The United States Air Force has significantly expanded the combat role of its iconic B-2 Spirit stealth bomber by integrating the AGM-158C Long-Range Anti-Ship Missile (LRASM), a move that could dramatically strengthen America’s ability to counter hostile naval forces in the Indo-Pacific region.

In a major milestone announced by Pacific Air Forces (PACAF) on June 29, 2026, a B-2 Spirit bomber successfully launched an AGM-158C LRASM during a live-fire sinking exercise (SINKEX) conducted as part of Exercise Valiant Shield. The event marked the first publicly disclosed instance of the stealth bomber firing the advanced anti-ship missile and highlighted a new dimension in the aircraft’s operational capabilities.

The development represents a significant enhancement of the US military’s long-range maritime strike arsenal and is widely viewed as a strategic response to growing naval challenges posed by China in the Western Pacific.

“With the deployment of the LRASM from the B-2 Spirit, the Pacific Air Forces takes a major step forward in countering maritime threats,” PACAF stated. “This milestone showcased impressive high-end innovation, reinforcing the US military’s commitment to safeguarding national interests and maintaining global security.”

Although the Air Force did not provide detailed information about the target vessel involved in the exercise or disclose timelines for broader operational integration, the announcement confirmed for the first time that the B-2 is now capable of employing one of the world’s most sophisticated anti-ship weapons.

For decades, the B-2 Spirit has been synonymous with strategic bombing missions against heavily defended land targets. Designed during the Cold War and renowned for its distinctive flying-wing configuration, the stealth bomber can penetrate advanced air defense systems and deliver precision strikes deep inside hostile territory.

The aircraft recently demonstrated that capability during high-profile combat operations in the Middle East. In June 2025, B-2 bombers participated in Operation Midnight Hammer, employing GBU-57 Massive Ordnance Penetrator bombs against Iranian nuclear facilities. Earlier in 2026, the aircraft was also used during Operation Epic Fury, targeting military assets in Iran.

However, the latest LRASM integration indicates that the Air Force increasingly views the B-2 as more than a strategic land-attack platform. Instead, the aircraft is being transformed into a versatile long-range strike asset capable of threatening enemy naval forces far from American shores.

The shift is particularly relevant in the Indo-Pacific, where maritime power plays a central role in military competition. As China continues to expand its naval presence and deploy aircraft carriers into the Western Pacific, Washington is investing heavily in systems capable of holding those assets at risk.

General Kevin B. Schneider, Commander of Pacific Air Forces, emphasized the strategic importance of the development.

“The B-2’s impressive performance underscores the US military’s commitment to adaptability and flexibility in the face of emerging security challenges,” Schneider said. “By prioritizing counter-maritime strike operations, we can maintain a decisive edge over adversaries, protect our national interests, and ensure the free and open Pacific that underpins our global security.”

The AGM-158C LRASM has already become a key anti-ship weapon within the US military, but until now, publicly acknowledged launch platforms were limited.

The missile is operational on the B-1B Lancer bomber and the Navy’s F/A-18E/F Super Hornet. Efforts are also underway to integrate the weapon onto additional aircraft, including the F-35 Lightning II, F-16 Viper, F-15E Strike Eagle, F-15EX Eagle II, P-8A Poseidon maritime patrol aircraft, and eventually the B-52 Stratofortress.

The addition of the B-2 introduces a unique capability. Unlike most other launch platforms, the stealth bomber can approach contested areas with a much lower probability of detection. Combined with the missile’s own stealth characteristics, the pairing creates what many analysts describe as a “stealth-on-stealth” strike capability.

This combination could prove especially valuable in future conflicts involving advanced military powers equipped with sophisticated air-defense and electronic warfare systems.

The LRASM launch follows earlier efforts by the Air Force to expand the B-2’s maritime strike mission.

During the Rim of the Pacific (RIMPAC) exercise in 2024, a B-2 successfully employed the QUICKSINK weapon to destroy the decommissioned amphibious assault ship USS Tarawa. QUICKSINK is a low-cost precision-guided capability designed to rapidly convert conventional bombs into effective ship-killing weapons.

