Thursday, October 22, 2026

Indian Navy Tests Rafale Marine In Goa As Carrier Tweaks Planned For Fleet Integration


The Indian Navy is carrying out a fresh series of trials involving the Rafale Marine fighter aircraft at its Shore-Based Test Facility in Goa as it prepares for the induction of the French-built naval combat jet into frontline carrier operations, New Indian Express reported.

The ongoing evaluation is also helping the service determine whether limited modifications may be required aboard its aircraft carriers to support the aircraft's routine deployment and handling.

According to sources within the defence establishment, the potential changes are largely linked to the Rafale Marine's wing configuration. Unlike the MiG-29K currently operated by the Navy, the Rafale Marine does not feature folding wings, resulting in a larger footprint when parked, moved or stored aboard a carrier.

The fighter has a wingspan of approximately 10.9 metres, which means carrier crews must assess how efficiently the aircraft can be accommodated within hangars, lifts and flight-deck operating areas while maintaining sortie-generation rates during operational deployments.

Officials indicated that any required alterations to INS Vikramaditya or the indigenously built INS Vikrant would be minor in nature. Considerations relating to aircraft compatibility, handling arrangements and onboard infrastructure were reportedly discussed during the contract negotiations with France.

A key focus of the ongoing effort is ensuring the aircraft can be moved smoothly between the flight deck and the carrier hangar, where available space is inherently limited. Naval planners are reviewing these practical aspects while trials continue.

The testing campaign is taking place at the Shore-Based Test Facility at INS Hansa in Goa. The installation replicates the ski-jump launch system used by Indian aircraft carriers and allows the Navy to evaluate aircraft performance, deck procedures and operational concepts in a controlled shore environment before deployment at sea.

This is not the first time the Rafale Marine has operated from the facility. The aircraft previously conducted ski-jump trials there in 2022 when it competed against Boeing's F/A-18 Super Hornet during the Navy's search for a next-generation carrier-borne fighter.

The Rafale Marine was originally developed for operations from France's aircraft carrier Charles de Gaulle, which employs a catapult-assisted launch system. By contrast, both Indian aircraft carriers utilise the Short Take-Off But Arrested Recovery configuration, in which aircraft take off via a ski-jump ramp and recover using arrestor wires. Validating compatibility with this operating method has therefore been an important requirement throughout the procurement process.

India has contracted 26 Rafale Marine fighters, with the aircraft expected to become a major component of carrier aviation, particularly aboard INS Vikrant. Deliveries are expected to begin from 2028, with completion anticipated by the end of 2028 or in the early part of 2029.

The acquisition is intended to strengthen India's carrier-borne air power while addressing long-standing concerns regarding the ageing MiG-29K fleet. The Rafale Marine will perform a wide spectrum of missions, including air-defence, maritime strike, reconnaissance and attacks against surface targets.

The government finalised the acquisition through an inter-governmental agreement with France valued at approximately ₹63,000 crore. The package includes 22 single-seat carrier fighters and four twin-seat trainer variants, together with weapons, simulators, training infrastructure, logistics assistance and long-term support arrangements.

The agreement represents India's first purchase of the naval variant of the Rafale and makes the country the first export operator of the aircraft. In addition to the fighters themselves, the arrangement includes provisions supporting the integration of indigenous weapon systems under the government's self-reliance initiative.

The Indian Navy currently operates two aircraft carriers, INS Vikrant and INS Vikramaditya. Once inducted, the Rafale Marine fleet is expected to be capable of operating from both vessels, significantly enhancing the Navy's ability to project air power across the Indian Ocean region and beyond.

The aircraft is equipped with the Thales RBE2 Active Electronically Scanned Array radar and the advanced SPECTRA electronic-warfare suite, providing improved situational awareness, survivability and combat effectiveness in contested environments.

Its weapons inventory includes the Meteor beyond-visual-range air-to-air missile, MICA air-to-air missiles and a range of precision-guided air-to-surface munitions. These systems will give the Navy a substantial increase in long-range engagement capability and maritime strike effectiveness.

An important feature of the agreement is the planned integration of India's indigenous Astra beyond-visual-range air-to-air missile. The integration will proceed following the completion of the necessary testing, validation and certification processes, further enhancing the aircraft's compatibility with domestically developed weapon systems.

With the Goa trials now under way, the Navy is simultaneously validating carrier-operating procedures and examining any infrastructure adjustments required for seamless deployment, paving the way for the arrival of the Rafale Marine fleet later this decade and the modernisation of India's carrier aviation capability.

Agencies


India-Germany $8 Billion Submarine Program Nears Launch As MDL And TKMS Move Towards Final Partnership Framework


India’s ambitious effort to strengthen the Indian Navy’s underwater combat capability has moved a step closer to execution, with Germany’s ThyssenKrupp Marine Systems (TKMS) and Mazagon Dock Shipbuilders Limited (MDL) making significant progress towards finalising the commercial terms of their partnership for Project-75 (India).

The program, valued at approximately $8 billion, centres on the construction of six advanced conventional submarines in India for the Indian Navy. The project is regarded as one of the most important naval modernisation initiatives currently underway and is expected to play a major role in addressing the Navy’s growing submarine shortfall.

Recent discussions between the two companies have focused on establishing the commercial and industrial framework that will govern the partnership. The negotiations mark an important milestone as both sides move closer to transforming years of planning into a large-scale manufacturing and technology-transfer venture.

On 15 October, MDL hosted a high-level delegation from TKMS led by Dr Michael Goetz. The delegation met MDL Chairman and Managing Director Capt Jagmohan in Mumbai to advance discussions related to the Project-75 (India) submarine initiative.

According to MDL, the talks concentrated on shaping the commercial partnership structure required for the successful execution of the submarine program. The discussions reportedly resulted in constructive progress and reinforced the long-term strategic relationship between the two shipbuilders.

Both companies reiterated their commitment to combining German submarine-design expertise with Indian shipbuilding capabilities. The partnership is expected to deepen industrial cooperation while supporting a strategically significant requirement of the Indian Navy.

A major objective of the project is the construction of all six submarines in India with substantial indigenous content. The program aligns closely with India’s broader push towards greater self-reliance in defence manufacturing and the expansion of domestic naval industrial capacity.

The foundation for the collaboration was established in June 2025 when TKMS and MDL signed a memorandum of understanding covering the joint development and construction of six stealth submarines for the Indian Navy.

The proposed vessels are based on Germany’s Type 214 submarine design, one of the world’s most recognised conventional submarine platforms. These submarines are expected to incorporate air-independent propulsion (AIP) technology, a capability considered essential for enhancing underwater endurance and survivability.

AIP technology enables conventional submarines to remain submerged for significantly longer periods without surfacing or snorkelling to recharge batteries. The Indian Navy had specifically sought a proven operational AIP solution capable of allowing submarines to stay underwater for as long as six days, thereby increasing stealth and reducing detectability.

Under the partnership arrangement, TKMS will provide design expertise, engineering support and technical consultancy throughout the project. MDL, meanwhile, will undertake construction activities and ultimately deliver the submarines to the Indian Navy.

