India 

India has carried out a reported user trial of the K-4 submarine-launched ballistic missile (SLBM) variant from its nuclear-powered ballistic missile submarine (SSBN) INS Arihant in the Bay of Bengal on December 23, in what would mark another step toward deepening the sea leg of its nuclear triad. The reported launch, circulating widely across open-source defence watchers and social media accounts, described a test to a range of roughly 3,500 km, consistent with known parameters of the K-4 system. India’s Ministry of Defence has not issued a fresh, detailed public statement on the December 23 event as of Wednesday morning (IST). In recent years, official readouts on SSBN-related “user training” launches have tended to be brief, with operational details such as exact range, flight profile, and submarine location kept tightly held.   Why the K-4 Matters to India’s Nuclear Triad The K-4 is an intermediate-range SLBM developed by the Defence Research and Development Organisation (DRDO) for deployment on Arihant-class SSBNs. With a commonly reported maximum reach of about 3,500 km, K-4 significantly extends India’s sea-based strike envelope compared with the shorter-range K-15 (Sagarika), and is central to strengthening a survivable, retaliatory second-strike posture from beneath the ocean surface. India’s nuclear triad—air-delivered weapons, land-based ballistic missiles, and sea-based missiles—is designed to ensure that a credible retaliatory capability remains available even if one leg is degraded. Official Indian statements in prior SLBM launches have explicitly linked SSBN operations to a “robust, survivable and assured retaliatory capability,” aligning with India’s declared doctrine of credible minimum deterrence and its “No First Use” posture.   The Platform: INS Arihant and the Bay of Bengal Test Corridor INS Arihant is India’s lead Arihant-class SSBN, built under the Advanced Technology Vessel (ATV) programme at Visakhapatnam. Open sources describe the class as carrying four vertical launch tubes, configurable for either multiple K-15 missiles or fewer, larger K-4 missiles—an arrangement that reflects the trade-off between payload count and strike range. The Bay of Bengal has long served as India’s primary strategic missile test corridor, with prior K-4 developmental launches—many conducted from submerged pontoons before operational submarine trials—also associated with the eastern seaboard test architecture.   What Is Known About the K-4 System Open technical descriptions characterize K-4 as a two-stage, solid-fuel SLBM, designed for cold launch from underwater before ignition and flight on a ballistic trajectory. While specific figures are often treated as sensitive, widely cited open sources place its length at around 12 metres and its weight near 17 tonnes, with modern guidance packages intended to improve accuracy. The missile’s range class around 3,500 km is the most strategically consequential detail, because it allows patrol areas to be chosen for survivability while still holding distant targets at risk, reducing the pressure to move SSBNs closer to adversary shorelines.   The Broader SSBN Push: More Boats, More Patrol Options The reported December 23 launch comes amid signals that India is preparing to expand its SSBN force structure. In early December, Indian media reports quoted the Navy Chief as saying a third SSBN, identified as INS Aridhaman, is expected to be commissioned “soon” or early next year—an addition that would increase patrol availability and deepen the credibility of continuous at-sea deterrence. India commissioned its second Arihant-class SSBN, INS Arighaat, in August 2024, with official messaging at the time explicitly framing the platform as a reinforcement of the nuclear triad and deterrence posture.   Regional Signalling and Indian Ocean Scrutiny Strategic analysts have warned that undersea deterrence operations are increasingly visible to rival powers through maritime surveillance, and that missile tests can become focal points for monitoring activity in the Indian Ocean. In a December 19 commentary, Chatham House flagged escalation risks around a possible K-4-related test dynamic in the region, underscoring how deterrence moves are now closely watched by multiple nuclear-armed states. Separately, open-source reporting in mid-December pointed to airspace and sea warnings consistent with a long-range test window over the Bay of Bengal—often a precursor pattern for Indian missile trials—though such notices do not, by themselves, confirm which system is being tested.   What to Watch Next If the December 23 event is formally acknowledged, attention will likely focus on whether it was a routine “user training” launch, a validation of a specific K-4 configuration, or part of a broader sequence intended to support higher SSBN readiness as additional boats join the fleet. For India’s deterrent posture, the key takeaway is the same: regularized SLBM operations from operational submarines are the clearest signal that the sea-based leg of the triad is moving from milestone launches toward repeatable, doctrine-aligned capability.