That test attracted considerable attention because of its relevance to potential future operations in the Pacific. Military planners have long sought affordable methods to target enemy surface fleets, particularly in scenarios involving China.

The successful integration of LRASM represents a substantial step beyond QUICKSINK. While the earlier weapon offered a cost-effective anti-ship solution, LRASM provides significantly greater range, survivability, autonomy, and lethality.

As a result, the B-2 now possesses a much more capable maritime strike option that can engage targets without requiring the aircraft to approach heavily defended naval formations.

Developed by Lockheed Martin, the AGM-158C LRASM is derived from the combat-proven Joint Air-to-Surface Standoff Missile (JASSM) family.

According to the manufacturer, LRASM is “a precision-guided intelligent anti-ship missile devised to interdict a variety of surface threats at very long range, navigating semi-autonomously to the target, and delivering a precise payload from safe, standoff range.”

The missile was developed to address shortcomings associated with older anti-ship weapons such as the Harpoon missile, which many defense experts consider increasingly vulnerable in modern contested environments.

One of LRASM’s most important advantages is its range. The missile can travel more than 200 nautical miles, or approximately 370 kilometers, before striking its target. This allows launch aircraft to remain far from enemy defenses while still holding hostile vessels at risk.

Beyond surface warships, the missile can reportedly engage a variety of targets, including aircraft, drones, land-based objectives, and even submarines operating in shallow waters.

Its versatility makes it a valuable asset in complex maritime environments where multiple threats may be present simultaneously.

A defining characteristic of LRASM is its sophisticated guidance and targeting architecture.

The missile initially navigates toward a designated target area using a GPS-assisted Inertial Navigation System. However, unlike many traditional precision-guided munitions, LRASM was specifically designed to operate in environments where GPS signals may be degraded or denied.

Once en route, the missile can rely on an onboard electronic support measures package and advanced route-planning capabilities to continue its mission. This significantly reduces dependence on external intelligence, surveillance, reconnaissance, or communications networks.

The weapon’s ability to function with limited external support is particularly important in modern warfare, where adversaries are expected to aggressively jam communications and disrupt satellite navigation systems.

During the terminal phase of flight, LRASM employs a passive infrared imaging sensor to identify and strike targets. Because the sensor operates passively, it is difficult to detect and is largely resistant to traditional electronic jamming techniques.

The missile can also analyze radio-frequency emissions from hostile systems, adjusting its trajectory as necessary and using those emissions to improve target identification.

These capabilities enable LRASM to autonomously locate, classify, and engage targets even in heavily contested electronic warfare environments.

Another major advantage of LRASM is its low-observable design.

Like the B-2 bomber itself, the missile incorporates stealth characteristics intended to reduce detection by enemy radar systems. This makes interception significantly more difficult and increases the likelihood that the weapon will successfully reach its intended target.

When paired with the B-2, the result is a layered stealth approach. The bomber can penetrate or approach contested regions while minimizing its exposure to enemy sensors, and the missile can continue the mission while remaining difficult to detect.

This combination complicates defensive planning for potential adversaries.

Instead of confronting a visible strike package supported by tankers, escorts, and electronic warfare aircraft, defenders may face a stealth platform capable of launching multiple low-observable missiles from long distances.

Such an attack profile significantly compresses reaction times and increases uncertainty for naval commanders attempting to protect high-value assets.

The B-2’s existing compatibility with the JASSM family suggests it could carry a substantial number of LRASMs.

The stealth bomber is capable of carrying up to 16 AGM-158A JASSM missiles. Since LRASM is derived from the same missile family and maintains a similar form factor, analysts believe the B-2 could potentially carry an equivalent load of anti-ship missiles.

If operationally configured in this manner, a single bomber could unleash a large coordinated salvo against a naval task force.

Each LRASM carries a 450-kilogram high-explosive blast-fragmentation penetrator warhead designed to inflict severe damage on large surface combatants.

The missile also possesses a datalink that allows it to receive threat updates while in flight. Furthermore, multiple LRASMs can cooperate during coordinated attacks, sharing information and optimizing target engagement strategies.