The agreement also builds upon a long-standing Indo-German submarine relationship that dates back several decades. During the late 1980s, India acquired four submarines from Germany’s Howaldtswerke-Deutsche Werft (HDW).

Two of those submarines were built at MDL in 1992 and 1994, while the remaining two were constructed in Germany. Over time, HDW became part of TKMS, creating a historical link between the German company and India’s submarine-building ecosystem.

The progress in Project-75 (India) comes at a critical time for the Indian Navy. India currently operates 16 conventional submarines, but 10 of these platforms are more than three decades old, placing pressure on fleet availability and operational readiness.

Despite rising maritime challenges across the Indo-Pacific region, the numerical strength of India’s conventional submarine fleet remains broadly similar to what it was during the late 1990s. The ageing inventory has increased the urgency of acquiring modern submarines equipped with advanced stealth, sensors and endurance capabilities.

The Project-75 (India) program is therefore viewed as a key element of a wider underwater force modernisation strategy intended to restore and eventually expand India’s conventional submarine strength. Alongside the German-Indian initiative, several other submarine projects are progressing. These include plans for two nuclear-powered submarines, the leasing of a nuclear-powered submarine from Russia and a follow-on order for additional Kalvari-class submarines.

India and France have already collaborated through MDL and Naval Group to build six Kalvari-class submarines. A proposal for three more boats remains under consideration and could further enhance the Navy’s underwater fleet in the coming years.

Beyond the immediate requirement for six new submarines, the TKMS-MDL partnership is expected to bring advanced manufacturing processes, engineering know-how and long-term industrial benefits to India’s naval sector. The project could also serve as a major technology-transfer programme while strengthening strategic cooperation between New Delhi and Berlin in the maritime domain.

With commercial negotiations now nearing completion, Project-75 (India) appears to be entering a decisive phase, potentially paving the way for one of the largest and most consequential submarine acquisition programs in Indian naval history.

Agencies


Rafale Source Code Access Remains Off-Limits As France Expands Weapons Integration Flexibility For India


France and Dassault Aviation continue to draw a firm line around the Rafale fighter's most sensitive software architecture, refusing to transfer unrestricted access to the aircraft's core source code. The protected software controls critical functions including flight control systems, radar processing, mission computers, sensor fusion and electronic warfare capabilities.

Paris maintains that these software elements constitute strategic national-security assets and contain proprietary intellectual property, much of it associated with French defence electronics specialist Thales. As a result, no Rafale export operator has been granted unrestricted access to the aircraft's protected software core.


Despite this longstanding position, discussions between India and France have progressed towards a practical compromise designed to satisfy key operational requirements without exposing classified software algorithms.

The evolving arrangement has gained particular significance in relation to India's acquisition of 26 Rafale-M naval fighters for carrier operations and continuing negotiations surrounding the much larger 114-aircraft Multi-Role Fighter Aircraft (MRFA) requirement.


Rather than granting access to the underlying source code, France has shown greater willingness to provide Interface Control Documents (ICDs) and controlled software interface layers. This approach allows Indian organisations, including DRDO and domestic industry partners, to integrate indigenous weapons, sensors and communications systems through defined digital interfaces while preserving French control over the aircraft's internal software architecture.

Under such an arrangement, Indian engineers receive access to the protocols, data formats and communication standards necessary for external equipment to interact with the aircraft. However, the software logic governing radar data processing, mission management, electronic warfare algorithms and flight-critical functions remains inaccessible.

The distinction is significant because ICD access effectively treats the aircraft as a highly capable but protected platform. External systems can communicate with it through approved interfaces, yet the decision-making processes occurring within the aircraft's core computers remain hidden from the operator.

In practical terms, Dassault has agreed to support the integration of several Indian-developed weapons onto Rafale platforms. These include members of the Astra beyond-visual-range air-to-air missile family and the Smart Anti-Airfield Weapon, reflecting India's broader push towards greater operational self-reliance.

The company has also indicated support for integrating additional indigenous systems and munitions, including certain electronic warfare capabilities developed domestically. Recent reports suggest that adaptation work involving ASTRA MK-1, ASTRA MK-2 and Rudram-class weapons has become a central part of discussions surrounding future Rafale acquisitions.

However, BrahMos-NG remains a more sensitive issue. Because the BrahMos program operates as an Indo-Russian joint venture, French authorities remain cautious about any scenario that could potentially expose sensitive avionics interfaces, software structures or certification processes to personnel linked to external foreign programs.

At the centre of the debate lies a broader question of military independence. Modern combat aircraft rely on software to manage everything from flight dynamics and sensor fusion to electronic warfare responses, weapons employment and tactical decision-support functions.

ICD access and full source-code access therefore represent two very different levels of control.

With ICD access, an air force receives what can best be described as "black-box" access. Engineers gain visibility into how information is exchanged between subsystems through military data buses and defined communication standards, but they do not see the internal algorithms that process that information.

Full source-code access, by contrast, provides "white-box" visibility. Operators can examine and modify the actual programming code, often written in languages such as C, C++, Ada or specialised military software environments, that controls every major subsystem.

Under the ICD model, engineers can integrate new missiles, targeting pods, sensors or communication systems by developing compatible interface software. They can ensure the aircraft exchanges power, targeting information and launch commands with the new equipment through approved channels.

What they cannot do is alter the aircraft's internal radar-processing logic, mission-computer calculations or electronic warfare algorithms if those modifications require changes to protected software.

If a new weapon demands unique targeting routines, specialised launch calculations or novel engagement logic beyond the aircraft's existing software baseline, the operator must normally rely on the original manufacturer to implement those changes.

Full source-code access removes that dependency. Domestic engineers gain the ability to modify mission-computer functions, fire-control software, cockpit interfaces and weapons-employment logic without requiring external approval.

The same distinction applies to electronic warfare operations. With ICD access, operators can update predefined threat databases and configuration files where permitted. However, deeper changes to radar processing techniques or electronic countermeasure algorithms remain dependent on the original equipment manufacturer. With complete source-code control, military software teams could theoretically modify and optimise those algorithms internally, enabling faster adaptation to emerging threats and operational requirements.

Flight certification also differs considerably between the two models. Under the ICD framework, major modifications involving new stores, heavy payloads or unusual weapon configurations generally require manufacturer involvement and certification oversight to ensure flight safety and aircraft performance remain within approved limits.

Source-code ownership would place much greater responsibility on the operator. Domestic authorities could assume larger roles in testing, validating and certifying aircraft modifications using national flight-test infrastructure and engineering organisations.

The outcome of the MRFA negotiations may ultimately determine how far this balance between sovereignty and software protection can be pushed in one of the world's most closely watched fighter aircraft procurement programs.

IDN (With Agency Inputs)


MoD Signs ₹770 Crore BEL Deal To Strengthen Indian Army's Low-Level Air Defence Network


The Ministry of Defence has signed a contract with M/s Bharat Electronics Limited (BEL) for the procurement of the Improved Low Level Light Weight Radar (LLLR-I) system at an approximate cost of ₹770 crore.

The agreement was signed in New Delhi in the presence of Defence Secretary Rajesh Kumar Singh.