Read More → Posted on 2025-12-24 04:30:08

 India 

On 23 December 2025, India’s Next-Generation Akash Air-Defence Missile System (Akash-NG) has successfully completed User Evaluation Trials (UET), with the Defence Research and Development Organisation (DRDO) confirming that the system met All Preliminary Staff Qualitative Requirements (PSQR). According to the Ministry of Defence, the missile demonstrated successful interceptions across demanding operational profiles, including Near-Boundary, Low-Altitude engagements and Long-Range, High-Altitude scenarios—conditions designed to replicate real-world threat environments faced by India’s air defenders.   Trials Validate Full Weapon System Under Service Conditions Officials said the User Evaluation Trials validated the Integrated Performance of all critical system elements, including the Missile Rounds, Multi-Function Radar (MFR), Command-And-Control Unit, and the Mobile Launcher System. The trials were conducted under Service-Representative Conditions, with senior Indian Air Force (IAF) personnel and DRDO Scientists present, signalling that the system has moved beyond developmental testing into an Operational Readiness Phase. The Defence Minister congratulated DRDO, the IAF and industry partners, stating that the State-Of-The-Art Akash-NG System will significantly enhance India’s Air Defence Capability. DRDO leadership described the successful completion of UET as a Major Milestone that clears the path for Induction Into Service.   What Akash-NG Is Designed To Do Akash-NG (New Generation) is designed as the successor to the existing Akash Missile Defence System, addressing evolving aerial threats such as Fighter Aircraft, Cruise Missiles, Unmanned Aerial Vehicles (UAVs) and Stand-Off Weapons. The system is equipped with an Indigenous Active Radio-Frequency (RF) Seeker and is propelled by a Solid Rocket Motor, enabling it to engage targets with greater precision, speed and autonomy. A key technological shift is the move away from the older Ramjet-Based Propulsion of the legacy Akash missile to a Dual-Pulse Solid Rocket Motor, resulting in a Lighter Missile, faster reaction time and improved Operational Mobility.   Akash-NG Missile And System Specifications Based on officially released information and open-source programme details, Akash-NG incorporates several next-generation features: The missile uses an Active RF Seeker for terminal guidance, enabling Fire-And-Forget-Like Capability in the end game. It is powered by a Dual-Pulse Solid Rocket Motor, optimised for long-range engagements. The system is supported by a modern AESA-Based Multi-Function Radar, integrated with an Electro-Optical Tracking System (EOTS) for passive detection and tracking. In terms of performance, Akash-NG is widely reported to have an Intercept Range Of Approximately 70–80 Kilometres, a substantial increase over the 25–30 Kilometre Range of the original Akash system. Radar coverage extends up to 120 Kilometres, with Fire Control Range Of Around 80 Kilometres and the ability to Simultaneously Engage Multiple Targets. The EOTS provides an additional tracking capability up to 45 Kilometres, enhancing survivability in electronic warfare environments.   Why Akash-NG Is Better Than The Akash Missile Defence System The improvement offered by Akash-NG lies in a comprehensive upgrade across range, guidance, mobility and survivability. The most visible enhancement is Extended Engagement Range, which nearly triples the defended airspace compared to the legacy Akash system. This allows air-defence commanders more Reaction Time and greater Battlespace Depth. Another major leap is Terminal Guidance Autonomy. While the older Akash relies heavily on Command Guidance, Akash-NG’s Active RF Seeker enables independent target acquisition in the final phase, improving performance against Manoeuvring Targets, Low-RCS Threats, and Saturation Attacks. Operationally, Akash-NG features a Reduced Ground Footprint, improved Mobility, and Canisterised Launch Configuration, making it faster to deploy and harder to detect or neutralise. The upgraded Sensor Fusion Architecture, combining radar and electro-optical inputs, significantly enhances effectiveness in High-Threat And Electronic Warfare Conditions.   Akash-NG Programme Timeline: From Approval To User Trials The Akash-NG Programme has progressed steadily over nearly a decade. The project received formal approval in September 2016, marking the beginning of development for a lighter, longer-range successor to the original Akash missile. Initial design and subsystem development continued through the late 2010s. Flight testing began in earnest from 2021, with multiple developmental and integrated trials validating propulsion, guidance and system-level performance. A major milestone was achieved on January 12, 2024, when DRDO successfully conducted a Full Weapon System Flight Test against a High-Speed Unmanned Target At Very Low Altitude, validating the Indigenous RF Seeker, Launcher, Radar, and Command-And-Control Network. Further testing in 2025 included trials using the Electro-Optical Tracking System, demonstrating multi-sensor engagement capability. The programme culminated on December 23, 2025, with the successful completion of User Evaluation Trials, confirming compliance with All PSQR Parameters across diverse engagement scenarios.   What Comes Next With User Evaluation Trials Successfully Completed, Akash-NG is now positioned for Operational Induction into the Indian Air Force. The system is expected to become a key component of India’s Layered Air Defence Architecture, complementing existing Akash variants and other air-defence assets. The successful trials mark a significant step in India’s push for Indigenous Defence Capability, reinforcing DRDO’s role in delivering advanced, mission-ready systems for the armed forces.

