Dropped India’s earlier plan to acquire NASAMS-II, a U.S.-made air-defence system already deployed to protect Washington D.C., has effectively been shelved. Officials citing the decision point to the high acquisition cost, long-term dependency, and the government’s stronger push for Atmanirbhar Bharat in major defence programmes. NASAMS-II, which uses AMRAAM interceptors and a network of distributed radars, had been estimated to cost nearly $2 billion if fully configured for India’s capital region. The shift to a domestically built shield is expected to save significant foreign expenditure while strengthening India’s industrial ecosystem.   Strengthening the National Air-Defence Grid The Delhi IADWS will fit into India’s broader multi-tiered air-defence architecture, which includes the newly inducted S-400 long-range air defence system, the Barak-8/MRSAM for medium-range coverage, and India’s ongoing efforts toward a future Long-Range Surface-to-Air Missile Shield and ballistic missile defence layers. By focusing on the short-range, high-density protection zone around the capital, the new system aims to close critical gaps that have emerged in recent years due to the proliferation of low-cost drones and precision-guided munitions used in conflicts globally.   A Strategic Shift Toward Self-Reliance The deployment of the indigenous system signals India’s growing confidence in homegrown missile and sensor technology. It also reflects a strategic choice: reducing vulnerability that comes with reliance on foreign suppliers at a time when global conflict zones and sanctions regimes increasingly disrupt defence supply chains. Officials expect the Delhi IADWS to act as a template for similar protective bubbles around other strategic regions of the country in the future, creating an interconnected and modernised national air-defence grid. With the capital’s airspace set to receive its most advanced indigenous protection yet, India’s shift from import dependence to a self-reliant defensive posture marks a significant milestone in national security planning.