The acquisition is intended to enhance the Indian Army’s capability to detect, track and respond to a broad spectrum of aerial threats operating at low altitude. The LLLR-I is an advanced surveillance radar designed to detect and track fighter-sized aerial targets with a high degree of effectiveness.

In addition to conventional airborne threats, the system is capable of identifying and tracking mini and micro drones, which have emerged as a growing challenge on the modern battlefield.

A significant feature of the radar is its ability to prioritise aerial targets automatically.

This capability enables operators to assess multiple threats simultaneously and focus on the most immediate dangers.

The radar will improve the Army’s ability to counter the increasing threat posed by Unmanned Aerial Systems (UAS). By enhancing situational awareness and early warning capabilities, the system will strengthen air defence preparedness across operational areas.

The procurement represents an important step in the modernisation of India’s air defence infrastructure.

It also reflects the Government’s continued emphasis on equipping the armed forces with indigenous technologies developed and manufactured within the country.

BEL, one of India’s leading defence public sector enterprises, will supply the radar systems under the contract.

The project is expected to contribute significantly to the expansion of the domestic defence industrial base. Beyond strengthening military capability, the programme is anticipated to generate opportunities across the wider defence manufacturing ecosystem.

Micro, Small and Medium Enterprises are expected to benefit through involvement in component production, supply chains and associated support activities. The contract aligns closely with the Government’s vision of Viksit Bharat @2047 and its objective of building a technologically advanced and self-reliant nation.

The induction of these radars will further support the broader drive towards indigenisation of critical defence equipment.

By promoting domestic design, development and production capabilities, the programme is expected to reduce dependence on foreign-origin systems.

The initiative also supports the creation of a resilient and globally competitive Indian defence industry capable of meeting future operational requirements.

With the growing prominence of drones and other low-flying aerial platforms in contemporary conflicts, the addition of the LLLR-I system is expected to provide the Indian Army with enhanced surveillance coverage and a stronger defensive shield against evolving airborne threats.

The contract therefore represents both a capability enhancement for the Army and a further milestone in India's pursuit of self-reliance in defence manufacturing.

Agencies


BrahMos Upgrade For Ranvir-Class Destroyers Could Potentially Double Missile Salvo To 16


India has moved ahead with a ₹661.5 crore contract for BrahMos Fire Control Systems and launchers that will support the upgrade of four Indian Navy warships, comprising two Ranvir-class destroyers and two Veer-class corvettes.

The agreement, signed with BrahMos Aerospace, carries an indigenous content level exceeding 68% and is intended to further strengthen the Navy’s maritime strike capabilities while supporting domestic defence manufacturing.

The contract specifically covers the supply of BrahMos launchers and associated fire-control systems rather than the missiles themselves. These systems are essential for integrating and operating the BrahMos weapon system aboard existing naval platforms.

Particular attention has focused on the two Ranvir-class destroyers included in the programme. These ships belong to the Soviet-origin Project 61ME family, derived from the Kashin-class destroyer design and built in Mykolaiv, in what was then the Soviet Union. Of the original vessels acquired by India, three remain in service today: INS Rana, INS Ranvir and INS Ranvijay.

Available information strongly suggests that INS Ranvir and INS Ranvijay are the most likely recipients of the new BrahMos launcher upgrades. Both ships already operate an eight-cell BrahMos Vertical Launch System positioned aft and remain among the earliest Indian Navy warships to have received the supersonic missile.

Importantly, both destroyers continue to retain four inclined launchers for the ageing P-15 Termit, also known as the Styx anti-ship missile, located forward on the vessel.

This has led to speculation that the old Styx launchers could eventually be removed and replaced by additional BrahMos launchers. If such an approach is adopted, the overall missile load could potentially increase from the existing eight BrahMos missiles carried in the vertical launch system to a total of 16 missiles.

However, it is important to distinguish confirmed information from informed assessment.

The Ministry of Defence has confirmed only that the contract covers two Ranvir-class destroyers and two Veer-class corvettes. It has not publicly disclosed the precise launcher configuration, the number of launchers to be fitted, or the final weapons arrangement that will result from the upgrade.

The assumption of a future 16-missile BrahMos broadside stems largely from the configuration previously seen on the retired INS Rajput. That vessel was equipped with four twin inclined BrahMos launchers capable of housing eight missiles. When combined with an already-installed eight-cell vertical launch system, a similar arrangement on Ranvir-class ships would theoretically result in a 16-missile salvo.

Even so, this remains a projection rather than an officially confirmed outcome.

Another factor supporting the assumption that INS Ranvir and INS Ranvijay are the ships covered by the contract is the status of INS Rana. Over recent years, INS Rana has been used as a test platform for the DRDO-developed Vertical Launch Short Range Surface-to-Air Missile system and received related modifications. Its Styx launchers were previously removed, and the ship now serves a specialised role as a missile-development testbed.

As a result, analysts consider it highly probable that the two destroyers named in the contract are INS Ranvir and INS Ranvijay rather than INS Rana.

What remains unconfirmed is the suggestion that the Styx launchers on Ranvir and Ranvijay have already been removed. Available reporting indicates that both vessels still retain their four inclined P-15 launchers. The documented removal of such launchers in recent years applies to INS Rana and not to the two destroyers widely expected to receive the BrahMos upgrades.

The broader significance of the contract lies in the Indian Navy’s continuing effort to extend the combat relevance of legacy vessels. BrahMos remains the Navy’s principal surface-to-surface strike missile, capable of engaging both maritime and land targets at extended ranges while travelling at supersonic speed.

The modernisation of older destroyers and corvettes allows these platforms to remain effective contributors to fleet operations even as newer Kolkata-class and Visakhapatnam-class destroyers enter service.

At present, therefore, the confirmed story is that India has contracted for BrahMos launchers and fire-control systems for two Ranvir-class destroyers and two Veer-class corvettes. The possibility of creating a 16-missile BrahMos salvo on Ranvir-class destroyers remains a logical and technically plausible outcome, but it should still be regarded as an informed assessment rather than an officially announced configuration.

Agencies


IAF Receives First Indigenous HTT-40 Trainers, Full Pilot Training Pipeline May Take Up To Two Years


The Indian Air Force (IAF) has taken delivery of the first three indigenous HTT-40 basic trainer aircraft from Hindustan Aeronautics Limited (HAL), marking a significant step in India's long-running effort to strengthen self-reliance in military pilot training and reduce dependence on imported training platforms, HT reported.

While the arrival of the aircraft represents a major milestone for the indigenous aviation sector, full-scale training of rookie pilots on the HTT-40 is not expected to commence immediately.

Officials familiar with the development indicated that the IAF will require up to two years to establish the necessary training ecosystem, including the preparation of qualified instructors and the induction of a larger fleet of aircraft.

The first HTT-40 was formally handed over in Bangalore on September 18, marking the beginning of deliveries under the IAF's contract for 70 aircraft valued at ₹6,838 crore.

However, the aircraft will not be introduced into routine rookie pilot training at the Air Force Academy near Hyderabad until the service has accumulated between 25 and 30 aircraft and developed an adequate cadre of trained flying instructors.