Read More → Posted on 2025-12-24 04:16:04

 India 

In a move that underscores the deepening India–Israel defence-industrial cooperation, Belrise Industries has entered into a strategic partnership with Plasan Sasa to jointly pursue opportunities in advanced military mobility and survivability systems, with a central focus on Plasan’s ATEMM (All-Terrain Electric Mission Module) platform. The three-year agreement was executed on December 18 and disclosed by Belrise in a stock-exchange filing dated December 22. The pact provides for joint bidding on Indian defence and paramilitary programmes, localisation of technology, and the integration of Belrise into Plasan’s global supply chain. The partnership aligns with New Delhi’s push for indigenous defence manufacturing under the Make in India and Atmanirbhar Bharat initiatives, while offering Plasan a stronger and more scalable industrial footprint in India.   ATEMM At The Centre Of The Collaboration At the heart of the agreement is ATEMM, a self-propelled, modular electric mission platform designed to enhance mobility, payload capacity and power availability for modern armed forces. Unlike conventional unpowered trailers, ATEMM incorporates its own electric drivetrain and onboard energy storage, allowing it to actively augment vehicle performance rather than degrade it. When attached to a standard 4×4 tactical vehicle through a patented three-point interface, ATEMM converts the host into a synchronised 6×6 configuration, while a tandem version enables an 8×8-class layout. According to Plasan, the system can add up to one tonne of additional payload in the single-module configuration while preserving off-road mobility. The platform is powered by an electric traction motor rated at approximately 200 kW, delivering high torque at the axle to support operations across difficult terrain. A high-voltage battery pack, quoted at around 47 kWh in current configurations, supports both propulsion and exportable mission power.   Silent Operations And Autonomous Capability A key operational advantage of ATEMM lies in its support for low-signature and “silent watch” missions. Operating purely in electric mode, the platform significantly reduces acoustic and thermal signatures, a capability increasingly valued in border security, surveillance and special operations. When detached from a lead vehicle, ATEMM—particularly in its tandem ATEMM-T configuration—can function as a remotely operated or autonomous unmanned ground platform. This allows it to undertake high-risk tasks such as forward resupply, casualty evacuation, route support, or intelligence, surveillance and reconnaissance (ISR) missions without exposing personnel to direct danger. The system is also designed to operate as a mobile power hub, providing off-board vehicle power for charging soldier-worn systems, communications equipment, sensors, drones and medical devices in austere or remote environments.   Localisation And Industrial Roadmap For Belrise, the agreement represents a significant step in expanding from automotive systems into defence-grade mobility and power solutions. With 20 manufacturing facilities across India, the company is expected to play a central role in localisation, subsystem manufacturing, and eventual systems integration of ATEMM variants adapted to Indian operating conditions, ranging from deserts to high-altitude regions. For Plasan, the partnership provides a pathway to scale its presence in India while leveraging Indian manufacturing capabilities for selected global requirements. Company officials indicated that Belrise is expected to become part of Plasan’s international supply chain, supporting both domestic Indian programmes and overseas customers.   Market Response And Outlook The announcement was positively received by financial markets, with Belrise shares recording a sharp rise following disclosure of the agreement, reflecting investor expectations of higher-value defence and aerospace work over the medium term. While specific timelines for trials or induction have not been made public, defence industry sources suggest that adaptation and evaluation activities could begin once user requirements are formalised by the Indian armed forces. As the Ministry of Defence increasingly signals interest in electric, hybrid and autonomous ground systems to reduce logistical burdens and improve battlefield endurance, the Belrise–Plasan partnership positions ATEMM as a serious contender in a rapidly evolving segment of military mobility.