Read More → Posted on 2025-12-09 16:05:48

 India 

Bharat Electronics Limited (BEL) has developed and demonstrated the first prototypes of the Tactical Communication System (TCS) for the Indian Army at its Bengaluru complex, a milestone in a programme that has been delayed for more than two decades. Senior Army leadership, including the Signal Officer-in-Chief, recently inspected the prototypes and discussed future battlefield communication needs with BEL’s team.  The move brings India closer to fielding a fully indigenous, secure “battlefield internet” that can connect commanders and units from corps level down to the forward-most soldier in real time.   What Is the Tactical Communication System (TCS)? In simple terms, TCS is a secure, mobile, digital communication network for the battlefield. It is designed to: Link corps, division, brigade and battalion headquarters with fighting units in the field Carry voice, data and video over encrypted links Remain survivable under electronic warfare, jamming and physical attack Integrate seamlessly with higher-level strategic networks like ASCON and other tri-service systems TCS replaces the old idea of “just radios” with a full IP-based tactical network – effectively a military 4G/5G-style grid that moves with a formation and keeps working even when nodes are damaged or on the move. According to official and industry descriptions, a TCS set typically includes: high-capacity transmission elements (microwave, optical, troposcatter), a field wireless system based on 4G/LTE, routing and switching equipment, mobile communication shelters on vehicles, network management and strong crypto/security subsystems.  Its core “work” on the battlefield is to ensure every commander and sensor can talk, share data and see the same tactical picture in real time, enabling network-centric operations.   What Has BEL Built Now? Under a Project Sanction Order (PSO) issued by the Indian Army in 2024, two Indian vendors were tasked to design and build TCS prototypes based on state-of-the-art communication technologies.  BEL is one of these development agencies. Over the past year and a half, it has: Developed the first TCS prototype configuration, including communication nodes, radios and network management Integrated the system at its Military Communication Strategic Business Unit in Bengaluru Brought the prototype to a stage where the Signal Officer-in-Chief could inspect its readiness, give feedback and outline future requirements  Once BEL and the second vendor hand over their complete prototypes, the Army will put them through extensive technical evaluations, field trials and user testing in plains and desert sectors. After trials, one solution (or a hybrid) is expected to be selected for large-scale production, with plans to induct at least seven TCS systems for plains/deserts and later seven more for mountains.   Which Systems Is India Still Using Today? While TCS moves into the prototype and trial stage, the Indian Army is still relying on legacy and upgraded systems to meet its tactical communication needs: 1. AREN – Army Radio Engineering Network (legacy tactical backbone) AREN is the current tactical communication network for offensive formations, using radio relay equipment to link brigade HQs with division and corps HQs on the battlefield.  It was designed in the 1980s/90s and became operational decades ago; by the late 1990s it was already flagged as outdated.  TCS is explicitly intended to replace AREN in these roles. 2. ASCON – Army Static Switched Communication Network (strategic/theatre backbone) ASCON is the Army’s static, high-capacity telecom backbone, providing secure voice, data and video between fixed and semi-mobile headquarters. Phase-IV of ASCON is now being implemented, upgrading older ATM-based infrastructure to IP/MPLS using optical fibre, microwave and satellite links, extending high-bandwidth connectivity deep into forward areas. ASCON will remain the rear-area backbone, while TCS will provide the front-line mobile network that plugs into it. 3. CNR – Combat Net Radio and new Software-Defined Radios (SDRs) For company- and platoon-level communication, the Army still uses Combat Net Radios (CNR) as the primary voice network; these have been the backbone of land operations for years.  However, CNRs have limitations in data handling and flexibility, so the Army has started inducting indigenous DRDO-BEL Software Defined Radios (SDRs) under the IRSA architecture to modernise tactical communications, improve encryption and enable data-heavy applications.  In short: ASCON + AREN + CNR/SDR currently keep the Army connected. TCS is meant to replace AREN and tightly integrate with ASCON and SDRs, giving India an end-to-end indigenous tactical info-communication network.   Why the Tactical Communication System Matters The Tactical Communication System (TCS) is increasingly seen as the backbone of a digitised battlefield for the Indian Army. It delivers the high bandwidth needed for live video from UAVs, surveillance sensors, and forward observers, and its IP-based architecture allows seamless integration of evolving battlefield applications and command-and-control systems. Designed for resilience, TCS uses mesh networking, frequency agility, and strong encryption to function even under cyber threats and intense electronic warfare. Developed under the ‘Make in India’ framework, it strengthens strategic autonomy by relying on indigenous technologies. Within the Army’s broader Tactical Info-communication Network, TCS forms the mobile layer that links forward units with the ASCON backbone, working alongside troposcatter systems and software-defined radios (SDRs) to create a unified and secure communication grid.     The Long Road to TCS – and What Comes Next The Army’s Tactical Communication System (TCS) was supposed to be ready around the year 2000, and later expected to finally start moving in 2017, but the project became stuck in bureaucratic delays for many years. It was first planned in the late 1990s as “TCS-2000”, but approvals, repeated tenders, and disagreements between agencies slowed it down. Only in 2016 did the Ministry of Defence take a clearer decision and ask two Indian companies to build prototypes under the Make-II / Make in India programme, with plans for competitive trials later. BEL’s creation of the first prototype is an important step forward. It shows that the technology is now mature enough for the Army to start proper testing. It also means India is getting closer to replacing the old AREN network with a modern, secure battlefield communication system. With TCS, future armoured brigades, integrated battle groups, and mountain strike units will be able to use a real battlefield internet, connecting sensors, drones, artillery, and air-defence systems in real time. Over the next few years, the prototypes will face lab tests, field trials in different terrains, and stress tests against heavy data use and electronic attacks. If everything goes as planned, the first TCS units could enter service later this decade, working with ASCON Phase-IV upgrades and Software-Defined Radios (SDRs) to significantly improve how the Indian Army communicates and fight