In the initial phase, the HTT-40 fleet will be based at the Flying Instructors' School in Tambaram near Chennai. The primary purpose of this deployment will be to train instructors who will subsequently teach trainee pilots how to operate the new aircraft.

This instructor-training phase is regarded as essential because the HTT-40 is set to become the first step in the flying career of future IAF pilots, helping them develop fundamental aviation skills before progressing to more advanced aircraft.

The instructors will also be responsible for establishing standard operating procedures, designing training syllabi and defining proficiency benchmarks that future trainee pilots will be required to meet.

The induction of the HTT-40 is particularly significant because it restores a fully indigenous option in the basic training segment, an area where the IAF has relied heavily on foreign-origin aircraft in recent years.

The air force placed the order for 70 HTT-40 trainers three years ago to support expanding pilot training requirements and strengthen domestic aerospace manufacturing capabilities.

Powering the aircraft is the Honeywell TPE331-12B turboprop engine.

Deliveries of these engines faced delays due to global supply-chain disruptions, slowing the aircraft's production schedule. Officials expect those bottlenecks to ease, allowing production to gather momentum.

Under a $100 million agreement signed four years ago, Honeywell is providing 88 TPE331-12B engines and kits.

The arrangement includes direct delivery of 16 engines, while the remaining units are to be manufactured by HAL under a technology-transfer framework. If engine availability stabilises as anticipated, HAL expects to achieve an annual production rate of around 20 HTT-40 aircraft across its facilities in Bangalore and Nashik.

The aircraft incorporates several modern features aimed at improving pilot training effectiveness and safety. These include a tandem-seat configuration, an air-conditioned cockpit, contemporary avionics, hot-refuelling capability that allows refuelling while the engine remains running, and zero-zero ejection seats designed to permit safe ejection at very low altitude and speed.

The HTT-40 currently incorporates approximately 56% indigenous content by value.

HAL plans to increase this figure beyond 60% through the localisation of additional components and sub-systems, further supporting India's broader Atmanirbhar Bharat objectives in the aerospace and defence sectors.

At present, all ab initio or Stage-I flying training for rookie IAF pilots is conducted using Swiss-origin Pilatus PC-7 MK-II basic trainers.

This initial training phase remains common to all pilot candidates regardless of their eventual operational specialisation. Following completion of Stage-I training, pilots are divided into fighter, transport and helicopter streams.

Candidates selected for fighter aviation move on to Stage-II training using the PC-7 MK-II and the Kiran MK-1A jet trainer. They subsequently undertake Stage-III instruction on the British-origin Hawk advanced jet trainer. Only after completing these phases are pilots cleared to transition to frontline combat aircraft such as the Rafale, TEJAS, Sukhoi Su-30MKI and Mirage-2000 fleets.

Pilots assigned to the transport and helicopter branches follow separate Stage-II and Stage-III training pathways using aircraft specifically tailored to those operational roles.

The HTT-40's induction is therefore expected to play a crucial role in strengthening the foundation of the IAF's pilot training pipeline. Although full operational training on the platform may still be some distance away, the arrival of the first aircraft marks the beginning of a transition that will gradually place a larger share of India's pilot training requirements on an indigenous platform developed and manufactured within the country.

Agencies


Fateh-2 ER Falls Short of Agni-P On Speed, Range, Precision And Defence Penetration Capabilities: Intel Assessment


A recent intelligence assessment has drawn a sharp comparison between Pakistan’s newly tested Fateh-2-ER missile and India’s Agni-P ballistic missile, concluding that the Pakistani system remains significantly behind its Indian counterpart across several critical performance parameters.

The report states that the Fateh-2-ER falls short of the Agni-P in terms of speed, operational range, targeting accuracy and the ability to penetrate advanced Anti-Ballistic Missile (ABM) networks.

Pakistan recently conducted a test of the extended-range variant of the Fateh-2 missile as part of its broader effort to expand its long-range conventional strike capability.

Islamabad has promoted the missile as a major advance in its indigenous missile inventory, with officials highlighting its manoeuvrability and claimed ability to overcome enemy air-defence systems.

However, the assessment indicates that the actual capabilities of the Fateh-2-ER remain considerably below those demonstrated by India’s latest generation of ballistic missile technology.

The Agni-P, also known as Agni-Prime, represents one of the most advanced missile systems developed by India’s Defence Research and Development Organisation.

Designed as a new-generation canisterised ballistic missile, the Agni-P incorporates advanced propulsion systems, improved guidance technologies and modern navigation architecture.

According to the assessment, the Agni-P enjoys a substantial advantage in range, enabling it to engage strategic targets at significantly greater distances than the Fateh-2-ER.

The Indian missile is also believed to achieve much higher velocities during various phases of flight, substantially reducing reaction times available to enemy missile-defence operators.

Speed continues to play a crucial role in missile survivability, particularly during the terminal phase when interception attempts are most likely to occur. The report further highlights the Agni-P’s superior accuracy, which is attributed to advanced guidance systems and a highly refined navigation package.

Greater accuracy allows a missile to achieve mission objectives with increased effectiveness while reducing the requirement for larger warheads.

Intelligence analysts noted that one of the most important areas of difference lies in the ability to defeat modern missile-defence networks.

The Agni-P has been designed with features intended to complicate enemy interception efforts, including enhanced manoeuvrability and modern penetration aids.

Such capabilities are increasingly important as nations continue investing in layered missile-defence architectures capable of engaging ballistic threats at multiple stages of flight.

The Fateh-2-ER reportedly employs manoeuvring flight profiles intended to reduce interception probabilities. Nevertheless, the assessment argues that these measures do not place it in the same technological category as the Agni-P.

Analysts also pointed to India's growing multi-layered air and missile-defence network, which includes systems such as the S-400, MR-SAM, Akash and other indigenous capabilities.

The effectiveness of these systems against ballistic missile threats has become a key factor in regional military planning.

Recent operational experience has further intensified scrutiny of missile performance and survivability in the face of increasingly sophisticated defensive systems.

The report suggests that while the Fateh-2-ER represents an incremental improvement for Pakistan’s missile forces, it does not fundamentally alter the strategic balance between the two countries.

Instead, the missile is viewed as part of Pakistan’s continuing effort to expand its conventional precision-strike arsenal and enhance deterrence capabilities.

By contrast, the Agni-P is regarded as a major technological leap within India's strategic missile program and a central component of its future deterrence posture.

Military observers note that the missile benefits from advancements in materials, guidance technology, mobility and operational readiness.

Its canisterised launch configuration also allows for quicker deployment and improved survivability under operational conditions.

The intelligence assessment ultimately concludes that despite Pakistan’s efforts to improve the Fateh missile family, the Fateh-2-ER remains inferior to the Agni-P in the areas of speed, range, precision and missile-defence penetration capability.

As both countries continue modernising their strategic forces, the comparison underscores the widening technological gap between India’s latest generation ballistic missile developments and Pakistan’s current extended-range battlefield missile systems.