Read More → Posted on 2025-12-23 13:33:23

 India 

In a significant stride for indigenous defence manufacturing, Garden Reach Shipbuilders and Engineers (GRSE) Ltd delivered the INS Anjadip, the third of eight Anti-Submarine Warfare Shallow Water Crafts (ASW SWCs), to the Indian Navy on Monday at Chennai Port Trust, officials confirmed. This marks the fifth warship handed over by the Kolkata-based shipyard in 2025, underscoring GRSE’s deepening role in strengthening India’s maritime capabilities. The vessel was formally accepted by Rear Admiral Gautam Marwaha, VSM, Chief Staff Officer (Technical), Eastern Naval Command, on behalf of the Navy. INS Anjadip is the 115th warship constructed by GRSE and the 77th delivered to the Indian Navy.   A New Asset in Coastal Defence INS Anjadip has been indigenously designed and constructed under the Make in India initiative as part of the ASW SWC programme, jointly executed by GRSE and L&T Shipyard, Kattupalli under a public-private partnership. These vessels are built to the Indian Register of Shipping (IRS) classification standards and tailored for shallow-water anti-submarine operations. Spanning approximately 77 metres in length, INS Anjadip is among the largest waterjet-propelled warships in the Indian Navy’s inventory. Powered by three waterjets driven by marine diesel engines, the craft achieves speeds in excess of 25 knots while requiring a shallow draught of 2.7 metres, enabling agile manoeuvrability in littoral zones. Designed to operate with a complement of 57 personnel including seven officers, the vessel is equipped with an advanced suite of sensors and weapons tailored for sub-surface detection and engagement. Key features include: Sophisticated sonar systems, including hull-mounted and low-frequency variable depth sonar for enhanced underwater surveillance and target detection. Combat Management System and integrated platform management suites to ensure coordinated responses across surveillance, navigation, and weapons operations. Anti-submarine armaments such as lightweight torpedo launchers, RBU-6000 anti-submarine rocket launcher, and anti-submarine mining capability. Indigenous 30 mm Naval Surface Gun and stabilized remote-controlled 12.7 mm guns for surface and aerial defence. These capabilities enable the ASW SWC class to undertake comprehensive sub-surface surveillance, search and attack missions, coordinated operations with naval aircraft, and mine-laying missions in coastal waters.   Self-Reliance in Defence Manufacturing INS Anjadip epitomizes India’s growing defence self-sufficiency, featuring nearly 88 percent indigenous content, including weapons and key subsystems manufactured domestically. Like its predecessors – INS Arnala and INS Androth – the vessel reinforces the government’s Aatmanirbhar Bharat vision for home-grown defence solutions. Earlier in 2025, GRSE delivered four other major warships, including the Advanced Guided Missile Frigate INS Himgiri, ASW SWCs Arnala and Androth, and the Survey Vessel (Large) INS Ikshak — all of which have since been commissioned into service, marking a rare achievement for any shipyard in the country.   Strategic Significance and Future Outlook The ASW SWC programme was initiated under contracts signed in April 2019, when the Ministry of Defence awarded GRSE and Cochin Shipyard Limited (CSL) separate orders to build eight vessels each, aimed at replacing ageing Abhay-class corvettes and enhancing the Navy’s littoral anti-submarine warfare capability. GRSE’s portion of the project, designated the Arnala class, is progressing steadily, with subsequent hulls already launched or under construction. Concurrently, CSL is delivering its Mahe class counterparts, broadening naval capacity across India’s coastal theatres. With three waterjets, advanced sonar, weapons suites, and high manoeuvrability, the ASW SWCs like INS Anjadip are set to play a pivotal role in safeguarding India’s maritime frontiers against evolving undersea threats, strengthening coastal defence, and contributing to regional maritime security