Such swarm-like behavior can overwhelm defensive systems and improve overall mission effectiveness.

The strategic significance of the B-2/LRASM combination becomes particularly apparent when viewed through the lens of a potential conflict involving Taiwan.

China has spent decades developing an extensive anti-access/area denial network intended to limit the ability of US and allied forces to operate near its coastline.

This network includes advanced surface-to-air missile systems, anti-ship ballistic missiles, long-range radars, electronic warfare assets, fighter aircraft, submarines, and an expanding fleet of modern warships.

Collectively, these capabilities are designed to make military intervention by outside powers more difficult.

The First Island Chain, stretching from Japan through Taiwan and the Philippines, occupies a central place in Chinese military planning. Beijing has steadily increased its military presence within this region and frequently deploys naval forces, including aircraft carriers, into surrounding waters.

In a conflict scenario, Chinese naval formations could play a critical role in enforcing blockades, projecting power, and supporting military operations.

The ability to strike those formations from long distances therefore carries considerable strategic value.

Military simulations and war games have repeatedly highlighted the importance of long-range anti-ship weapons in a Western Pacific conflict.

Analysts have argued that standoff attacks against naval forces represent one of the most effective methods for slowing or disrupting an invasion force before it reaches its objectives.

The B-2 and LRASM combination appears tailored for precisely this type of mission.

A stealth bomber operating from distant bases could approach contested regions, launch multiple anti-ship missiles, and withdraw without entering the most heavily defended areas.

Meanwhile, the missiles themselves could navigate independently toward targets while resisting detection and electronic interference.

This approach leverages traditional American strengths in stealth technology, precision strike, and long-range power projection.

It also provides a means of offsetting some of China’s geographic advantages near its home territory.

While Beijing benefits from operating close to its own bases and support infrastructure, the United States can exploit advanced technologies that complicate Chinese planning and increase the risks faced by naval forces operating in contested waters.

The successful firing of an AGM-158C LRASM by a B-2 Spirit bomber marks a notable evolution in the aircraft’s mission set and reflects broader changes in US military strategy.

No longer limited primarily to strategic bombing missions against land targets, the B-2 is increasingly becoming a versatile platform capable of conducting sophisticated maritime strike operations against some of the most heavily defended targets in the world.

By combining a stealth bomber with a stealth anti-ship missile, the United States has introduced a powerful capability designed to challenge advanced naval forces and preserve operational freedom in contested regions.

As tensions continue to shape the security environment in the Indo-Pacific, the B-2’s new maritime strike role is likely to become an increasingly important element of American deterrence and warfighting plans.

For Washington, the integration of LRASM onto the B-2 is more than a technical achievement. It represents a strategic investment in maintaining an edge against near-peer competitors and ensuring that hostile fleets remain vulnerable even in the most challenging operational environments.

India’s growing mastery of Gallium Nitride (GaN) semiconductor technology is rapidly transforming the country’s next generation of air-to-air missile systems, marking a decisive leap in radar seeker capability, electronic warfare resilience, and indigenous defence manufacturing.

At the heart of this transformation lies a major shift away from older Gallium Arsenide (GaAs)-based radar seekers toward far more powerful and efficient GaN architectures. Defence scientists and strategic analysts increasingly view this transition as one of the most consequential upgrades in modern missile technology, particularly as aerial combat becomes dominated by electronic warfare, signal denial, and high-speed target tracking.

From a scientific standpoint, GaN possesses a significantly wider “bandgap” of approximately 3.4 electron-volts (eV), giving it major physical advantages over traditional GaAs systems. In semiconductor physics, a wider bandgap allows electronic components to withstand much higher voltages, temperatures, and power loads without performance degradation.

For missile seekers, this translates directly into battlefield superiority.

Modern active radar seekers rely on transmitting powerful radio-frequency signals toward enemy aircraft and analysing the reflected echoes to guide the missile to impact. The stronger and cleaner the transmitted signal, the harder it becomes for hostile aircraft to evade detection or disrupt the missile’s lock.