Agencies


Pakistan Signals Nuclear Review As India's Missile And Submarine Capabilities Expand


Pakistan has indicated that it may reconsider aspects of its nuclear deployment posture in response to what it views as India's increasingly sophisticated nuclear and strategic capabilities.

The warning was issued by retired Lieutenant General Khalid Kidwai, an adviser to Pakistan's National Command Authority (NCA), who stated that Islamabad would not accept any strategic imbalance in South Asia.

Speaking at the second Islamabad Non-Proliferation Conference, Kidwai said Pakistan could review its deployment options while continuing to maintain its longstanding policy of strategic ambiguity regarding certain elements of its nuclear deterrent.

His remarks come against the backdrop of lingering tensions between India and Pakistan following their military confrontation in May 2025, an episode that underscored the volatility of the regional security environment.

Islamabad's latest concerns are closely linked to India's ongoing military modernisation efforts, particularly in the nuclear domain, where New Delhi has continued to strengthen its land, sea and air-based deterrent capabilities.

Kidwai, along with retired Lieutenant General Sarfraz Sattar, both former heads of Pakistan's Strategic Plans Division, highlighted reports suggesting that India has begun deploying nuclear warheads aboard a ballistic missile submarine as part of deterrence patrol operations.

The Pakistani officials referred to findings and assessments associated with the SIPRI Yearbook 2026, which indicated that India may have deployed around 12 nuclear warheads aboard a submarine, a development that they argued represents a significant evolution in India's nuclear posture.

According to Kidwai, such a deployment would suggest that India has moved towards mating nuclear warheads with submarine-launched ballistic missiles, potentially increasing the readiness of its sea-based nuclear deterrent.

He further argued that this development could raise questions about the long-term credibility and interpretation of India's declared No-First-Use nuclear doctrine.

Sattar echoed similar concerns and pointed to a broader set of Indian strategic capabilities, including missile canisterisation, Multiple Independently Targetable Re-entry Vehicle (MIRV) technology and ballistic missile defence systems.

In Pakistan's assessment, these advances may indicate a gradual shift towards a more flexible and potentially first-use-capable nuclear posture, although such conclusions remain subject to debate among strategic analysts.

Geopolitical experts note that Pakistan's interpretation reflects its own threat perceptions and strategic calculations rather than definitive evidence of a change in Indian nuclear doctrine.

They argue that the development of more advanced delivery systems and survivable deterrent platforms does not automatically imply an intention to launch a first strike.

Many strategic analysts view India's naval nuclear capability as part of its effort to establish a credible second-strike deterrent, a cornerstone of nuclear stability that is designed to ensure retaliation capability even after absorbing an adversary's initial attack.

Pakistan's concerns have also been shaped by lessons drawn from the May 2025 conflict, which Sattar described as considerably more lethal and technologically sophisticated than the February 2019 confrontation between the two nuclear-armed neighbours.

He pointed to the employment of drones, BrahMos missiles, cyber operations and electronic warfare systems as evidence of the rapidly evolving character of military competition in South Asia.

According to Sattar, the growing integration of advanced technologies into conventional warfare increases the risk that future crises could escalate more rapidly than in the past.

He warned that the absence of a formal bilateral arms control framework between India and Pakistan further heightens the danger of misunderstanding, miscalculation and unintended escalation during periods of tension.

The Pakistani officials also expressed concern over India's Cold Start doctrine, which has long been associated with the rapid mobilisation of conventional forces for limited military operations below the nuclear threshold.

In addition, they highlighted India's pursuit of short-range missile systems, hypersonic weapons and other emerging technologies as developments requiring close attention from Islamabad.

Kidwai maintained that Pakistan reserves the right to adopt whatever measures it considers necessary to safeguard national security and preserve what it regards as a stable strategic balance in the region.

He urged Indian policymakers to take into account Pakistan's Full Spectrum Deterrence policy, which is designed to address a wide range of perceived threats across both conventional and nuclear dimensions.

Independent experts observing the debate noted that Pakistan's latest warning leaves unanswered questions regarding the precise nature of any deployment changes that Islamabad may be considering.

They also cautioned that while Pakistan presents its position as a reaction to India's expanding military capabilities, any additional nuclear deployments could intensify an already competitive strategic environment.

Such moves, analysts argue, risk accelerating the regional arms competition at a time when both countries are investing heavily in missile technology, advanced command-and-control systems, cyber capabilities and survivable nuclear forces.

The broader concern among strategic observers is that sustained military modernisation on both sides, coupled with the absence of robust confidence-building and arms control mechanisms, could make future crises more difficult to manage and potentially more dangerous than previous confrontations.

Agencies


Infinity One Landing-Leg Success Boosts India's Reusable Rocket Ambitions


India’s journey towards reusable launch technology has taken another notable step forward, as Ahmedabad-based OmSpace Rocket & Exploration successfully tested the landing-leg mechanism for its Infinity One reusable launch vehicle.

The achievement represents an important milestone in the company’s efforts to develop a rocket capable of recovery and reuse. The landing-leg system is designed to support the vehicle during landing, a critical requirement for safely returning and refurbishing rocket stages for future missions.

By validating this mechanism, OmSpace has moved closer to demonstrating one of the key technologies required for reusable spaceflight. Landing legs play a vital role in allowing a launch vehicle to perform a controlled vertical touchdown after completing its mission, helping to preserve valuable hardware that would otherwise be discarded.

Infinity One is being developed as a reusable launch vehicle aimed at the rapidly expanding small-satellite market. The rocket is intended to provide dedicated access to Low Earth Orbit for commercial, scientific and institutional customers seeking flexible launch opportunities.

According to the company’s stated plans, Infinity One is designed to carry payloads of up to 500 kg to Low Earth Orbit. The vehicle incorporates a reusable first stage that is intended to return to the launch site, undergo inspection and be prepared for subsequent missions, supporting a faster operational cycle and lower launch costs.

The successful landing-leg test highlights OmSpace’s determination to bring advanced launch capabilities into India’s growing private space sector. Reusability has become one of the most important trends in the global space industry because it has the potential to significantly reduce the cost of access to space while increasing launch frequency.

Recovering and reusing major rocket components can eliminate the need to manufacture an entirely new vehicle for every mission. This approach may improve operational efficiency, reduce waste and make satellite launches more affordable for a wider range of customers.

The development also reflects the broader transformation taking place within India's space ecosystem. In recent years, regulatory reforms and increased private-sector participation have encouraged a new generation of companies to pursue ambitious launch vehicle, propulsion and satellite projects alongside the country's established space programs.

India already possesses significant expertise in launch technology through the Indian Space Research Organisation, which has conducted reusable launch vehicle technology demonstrations and autonomous landing experiments. These efforts have helped establish a technological foundation that private firms are now seeking to build upon.

OmSpace has positioned Infinity One as a platform focused on rapid turnaround and dedicated satellite launches. The company has indicated that reusability could eventually support relaunch timelines measured in days rather than months, improving responsiveness for customers requiring timely access to orbit.

The successful landing-leg mechanism test therefore represents more than a single engineering accomplishment. It demonstrates steady progress towards technologies that are essential for routine rocket recovery operations and the long-term commercial viability of reusable launch systems.