Read More → Posted on 2025-12-22 16:52:34

 India 

Indian private defence manufacturer SSS Defence has achieved a key milestone with its G72s submachine gun (SMG) securing an initial operational order of 500 units from the National Security Guard (NSG). The induction marks the first major institutional endorsement for the G72s and positions the weapon for heightened international exposure through the NSG’s extensive engagement with foreign special forces (SF) and counter-terrorism (CT) units.   The NSG, tasked with India’s most sensitive counter-terrorism operations, is among the most closely watched users of small arms in the country. Its procurement decisions carry weight because the force regularly conducts joint training exercises with elite units from the United States, Europe, and other partner nations. Weapons fielded by the NSG are often informally evaluated during these interactions, making the G72s’ entry into service a potentially significant showcase opportunity for Indian defence manufacturing.   From a technical standpoint, the G72s distinguishes itself through a roller-delayed blowback operating system, a mechanism widely regarded as battle-proven. This design is most famously associated with the Heckler & Koch MP5, long considered a global benchmark in the SMG category. Roller-delayed systems are valued for their smooth recoil impulse, enhanced controllability, and reduced mechanical stress, qualities that are critical in close-quarters battle (CQB) environments.   While the G72s has yet to be seen extensively in public operational footage, its underlying mechanical philosophy is well understood within the global small-arms community. Compared to simple blowback designs, roller-delayed mechanisms help manage chamber pressure more efficiently, reducing muzzle rise and improving shot-to-shot stability. These characteristics are particularly relevant for CT units that rely on rapid, accurate fire in confined spaces.   The induction of the G72s also coincides with a broader debate around modern SMG design philosophies. The United States Army recently adopted the B&T APC9, a gas-operated, rotating-bolt platform. While technologically advanced, such systems are often seen as mechanically complex and maintenance-intensive. In contrast, the G72s reflects a simpler, proven approach, appealing to users who prioritise reliability, ease of maintenance, and predictable handling over newer but more intricate operating systems.   Beyond engineering, the visual design of the G72s has also attracted attention. Its modern, aggressive styling contributes to operator confidence, an often overlooked but important factor in elite units where familiarity and trust in a weapon system can influence performance under stress.   For SSS Defence, the NSG order represents more than a domestic contract. It signals growing confidence in Indian private-sector small-arms development and places the G72s on a path where its performance will be observed by foreign SF and CT units during multinational engagements. If the weapon meets operational expectations, the G72s SMG could emerge as one of the most visible examples of an indigenous Indian firearm gaining traction beyond national borders.

Read More → Posted on 2025-12-22 15:56:21

 India 

Zulu Defence Systems’ electrically powered Hoverbee kamikaze micro-drones have entered operational service with the Marine Commandos (MARCOS) of the Indian Navy, according to defence industry sources familiar with recent inductions. The development marks a significant step in the Navy’s effort to equip its special forces with indigenous, low-signature unmanned systems optimised for precision strikes and close-quarters missions. The Hoverbee is designed as a highly portable, vertical take-off and landing (VTOL) micro-drone that can be carried and operated by a single commando. Its electric propulsion and compact airframe are intended to keep both acoustic and visual signatures extremely low, a critical requirement for covert maritime and littoral operations typically undertaken by MARCOS. Sources indicate the system has been cleared for operational use following evaluation cycles focused on urban, ship-borne, and coastal mission profiles.   A Drone Built For Surgical Missions Zulu Defence Systems has positioned the Hoverbee as a platform for rapid, surgical engagements where speed, stealth, and precision matter more than range or payload size. For MARCOS teams, this translates into the ability to deploy a drone within seconds, manoeuvre it inside confined spaces such as ship compartments or coastal structures, and engage targets without exposing operators to direct fire. The Hoverbee’s modular design allows it to function either as a reconnaissance asset or as a loitering munition. In its strike configuration, the drone carries a small explosive payload and is intended for one-way missions against personnel or lightly protected targets. The emphasis, according to officials familiar with the system, is on controlled effects and target discrimination, rather than area damage.   Reported Specifications And Capabilities Available open-source and industry information suggest the Hoverbee is a sub-one-kilogram micro-UAS with a foldable frame that fits into a compact backpack. In its ISR (intelligence, surveillance and reconnaissance) configuration, it is equipped with an electro-optical (EO) camera capable of transmitting live video to a handheld controller, with an optional thermal imaging payload for night and low-visibility operations. The system is reported to have an operational control range of up to 2 km, depending on terrain and electromagnetic conditions. Endurance figures cited by industry material indicate 30–45 minutes of flight time in surveillance mode, while the kamikaze variant trades endurance for payload. In its strike role, the Hoverbee is reported to carry an explosive charge in the 400-gram class, with multiple detonation modes including operator command, impact, or proximity-based triggering. Onboard navigation, stabilised flight, and obstacle-avoidance features are designed to support operations in cluttered environments, including indoors. The electric propulsion system enables near-silent flight at short ranges, a characteristic highlighted as one of the platform’s most important advantages for special operations forces conducting raids, counter-terror actions, or ship-clearing missions.   Indigenous Push And Operational Relevance The reported induction of the Hoverbee with MARCOS aligns with a broader indigenous defence manufacturing push, as the Indian armed forces accelerate the adoption of small unmanned systems developed by domestic firms. Recent conflicts worldwide have demonstrated the tactical value of loitering munitions and micro-drones, particularly in urban warfare and special operations. For the Indian Navy, such systems are especially relevant for ship-boarding operations, counter-piracy missions, and coastal counter-terror roles, where the ability to neutralise threats inside tight, enclosed spaces without heavy weapons provides a clear tactical advantage.   Details Yet To Be Disclosed Neither the Indian Navy nor Zulu Defence Systems has publicly released details on order quantities, delivery timelines, or the exact variant fielded by MARCOS. Information related to electronic counter-countermeasures, secure data links, and rules of engagement for the kamikaze configuration also remains undisclosed. Even so, defence analysts note that the reported entry of the Hoverbee kamikaze drone into service reflects growing confidence in home-grown micro-UAS solutions. If formally confirmed, the system would rank among the smallest loitering munitions currently believed to be in operational use with Indian special forces, underlining a shift toward discreet, high-precision tools for modern maritime and littoral combat environments.