GaN technology dramatically increases this capability.

Compared to older GaAs-based modules, GaN-powered seekers can deliver between five and ten times greater power density. Rather than acting as a conventional radar emitter, the missile effectively becomes an extremely intense directed energy source capable of overpowering enemy electronic countermeasures (ECM).

This enhanced output is particularly important in contested airspaces where adversaries deploy advanced jamming systems designed to blind incoming missiles using electronic noise, false targets, or deceptive radio-frequency signals.

Under previous generations of seeker technology, heavy jamming could degrade missile accuracy or even break radar lock entirely. GaN changes that equation through a phenomenon known as “burn-through.”

Burn-through occurs when the radar seeker’s transmitted energy becomes so powerful that it pierces through hostile electronic interference and successfully isolates the genuine target signal hidden behind the jamming cloud. Once this occurs, the missile regains a stable tracking solution and continues guiding toward the aircraft despite ongoing electronic attack.

Military planners consider this capability increasingly critical as modern fighter aircraft integrate highly sophisticated Digital Radio Frequency Memory (DRFM) jammers. These systems capture incoming radar signals, manipulate them, and retransmit deceptive copies in an attempt to confuse missile seekers and create phantom targets.

GaN-equipped seekers are specifically designed to survive in such environments.

Another major advantage of GaN lies in thermal resilience. High-speed missile flight generates extreme aerodynamic friction, particularly during engagements above Mach 3. Internal seeker electronics can rapidly overheat under such conditions, reducing performance and reliability.

Traditional GaAs components suffer substantial efficiency losses as temperatures rise. This thermal vulnerability has long constrained seeker performance and required bulky cooling systems inside missile bodies.

GaN, however, performs exceptionally well under intense heat stress.

Defence engineers note that GaN systems can maintain operational efficiency at temperatures exceeding 250 degrees Celsius without major degradation. Because the material itself naturally tolerates elevated thermal loads, designers can reduce the size and complexity of onboard cooling systems.

This creates valuable internal space within the missile for additional sensors, processing hardware, fuel optimisation, or larger warhead configurations.

The resulting improvement in size, weight, power, and cost — commonly referred to in defence engineering as SWaP-C optimisation — enables more capable weapons without increasing missile dimensions. In practical terms, missiles become lighter, smarter, and deadlier while preserving aerodynamic efficiency and operational range.

The benefits extend beyond power and heat management.

GaN technology also offers exceptional flexibility across a broad range of radar frequencies. This characteristic allows missile seekers to perform rapid “frequency hopping” during flight.

Frequency hopping is a critical electronic counter-countermeasure (ECCM) tactic in which the radar seeker continuously shifts between different transmission frequencies to avoid enemy jamming attempts. If hostile systems begin disrupting one radar band, the seeker instantly transitions to another frequency while maintaining target lock.

This agility severely complicates enemy defensive operations.

DRFM jammers are generally optimised to identify and attack predictable radar emissions. GaN’s ability to rapidly process and shift frequencies in real time makes it far harder for adversaries to anticipate seeker behaviour or sustain effective electronic suppression.

Defence analysts believe this capability will play a decisive role in future conflicts where electromagnetic dominance may determine aerial superiority as much as manoeuvrability or missile range.

The technology also opens the door to advanced multi-mode seekers, which are expected to define the next generation of beyond-visual-range air combat missiles.

Future systems will increasingly combine active radar guidance with passive Imaging Infrared (IIR) sensors. Active radar seekers emit signals and track reflected energy, while IIR systems passively detect the heat signatures of aircraft engines and aerodynamic surfaces.

Combining both guidance methods creates a much more resilient kill chain.

If an enemy aircraft successfully disrupts radar guidance through jamming, the infrared seeker can continue tracking the thermal signature independently. Conversely, if infrared countermeasures attempt to mask heat emissions, the radar channel remains active.

GaN’s high-speed signal processing capability is essential for enabling these dual-sensor systems to operate simultaneously and fuse targeting information in real time. This dramatically reduces the probability of successfully spoofing or deceiving the missile.