Whether India becomes a major global player in reusable rocket technology will depend on continued advances in propulsion, guidance systems, recovery operations and commercial execution.

However, milestones such as OmSpace’s latest test underline the increasing capability and ambition emerging from India’s private space industry.

As companies continue to mature their technologies and attract investment, reusable launch vehicles could become an increasingly important part of India's future space economy.

The successful landing-leg test of Infinity One serves as another indication that the country is steadily moving towards a more competitive and innovation-driven presence in the global launch market.

Agencies


IIT-Madras Incubated Start-Up Targets December Sea Trials For Hummingbird E-Flying Boat


IIT-Madras incubated Start-Up Waterfly Technologies is preparing to take a major step towards commercialising its innovative electric sea-skimming craft, with the company planning its first ocean trials between Chennai and Puducherry before the end of the year, MoneyControl reported.

The upcoming trial will test the performance of the company's electric Wing-in-Ground (WIG) vehicle, commonly described as an “e-flying boat”, in real maritime conditions after a series of successful inland-water evaluations.

Waterfly believes the trial will be a crucial milestone in validating the technology for commercial cargo operations along India's coastline and across island networks.

The Chennai-based company has developed the craft to travel only a few metres above the water's surface, taking advantage of the aerodynamic ground effect. This phenomenon reduces drag and significantly improves efficiency, allowing the vehicle to combine some of the speed advantages of aircraft with the operational flexibility of marine transport.

According to Waterfly Technologies co-founder Keshav Kumar Choudhary, the Chennai-Puducherry demonstration will be conducted using a 300-kg prototype that has already undergone testing at Kaveripakkam Lake in Tamil Nadu's Ranipet district.

The sea trial is expected to provide valuable data on how the vehicle performs in open-ocean conditions, a critical requirement before the company can move towards commercial deployment.

Waterfly Technologies unveiled its latest vehicle, known as the Hummingbird, in Chennai on October 11 in the presence of Prime Minister Narendra Modi.

Choudhary said the Prime Minister congratulated the team during the unveiling and expressed hope that the craft would soon be operating over the ocean.

The Hummingbird is an all-electric WIG craft, sometimes referred to as an electric sea glider. Rather than operating like a conventional aircraft, it flies just above the water on a cushion of air generated by the interaction between the wings and the surface below.

This operating method enables the craft to achieve high efficiency while avoiding the need for traditional airport infrastructure such as runways and terminals.

The company has spent considerable time maturing the technology. Engineers initially developed and tested a smaller 30-kg prototype to understand how the vehicle could transition from waterborne movement into stable flight.

After approximately six months of testing and refinement, the design was scaled up to a 300-kg platform capable of more extensive evaluations. The larger prototype was subsequently tested above Kaveripakkam Lake, flying at low altitude over the water to study the ground-effect phenomenon and validate aerodynamic models.

Data gathered during those trials helped the company improve simulations and refine the design that was ultimately showcased during the Chennai unveiling.

Waterfly's long-term ambition extends well beyond demonstration flights. The company is positioning the technology as a new transportation category capable of delivering cargo at high speeds while maintaining relatively low operating costs.

Initial commercial operations are expected to focus on coastal and island cargo routes, including logistics missions supporting offshore oil and gas infrastructure.

The Start-Up has also highlighted potential applications in medical evacuation services, maritime connectivity and strategic sectors, while keeping cargo transport as its primary near-term objective.

As development progresses, Waterfly intends to build larger variants of the platform. The company has outlined plans that include vehicles with payload capabilities of several tons and future passenger configurations.

The Hummingbird program is part of a broader vision to transform coastal mobility through electric propulsion and advanced aerodynamic design.

Waterfly has previously spoken about the possibility of dramatically reducing travel times along India's coastline, including a future concept that could connect Chennai and Kolkata in roughly three hours.

The company has also projected extremely affordable transport costs for certain routes, with some future passenger services potentially priced at around ₹600 per seat if the technology scales successfully.

Beyond battery-electric models, Waterfly has indicated interest in future hydrogen-electric variants that could extend operating range substantially and support longer-distance missions.

The company is additionally exploring concepts involving offshore charging support, including the potential use of vessels equipped with batteries and solar power systems to facilitate extended operations at sea.

The planned Chennai-Puducherry trial will therefore represent far more than a routine demonstration. It will be the first real test of whether Waterfly's sea-skimming electric transport system can make the transition from controlled lake environments to the more demanding conditions of the open ocean.

If successful, the trial could accelerate the development of a new category of indigenous Indian maritime-aerospace transport technology aimed at faster coastal logistics, improved island connectivity and lower-emission cargo movement.

Agencies


Indian Army Set For New Land Warfare Doctrine As Military Leadership Charts Future Combat Strategy


The Indian Army is set to adopt a new Land Warfare Doctrine aimed at reshaping its operational outlook and combat preparedness in response to the rapidly evolving character of modern warfare.

Defence Minister Rajnath Singh will formally release the doctrine on Friday, the concluding day of the Army Commanders' Conference, the Army’s highest-level biannual decision-making forum currently underway in New Delhi.

The three-day conference, chaired by Army Chief General Dhiraj Seth, began on Wednesday and has brought together the senior-most leadership of the Indian Army to review the security environment, assess operational preparedness and examine future capability requirements.

According to the Ministry of Defence, the new doctrine will serve as an overarching strategic and operational framework designed to prepare the force for emerging military challenges and future conflicts.

The doctrine is expected to reflect the rapidly changing nature of warfare, where technology, unmanned systems, precision weapons, artificial intelligence, electronic warfare and network-centric operations are increasingly shaping battlefield outcomes.

Its release comes against the backdrop of lessons drawn from recent conflicts and military operations, including Operation Sindoor last year, during which drones and other advanced technologies played a significant role in military operations.

The Indian Army is seeking to adapt to a battlespace that is becoming more transparent, more connected and increasingly influenced by real-time surveillance, cyber capabilities and autonomous systems.

Military planners view the doctrine as a key step in ensuring that the Army remains capable of operating effectively across conventional and emerging domains of warfare while maintaining readiness for future security contingencies.

Beyond the unveiling of the doctrine, the conference agenda includes discussions on a broad range of strategic and operational issues facing the armed forces.

Senior military leaders are deliberating on cross-domain security challenges, force modernisation priorities, operational readiness, technological adaptation and long-term transformation initiatives. A major focus of the deliberations is enhancing inter-service integration and strengthening synergy among the Army, Navy and Air Force as India moves towards a more integrated military structure.

The conference will also examine digital transformation within the defence establishment, reflecting the growing importance of secure communications, data-driven decision-making and technological innovation in military operations.

The event features addresses and panel discussions involving some of the country's leading national security figures, including senior defence officials, the Chief of the Naval Staff and representatives from the Ministry of Electronics and Information Technology.

These interactions are expected to contribute to the Army’s efforts to integrate emerging technologies into operational planning and future force development.

The conference is intended to help formulate policy directions and identify priority areas that will guide the Army’s modernisation and transformation efforts in the coming years. Army leaders are working towards building a technologically enabled, agile and future-ready force capable of responding effectively to increasingly complex security challenges across multiple domains.