Read More → Posted on 2025-12-21 16:34:47

 India 

The Indian Air Force has initiated an urgent, indigenous programme to reduce the radar and thermal signatures of its S-400 Triumf long-range air-defence batteries, responding to the growing threat posed by foreign synthetic-aperture-radar (SAR) satellites and multi-sensor space surveillance. According to defence-industry reporting and officials familiar with the effort, the programme is aimed at making the S-400, one of India’s most strategically valuable air-defence assets, significantly harder to detect, track and classify from orbit. The initiative blends new materials, deployable structures, and revised operational practices, with first induction planned for mid-2027 and a fleet-wide rollout by 2030.   Why Space-Based Radar Has Changed the Equation Modern SAR satellites can image targets day and night, through cloud cover, and revisit the same locations at short intervals. For ground-based air-defence systems, this persistence allows adversaries to build a high-confidence targeting picture, identifying vehicle layouts, radar masts, power units, and even routine movement patterns. The challenge is compounded by thermal sensors, which can highlight heat emissions from generators, radar electronics and missile support vehicles. Indian planners assess that in a high-intensity conflict, advanced air-defence systems are likely to be identified first from space, then tracked over time, and finally engaged with long-range precision weapons.   Inside the Indigenous “Stealth Kit” At the heart of the programme is an indigenous “stealth kit” tailored for ground-based air-defence assets. The package reportedly includes radar-absorbent coatings applied to critical vehicle surfaces and radar structures, alongside deployable metamaterial screens that can be erected around high-value components when a battery is operational. These metamaterial screens are not designed to render the system invisible, but to distort and weaken radar returns, complicating SAR-based identification and reducing confidence in target classification. In parallel, engineers are working on thermal-signature suppression, using improved heat management, insulation, and masking of prominent heat sources. Indian defence laboratories and academic institutions have invested in metamaterials and multispectral camouflage research for several years, and officials say the S-400 effort leverages this domestic technology base, reinforcing the push for self-reliance.   Decoys and Rapid Mobility Technology alone is only one pillar of the effort. The IAF is also refining operational doctrines centred on rapid mobility, frequent relocation, and deception. Decoy launchers, false emitters, and thermal decoys are expected to be deployed alongside real batteries, creating multiple plausible targets for adversary sensors. By combining reduced signatures, deception, and high mobility, planners aim to disrupt pattern-of-life analysis and compress an adversary’s “find-fix-finish” timeline, increasing the survivability of the S-400 network during the most critical phases of conflict.   Timelines and Broader Context Sources indicate that the first operational S-400 unit equipped with the full indigenous signature-reduction package is expected by mid-2027, followed by a phased rollout across all regiments by 2030. The schedule aligns with India’s broader air-defence modernisation roadmap, including the development of indigenous long-range air-defence systems later in the decade. Officials suggest that lessons learned from the S-400 stealth initiative will directly inform the design philosophy and deployment concepts of future Indian systems.   Strategic Significance India’s S-400 batteries form a critical layer of national air defence, safeguarding key regions and strategic assets. Enhancing their survivability against space-based surveillance marks a shift in thinking—from traditional camouflage to active signature management as a continuous operational requirement. If implemented as planned, the programme would place India among a small group of countries actively adapting ground-based air-defence systems to an era of persistent satellite observation. For the Indian Air Force, the message is clear: in modern warfare, survivability on the ground increasingly depends on remaining unseen from space.