Military experts increasingly regard multi-mode seekers as necessary against fifth-generation fighter aircraft operating with stealth shaping, electronic attack systems, and integrated defensive suites.

Beyond combat performance, India’s progress in indigenous GaN manufacturing carries major strategic significance.

Historically, advanced GaN semiconductor modules have been tightly controlled under international export regimes because of their importance in radar, missile, and electronic warfare systems. Several countries have imposed restrictions on transferring such technologies to preserve military advantages and prevent sensitive proliferation.

India has previously experienced technology denial in critical defence sectors, particularly concerning advanced radar and propulsion systems.

In response, Indian defence laboratories initiated long-term efforts to establish domestic semiconductor and microwave electronics capability. Key contributions came from the Defence Research and Development Organisation (DRDO), especially the Solid State Physics Laboratory (SSPL) in Delhi and the Gallium Arsenide Enabling Technology Centre (GAETEC) in Hyderabad.

Their work has enabled India to reduce reliance on foreign suppliers for high-performance radar modules and microwave components.

Strategically, indigenous production offers several advantages.

First, it shields critical missile programmes from geopolitical pressure, sanctions, or export embargoes that could disrupt supply chains during crises. Second, local manufacturing enables faster iterative upgrades, allowing engineers to refine seeker performance without depending on foreign approval or external vendors.

This becomes especially important for future missile projects such as the Astra Mk3, also known as Gandiva, which is expected to feature a range of approximately 350 kilometres alongside advanced seeker technologies tailored for highly contested electronic warfare environments.

The contrast between legacy missile seekers and emerging GaN-equipped systems is substantial.

Earlier generations offered comparatively limited transmission power, weaker resistance to jamming, reduced thermal tolerance, and narrower frequency agility. Against modern electronic warfare systems, such seekers faced growing survivability challenges.

GaN seekers, by comparison, provide vastly superior energy output, stronger ECCM capability, improved detection ranges, enhanced tracking stability, and significantly better resistance to hostile interference.

These characteristics could prove decisive in operational theatres such as the Line of Actual Control (LAC), where both India and regional adversaries continue investing heavily in electronic warfare, integrated air defence systems, and advanced airborne sensors.

In such environments, aerial combat is no longer determined solely by speed, manoeuvrability, or explosive power. Increasingly, victory depends on the invisible electromagnetic battle occurring between radars, jammers, seekers, and signal processors.

The side capable of maintaining target tracking through dense electronic interference gains a decisive operational advantage.

India’s advancement in GaN missile seeker technology therefore represents more than a technical upgrade. It signals a broader evolution in the country’s defence-industrial capability and its ability to compete in the rapidly changing landscape of modern network-centric warfare.

India’s advanced negotiations with Russia over the acquisition and integration of the R-37M very-long-range air-to-air missile (VLRAAM) onto the Indian Air Force’s Su-30MKI fleet mark a significant evolution in New Delhi’s airpower strategy, aimed squarely at reshaping the aerial balance in South Asia by targeting the critical airborne enablers of modern network-centric warfare.

The talks, which gathered momentum in late 2025, reflect a growing sense of operational urgency within the Indian Air Force (IAF). Lessons drawn from post-Balakot air combat dynamics and subsequent regional developments have underscored India’s vulnerability to adversaries equipped with advanced beyond-visual-range (BVR) missiles supported by persistent airborne early warning, command-and-control, and electronic warfare platforms.

A defence official familiar with the discussions said Russia has offered a comprehensive proposal that includes immediate off-the-shelf delivery of the R-37M, followed by a possible technology transfer arrangement to enable production or assembly in India. The structure of the offer reflects New Delhi’s dual priorities: rapidly closing a critical capability gap while reinforcing long-term defence-industrial self-reliance under its localisation frameworks.

Russian officials involved in the dialogue have highlighted that the R-37M is specifically designed to destroy high-value airborne targets such as airborne warning and control system (AWACS) aircraft, aerial refuellers, and electronic warfare platforms at ranges exceeding 200 kilometres. This framing positions the missile not as a conventional dogfight weapon, but as a strategic force multiplier capable of unravelling an adversary’s entire air campaign.