On the final day of the conference, Defence Minister Rajnath Singh will also unveil the annual United Nations Journal.

In addition, he will honour Indian Army personnel who have displayed exceptional professionalism, dedication and service while participating in United Nations peacekeeping missions around the world. The recognition highlights India's longstanding contribution to international peacekeeping operations and the significant role played by Indian military personnel under the UN flag.

Army Chief General Dhiraj Seth will also present special awards for Green Military Stations and Aviation Flight Safety. These awards recognise military establishments that have demonstrated excellence in environmentally responsible resource management and units that have maintained high standards of aviation safety and operational discipline.

Taken together, the release of the new Land Warfare Doctrine and the discussions at the Army Commanders' Conference underscore the Indian Army’s effort to evolve into a more adaptive, technologically advanced and future-oriented fighting force capable of meeting the demands of modern warfare and an increasingly complex global security environment.

Agencies


India’s Space Start-Ups Accelerate Drive Towards A $40 Billion Industry


India’s space sector is witnessing a profound transformation as private companies rapidly expand their presence in an industry that was historically dominated by government agencies and large public-sector institutions, Strat News Global reported.

A combination of policy reforms, growing investor confidence and stronger collaboration with the Indian Space Research Organisation (ISRO) is helping create a vibrant ecosystem that now includes more than 400 space-focused Start-Ups.

The sector’s evolution gathered pace after the Government of India opened the space value chain to private participation in 2020. That process was further strengthened through the Indian Space Policy 2023, which established a clearer framework for commercial involvement across launch services, satellite manufacturing, space-based applications and related technologies.

A key pillar of this transformation has been the creation of the Indian National Space Promotion and Authorisation Centre (IN-SPACe), which serves as a single-window body for approving private space activities and facilitating industry access to ISRO infrastructure, testing facilities and technical expertise.

The government has also introduced several measures aimed at improving access to capital. These include venture capital initiatives, technology adoption programs, seed-funding mechanisms and policy support intended to reduce barriers for emerging companies.

Another major boost came through the liberalisation of foreign direct investment rules in 2024. Under the revised framework, foreign investors can hold up to 74% ownership in satellite manufacturing activities and up to 49% in launch vehicle and spaceport ventures through the automatic route, opening fresh avenues for international capital and strategic partnerships.

India’s domestic space economy is currently valued at roughly $13 billion and is projected to expand to approximately $40 billion by 2030, highlighting the scale of opportunities emerging across the industry.

Private investment has begun reflecting this optimism. Cumulative funding into Indian space companies has reached around $600 million, while Start-Ups secured nearly $256 million during 2026 alone.

Industry forecasts suggest that venture capital and private equity investment could contribute an additional $3.5 billion over the next five years, providing much-needed support for technology development, manufacturing capacity and commercial expansion.

ISRO continues to play a central role in this growth story. Beyond its scientific and strategic missions, the organisation is increasingly functioning as an enabler for the private sector by providing technology transfers, infrastructure access and opportunities for domestic suppliers.

Its commercial arm, NewSpace India Limited (NSIL), has executed dozens of technology-transfer arrangements with industry, helping private firms gain access to technologies originally developed within the national space program.

These partnerships are enabling companies to design and manufacture launch vehicles, spacecraft systems, satellites, propulsion technologies and specialised space services that were previously unavailable to private industry.

Among the companies demonstrating these capabilities is Astrophel Aerospace, which is currently testing an indigenously developed cryogenic pump using ISRO facilities. Bellatrix Aerospace is advancing propulsion and space-mobility technologies designed to support future satellite operations and in-orbit logistics.

GalaxEye has also made progress in Earth-observation technologies through the deployment of its OptoSAR satellite, reflecting the growing sophistication of India's private satellite ecosystem.

Beyond technological innovation, these companies are expected to strengthen domestic supply chains and reduce dependence on external providers. A broader industrial base could also provide valuable resilience when launch schedules face delays or technical challenges.

Private launch firms are increasingly targeting market niches that complement ISRO’s established strengths. While the Polar Satellite Launch Vehicle has traditionally focused on medium-payload missions, emerging companies are concentrating on smaller payloads, dedicated launches and customised commercial services.

This diversification reflects rising global demand for launch flexibility, particularly from operators deploying small satellites and constellations intended for communications, Earth observation and data services.

The ambitions of India’s private space sector are closely linked to the country’s broader Space Vision 2047 strategy.

That long-term roadmap includes human spaceflight programs, the establishment of an Indian space station by 2035 and an eventual crewed lunar mission by 2040.

Although India currently accounts for only about 2% of the global space economy, which is valued at more than $620 billion, industry projections suggest the country’s market share could increase to approximately 10% within the next five to seven years.

Such growth would represent a major shift in the global competitive landscape and position India as one of the world’s leading commercial space powers.

Forecasts indicate that Indian companies could participate in as many as 45 launches annually by 2030 on behalf of international customers.

The sector is also expected to manufacture around one-third of the world’s Earth-observation satellites while significantly expanding exports of avionics, satellite communications equipment and ground-system technologies.

Despite this momentum, important challenges remain.

Launch infrastructure continues to be limited, creating bottlenecks for companies seeking timely access to launch opportunities. Long waiting periods for launch slots can affect commercial schedules and slow technology deployment.

Regulatory processes also remain a concern for many companies. Industry participants report that obtaining approvals can sometimes take close to 12 months, delaying commercialisation and increasing operational uncertainty.

Funding distribution represents another challenge. While headline investment figures are improving, capital remains concentrated among a relatively small number of firms, making it difficult for many emerging Start-Ups to secure the resources needed for growth.

India’s public investment in space remains comparatively modest as well. ISRO’s annual budget stands at roughly $1.5 billion, significantly lower than the budgets allocated to agencies such as NASA and the European Space Agency.

As the industry expands, sustained success will depend on securing repeat international business, increasing launch frequency and consistently delivering reliable satellite-based services.

India possesses several structural advantages, including a large pool of engineering talent, proven expertise in complex space missions and highly cost-effective manufacturing capabilities.

However, converting those strengths into a substantially larger share of the global market will require continued policy support, stronger infrastructure, deeper pools of private capital and sustained commercial execution across the entire ecosystem.

If those elements come together successfully, India’s rapidly growing community of space Start-Ups could become one of the principal drivers behind the country’s ambition to emerge as a major force in the global space economy over the coming decades.

Agencies


Aditya-L1 Generates First-Ever Doppler Velocity Images of The Solar Corona


India’s first dedicated solar mission, Aditya-L1, has achieved another significant milestone by generating Doppler velocity images of activity within the Sun’s corona, the outermost layer of the solar atmosphere, The Hindu reported.

The breakthrough was made using data collected by the Visible Emission Line Coronagraph (VELC), one of the mission’s key scientific instruments.

Scientists at the Indian Institute of Astrophysics (IIA) processed and analysed the observations to produce these unique images. The development is expected to enhance scientists’ understanding of how coronal mass ejections (CMEs) travel through space, particularly along the Sun-Earth direction, an area that has remained difficult to observe directly until now.