Read More → Posted on 2025-12-21 16:02:47

 India 

Russia has floated a stopgap proposal to supply the Indian Navy with three upgraded Kilo-class diesel-electric submarines, aiming to bridge a widening submarine capability gap as ageing platforms retire faster than replacements can be inducted. According to defence and naval-industry sources, the offer envisages the transfer of three refurbished Kilo-class boats for a package price reported to be under $1 billion. Each submarine would undergo a comprehensive mid-life refit, extending its operational life by around 20 years, and would be equipped to fire torpedo-launched Kalibr cruise missiles, providing a reported strike range of up to 1,500 kilometres. The proposal comes at a critical juncture, with the Indian Navy facing mounting pressure from delayed indigenous inductions, slow procurement cycles and the impending retirement of older submarines—factors that could trigger a sharp capability dip by the early 2030s.   Acute submarine shortage driving interim solutions India’s conventional submarine arm has been under sustained strain. Several legacy submarines are nearing the end of their service lives, while replacement programmes have progressed unevenly. The induction of Scorpene-class (Kalvari-class) submarines has improved fleet strength, but not at a pace sufficient to offset retirements. Meanwhile, the long-pending Project-75(I) programme for next-generation submarines with air-independent propulsion (AIP) remains stalled. Naval planners have repeatedly warned that, without interim inductions or life-extension measures, the Navy risks losing critical capabilities in undersea surveillance, sea denial and deterrence operations, particularly in the increasingly contested Indian Ocean Region.   Details of the Russian proposal The Kilo-class submarines, known in Russian service as Project 877 and the improved Project 636 variants, are among the quietest diesel-electric submarines of their generation and have been widely exported. India’s long experience with the platform is seen as a key factor behind Moscow’s outreach. Under the reported proposal, each submarine would receive: Major hull and systems refit for a 20-year life extension Upgraded sonar, navigation and combat management systems Overhauled propulsion and power-generation systems, including new batteries Integration of Kalibr cruise missiles, launched from 533-mm torpedo tubes The inclusion of Kalibr missiles would significantly enhance the boats’ strike and deterrence capability, allowing land-attack and anti-ship missions well beyond traditional torpedo ranges.   Upgraded Kilo-class submarine: Key specifications While final specifications would depend on contract terms, upgraded Kilo-class submarines are typically assessed to feature: Type: Diesel-electric attack submarine Displacement: 2,300–3,000 tonnes (surfaced), 3,000–4,000 tonnes (submerged) Length: 72–74 metres Beam: ~9.9 metres Speed: 10–12 knots (surfaced), up to 20 knots (submerged) Endurance: Weeks-long patrol endurance, with several thousand nautical miles range Crew: 50–60 personnel Armament: Six 533-mm torpedo tubes Heavyweight torpedoes and naval mines Kalibr (Club) submarine-launched cruise missiles Sensors: Hull-mounted sonar, electronic support measures and modern fire-control systems   Strategic implications for the Indian Navy Acceptance of the Russian offer would allow India to arrest the near-term decline in submarine numbers and maintain operational continuity while indigenous programmes mature. The addition of submarine-launched cruise missiles would also strengthen conventional deterrence and provide greater flexibility in maritime strike operations. However, defence analysts caution that even upgraded Kilo-class boats remain conventionally powered, lacking the endurance of nuclear-powered submarines or newer AIP-equipped designs. As a result, they are best viewed as a short-to-medium-term solution, rather than a substitute for long-term fleet modernisation.   Decision still pending There has been no official confirmation from the Ministry of Defence or the Indian Navy on whether the proposal is under active consideration. Any acceptance would require government-to-government negotiations, detailed cost-benefit analysis, and alignment with India’s broader goal of building an indigenous and technologically advanced submarine force. For now, Russia’s offer underscores the urgency of India’s undersea challenge—and the difficult trade-offs New Delhi faces between immediate operational needs and its long-term naval modernisation strategy.

Read More → Posted on 2025-12-17 16:09:07

 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