Read More → Posted on 2025-12-09 15:14:32

 India 

The Defence Metallurgical Research Laboratory (DMRL) has officially handed over its newly developed ceramic radomes for the Pralay tactical missile, delivering a crucial breakthrough in India’s indigenous missile technology. The radomes protective nose structures that shield missile sensors are engineered to withstand extreme temperatures, intense aerodynamic loads, and rapid thermal changes encountered during high-speed flight.   DMRL scientists developed a niche-grade ceramic material using an innovative process technology that allows the radome to maintain both mechanical strength and electromagnetic transparency, a combination essential for seeker-based guidance systems. The radome enables Pralay’s sensors to function accurately even under severe heating at near-hypersonic speeds.   Pralay, a 150–500 km-range quasi-ballistic missile, has recently completed successful user evaluation trials, demonstrating high accuracy across its full flight envelope. The missile is designed for rapid-response conventional strikes against high-value targets such as airbases, command centres and logistics hubs. Its advanced radome is vital for ensuring that its terminal guidance remains precise during manoeuvring and high-temperature stress.   To support production, DRDO has already transferred the radome manufacturing technology to BHEL for scaling up industrial output. This ensures a steady supply of high-performance radomes for Pralay and future missile systems.   Officials note that the new ceramic radome technology is not limited to Pralay; it is expected to be used in next-generation tactical, anti-ship, air-launched and hypersonic systems, strengthening India’s long-term self-reliance in missile materials.   The handover represents a quiet but decisive milestone: a strategic component once heavily restricted by global export controls is now fully developed, tested, and produced within India, supporting the country’s emerging rocket and missile force.

Read More → Posted on 2025-12-08 14:55:49

 India 

India and Russia’s next-generation hypersonic cruise missile, BrahMos-II, is moving toward a major milestone, with the first flight test planned for 2027–28. Reports indicate that this test will validate the missile’s ability to achieve and sustain Mach 8 cruise, demonstrate high-precision guidance at hypersonic speeds, and test the durability of advanced thermal-resistant materials under extreme conditions. The official BrahMos Aerospace website also confirms that initial groundwork for BrahMos-II has already begun, including material research, propulsion studies, and aerodynamic modelling.   The BrahMos-II marks a significant technological leap beyond the current BrahMos supersonic missile. Engineers describe it as a system built around a dual-stage propulsion architecture, where a solid booster accelerates the missile during launch before an air-breathing scramjet engine propels it into sustained hypersonic flight. Achieving Mach 8 requires a specially designed airframe made from high-temperature carbon–carbon composites, along with heat-ablative protective layers capable of surviving temperatures that can exceed 2,000°C. Its navigation system will feature a new-generation guidance suite, integrating upgraded INS, enhanced satellite navigation, and specialized terminal-phase algorithms capable of functioning despite plasma interference created at high speeds.   Strategically, the BrahMos-II is expected to deliver a powerful deep-strike capability, with an anticipated range between 1,000 km and 1,500 km, though official numbers remain undisclosed. It is being designed for multi-platform deployment, including land-based launchers, surface warships, submarine vertical tubes, and potentially future air-launch platforms. With its extreme speed and variable flight path, the missile could reduce an adversary’s reaction time to just a few seconds, making it an exceptionally difficult weapon to intercept and significantly enhancing India’s deterrence posture.   Momentum behind the programme has grown in recent years. India and Russia have revived detailed technical discussions since 2024, conducting joint design reviews, scramjet component tests, and extensive thermal simulations. This renewed push reflects India’s determination to join the small group of countries working toward operational hypersonic weapons, at a time when global hypersonic competition is accelerating, with the United States, China, and Russia all fielding or developing advanced systems.   The planned 2027–28 flight test will be the project’s first real-world validation of the missile’s performance, combining its scramjet propulsion, airframe, thermal shielding, and guidance systems in full atmospheric conditions. Success in this test will lead to additional developmental flights, expanded-range trials, and platform-specific integration. Full operational entry is expected only after several years of refinement, likely in the early 2030s.   For now, BrahMos-II stands as one of India’s most ambitious and strategically important defence programmes — a weapon designed to reshape India’s long-range strike capabilities and strengthen its position in the global hypersonic arena.

Read More → Posted on 2025-12-07 16:10:33