Solar activity regularly leads to the ejection of extremely hot plasma from the Sun. Among the most dramatic manifestations of this activity are CMEs, which are massive clouds of magnetised plasma expelled from the solar atmosphere at high speeds.

These eruptions can move in any direction away from the Sun. However, when a CME is directed towards Earth, it can interact with the planet’s magnetic environment and potentially trigger space weather disturbances that affect satellites, navigation systems, communication networks and power infrastructure.

For this reason, determining the direction of a CME immediately after it erupts is considered crucial for improving space weather forecasting and assessing possible impacts on Earth.

To achieve this, researchers applied the Doppler effect to light, a principle similar to the one commonly demonstrated through sound. In everyday life, the pitch of a train’s whistle appears higher as the train approaches an observer and lower as it moves away.

Scientists explained that the same underlying principle can be applied to light waves emitted by solar plasma. By measuring subtle shifts in the wavelength of light, they can determine whether material in the solar corona is moving towards or away from the observer.

The resulting Doppler velocity images provide this information visually. Positive Doppler velocities indicate plasma moving away from the observer, while negative Doppler velocities signify plasma moving towards the observer.

This capability offers a new dimension to solar observations because conventional coronagraph images largely reveal motion across the sky, whereas Doppler measurements provide information about movement along the observer’s line of sight. Such data can be especially valuable in identifying Earth-directed solar eruptions.

The software used to process the VELC observations and generate the Doppler velocity images was developed by Dr V Muthupriyal, Senior Project Scientist with the VELC payload operations team at the Indian Institute of Astrophysics, along with her colleagues.

The technical methodology behind the data-processing framework has undergone international peer review and has been published in the Astrophysical Journal, highlighting the scientific rigour of the achievement.

According to Prof. R Ramesh, Senior Professor at the Indian Institute of Astrophysics and Principal Investigator of the VELC project, the Doppler velocity images of the solar corona are unique and represent a capability currently available only through VELC.

He noted that the instrument’s specialised spectroscopic observing system allows it to measure coronal plasma motions in visible wavelengths from the Sun-Earth L1 Lagrangian point, a location approximately 1.5 million kilometres from Earth that provides an uninterrupted view of the Sun.

VELC was specifically designed to conduct both imaging and spectroscopic observations of the solar corona. Its ability to study multiple emission lines enables researchers to investigate plasma motion, temperature and other physical properties with exceptional detail.

The achievement further strengthens Aditya-L1’s role in global heliophysics research. By helping scientists track the early evolution and direction of CMEs more accurately, the mission is expected to improve understanding of solar storms and their effects on the near-Earth environment.

The processed Doppler velocity images will be shared with the wider scientific community. These datasets will complement the mission data already available in the public domain and are expected to support future international research into solar activity, coronal dynamics and space weather prediction.

As Aditya-L1 continues operations from its halo orbit around the Sun-Earth L1 point, the mission is steadily delivering new insights into the behaviour of the Sun, reinforcing India’s growing contribution to advanced solar science and space-based observations.

Agencies


BrahMos Emerges As Key Threat To Chinese Warships In Philippine Marine Corps War Games


According to Philippine media reports, internal war games conducted by the Philippine Marine Corps have indicated that the Indian-made BrahMos supersonic anti-ship missile possesses the ability to penetrate the air-defence systems of Chinese guided-missile destroyers, including some of the People's Liberation Army Navy's most capable surface combatants.

The simulations were carried out as part of the Philippine military's efforts to improve operational proficiency with its newly acquired BrahMos missile batteries, which were purchased from India under a $375 million defence agreement signed in 2022.

Reports emerging from the exercises suggest that, in several simulated engagements, the BrahMos missile was assessed as the only available weapon capable of successfully reaching its target after facing layered air-defence systems deployed aboard Chinese warships.

While specific details of the internal simulation scenarios have not been publicly disclosed, the findings have attracted attention because of the growing strategic competition between Manila and Beijing in the South China Sea.

The exercises form part of a broader effort by the Philippines to strengthen its coastal strike capabilities and establish a credible maritime deterrent against increasingly sophisticated naval threats operating in disputed waters.

The BrahMos missile, jointly developed by India and Russia, is widely regarded as one of the fastest operational anti-ship cruise missiles in service. Its combination of supersonic speed, low-altitude flight profile and manoeuvrability during the terminal phase makes interception significantly more challenging than slower subsonic missile systems.

Philippine military planners have increasingly been focused on integrating the missile into a wider network of surveillance and targeting assets. This approach is intended to ensure that coastal missile batteries can engage hostile naval forces at extended ranges while remaining dispersed and difficult to locate.

Recent Philippine and United States training activities have provided additional insight into how Manila intends to employ the BrahMos operationally.

During bilateral exercises conducted in Northern Luzon, Philippine and American forces rehearsed the creation of a maritime strike kill chain using unmanned aerial systems and intelligence assets to locate, identify and track simulated hostile naval formations.

The activity involved generating targeting information for ground-launched BrahMos missiles through drone surveillance, demonstrating how a networked sensor-to-shooter architecture could be employed during a future maritime contingency.

The simulated Chinese naval task group used during separate training activities reportedly included Type-052D guided-missile destroyers, a Type-054A frigate and a Type-901 fast combat support ship. These vessels represent some of the principal surface combatant classes deployed by the People's Liberation Army Navy.

Although public reporting has not confirmed that Type-055 destroyers were specifically included in every exercise scenario, the discussion surrounding the war games has centred on the missile's ability to challenge even the most advanced Chinese naval air-defence systems.

The Type-055 is widely considered China's premier large surface combatant. Equipped with a powerful radar suite, extensive vertical launch capacity and advanced air-defence missiles, the vessel is designed to provide area air-defence protection for carrier strike groups and major naval formations.

The Philippine Marine Corps' assessment is therefore significant because it suggests that supersonic anti-ship missiles such as BrahMos could complicate the defensive calculations of even heavily protected surface action groups.

Military analysts have long argued that speed remains one of BrahMos's greatest advantages. Travelling at roughly three times the speed of sound, the missile compresses the reaction time available to defending warships, reducing the window for detection, tracking and engagement.

The Philippines has already received and operationalised its first BrahMos battery, while infrastructure development and deployment planning continue at additional locations across the archipelago.

Strategically positioned coastal missile units could allow Manila to monitor and, if necessary, threaten hostile naval vessels operating near critical maritime approaches, including areas facing the South China Sea and the Luzon Strait.

The growing emphasis on integrating drones, surveillance platforms and long-range precision strike systems reflects a broader shift in Philippine defence planning towards an archipelagic defence strategy focused on sea denial rather than direct naval confrontation.

As tensions with China continue over disputed maritime territories, the BrahMos missile is increasingly being viewed by Philippine defence planners as a central component of the country's maritime deterrence posture.

The war game results, if reflective of real-world performance, underscore why the BrahMos has gained a reputation as one of the most formidable coastal-defence missile systems currently available and why its deployment is closely watched across the Indo-Pacific region.

Agencies