The potential induction comes amid heightened tensions with China along the Line of Actual Control (LAC) and persistent aerial rivalry with Pakistan. In both theatres, the ability to disrupt or neutralise airborne command-and-control nodes has become central to escalation dominance and early-phase conflict shaping.

With more than 260 Su-30MKI fighters forming the backbone of the IAF’s air superiority fleet, equipping even a portion of these aircraft with hypersonic-class VLRAAMs would have consequences extending far beyond tactical air combat. By pairing a long-endurance, high-payload fighter with a missile optimised for standoff destruction of mission-critical aircraft, India is exploring a doctrine focused on blinding enemy air operations before they can meaningfully influence the battlespace.

 

The R-37M occupies a unique niche in contemporary air combat. Engineered primarily as a counter-enabler weapon, it is designed to neutralise the airborne assets that sustain modern networked warfare rather than to dominate traditional fighter-versus-fighter engagements. Its assessed engagement range—often cited between 300 and 400 kilometres depending on launch altitude and speed—far exceeds that of most BVR missiles currently deployed in South Asia.

The missile’s hypersonic terminal velocity, reportedly approaching Mach 6, dramatically compresses enemy reaction timelines, reducing the effectiveness of electronic countermeasures and evasive manoeuvres. Its dual-pulse solid rocket motor, combined with inertial navigation and mid-course updates, allows it to retain energy over extreme distances while remaining resilient in contested electromagnetic environments.

Operationally, this enables an R-37M-equipped fighter to impose strategic effects without penetrating heavily defended airspace. Launches can be conducted from within friendly or contested zones, a capability of particular relevance in high-altitude theatres such as Ladakh, where terrain and radar horizons amplify the importance of long-range air denial.

For the IAF, the missile represents not an incremental upgrade, but a qualitative leap in how air control could be contested during the opening stages of a high-intensity conflict.

The Su-30MKI has long been regarded as one of Asia’s most capable heavy fighters, but its potential as a long-range air dominance platform has been constrained more by missile reach than by airframe performance. Russian proposals reportedly include configuring the aircraft to carry up to eight R-37M missiles in a dedicated air-to-air loadout, effectively transforming the Su-30MKI into a high-end missile carrier capable of saturating vast airspace volumes with hypersonic threats.

Such a configuration leverages the aircraft’s substantial payload capacity, long endurance, and twin-engine reliability, enabling extended on-station presence while exerting sustained pressure on adversary support aircraft. This evolution aligns closely with India’s “Super Sukhoi” modernisation programme, which aims to extend the platform’s operational relevance through upgraded avionics, sensors, and electronic warfare systems.

The integration of advanced active electronically scanned array (AESA) radars—both foreign and indigenous—is central to fully exploiting the R-37M’s kinematic envelope. Improved detection ranges and track quality would allow Su-30MKIs to launch at standoff distances without exclusive reliance on offboard targeting from other platforms.

Doctrinally, an R-37M-armed Su-30MKI would operate less like a traditional multirole fighter and more as a strategic interceptor shaping the air battle from afar. This would force adversaries to devote disproportionate resources to protecting high-value airborne assets, fundamentally altering air campaign planning.

The ripple effects would be felt most acutely in Beijing and Islamabad. China’s People’s Liberation Army Air Force (PLAAF) has invested heavily in a layered airpower architecture centred on AWACS platforms, long-range missiles such as the PL-15, and fifth-generation fighters. An Indian capability to threaten these airborne enablers at comparable or greater distances would complicate China’s ability to sustain air dominance along the LAC, pushing critical command and surveillance assets farther from contested airspace.

For Pakistan, the implications are even starker. The Pakistan Air Force relies on a relatively small number of high-value airborne early warning and support aircraft to offset numerical and geographic constraints. The introduction of a hypersonic AWACS-killer missile would create an acute asymmetric vulnerability, compelling changes in operational patterns, reduced on-station persistence, and increased diversion of fighter assets to defensive escort roles.

The resulting erosion of airborne sensor coverage would directly degrade the effectiveness of BVR missile employment by frontline fighters, which depends heavily on persistent offboard targeting and mid-course guidance. In this sense, the R-37M acts as a deterrent multiplier, imposing disproportionate operational and financial costs on adversaries seeking to preserve their airborne command-and-control ecosystems.

Beyond its military utility, the negotiations reveal a carefully calibrated Indian procurement strategy balancing geopolitics, industrial capacity-building, and cost-effectiveness. Russian proposals reportedly include local assembly or partial manufacturing, allowing India to absorb production know-how while reducing exposure to supply-chain disruptions during crises.

Discussions have centred on an initial acquisition of around 300 missiles—enough to equip frontline squadrons and establish a credible long-range air-denial posture across multiple theatres. At an estimated unit cost of roughly USD 4 million, the programme’s total value would approach USD 1.2 billion, a relatively modest investment given the strategic impact of neutralising adversary AWACS, refuelling, and electronic warfare aircraft.

For Russia, the deal offers sustained export revenue and reinforces the relevance of its advanced missile portfolio. For India, it strengthens strategic autonomy by diversifying high-end capabilities while avoiding overdependence on any single defence partner.

Indian planners, however, view the R-37M as an interim solution. Indigenous very-long-range air-to-air missile programmes remain a priority, driven by technological sovereignty and assured wartime supply. Yet long development timelines do not always align with immediate threat trajectories.

By integrating the R-37M now, the IAF preserves qualitative parity—or superiority—while domestic systems mature. Operational experience with hypersonic-class air-to-air missiles will also generate valuable data on sensor fusion, kill-chain resilience, and contested electromagnetic operations, informing future indigenous designs.

Ultimately, the R-37M negotiations mark a structural inflection point in India’s airpower evolution. By prioritising the destruction of airborne enablers rather than traditional fighter duels, India is signalling a doctrinal shift toward attacking the systemic foundations of adversary air operations.

If successfully integrated, the missile would reconfigure the Su-30MKI into a long-range strategic interceptor capable of compressing enemy decision-making cycles and reshaping crisis stability across South Asia. In an era defined by sensor dominance and missile kinematics, the R-37M could herald the arrival of a new hypersonic air-to-air deterrence paradigm in the subcontinent, with lasting implications for regional security and the future character of air warfare.

Israel’s leaders are jubilant about the progress of the offensive against Hezbollah that started with the detonation of weaponised pagers and radios and moved on to intense and deadly airstrikes.

Defence Minister Yoav Gallant did not hold back his praise after Monday’s air strikes.

“Today was a masterpiece… This was the worst week Hezbollah has had since its establishment, and the results speak for themselves.”

Gallant said airstrikes destroyed thousands of rockets that could have killed Israeli citizens. In the process Lebanon says Israel killed more than 550 of its citizens, including 50 children. That is almost half Lebanon’s dead in a month of war between Israel and Hezbollah in 2006.

Israel believes that a ferocious offensive will coerce Hezbollah into doing what it wants, inflicting so much pain that its leader Hassan Nasrallah and his allies and backers in Iran decide that the price of resistance is too high.

Israel’s politicians and generals need a victory. After almost a year of war Gaza has become a quagmire. Hamas fighters still emerge out of tunnels and ruins to kill and wound Israeli soldiers and are still holding Israeli hostages.

Hamas caught Israel by surprise last October. The Israelis did not see Hamas as a significant threat, with devastating consequences. Lebanon is different. The Israel Defense Forces (IDF) and the Mossad spy agency have been planning the next war against Hezbollah since the last war ended in a stalemate in 2006.

Israel’s leader, Prime Minister Benjamin Netanyahu, believes the current offensive is making big progress towards his declared objective of tipping the balance of power away from Hezbollah.

He wants to stop Hezbollah firing rockets over the border into Israel. At the same time, the Israeli military says the plan is to force Hezbollah back from the border and to destroy military facilities that threaten Israel.