India
In a powerful and revealing statement, the Deputy Chief of Army Staff, Lieutenant General Rahul R. Singh, has accused China of using the recent India-Pakistan military confrontation as a “live laboratory” to test its weapons and tactics—using Pakistan as the front and backing it with full strategic and military support. Speaking at an event hosted by FICCI (Federation of Indian Chambers of Commerce & Industry), Lt Gen Singh laid bare how China played an active behind-the-scenes role during Operation Sindoor, the Indian military response launched on May 7 against terrorist camps in Pakistan and Pakistan-occupied Kashmir (PoK). The operation came in retaliation to the Pahalgam terror attack on April 22, which claimed several Indian lives. Over the course of the four-day conflict that followed, India and Pakistan engaged in intense cross-border hostilities. However, according to Lt Gen Singh, India wasn’t only dealing with its traditional rival Pakistan, but was effectively facing a triad of adversaries—Pakistan as the executor, China as the enabler, and Turkiye as a significant military supplier. China, he said, supplied Pakistan with extensive military support, including weapons, technology, and surveillance tools, and even allegedly tested new weapon systems on Pakistani soil during the hostilities. This support wasn’t a surprise, the general pointed out, as a staggering 81% of Pakistan’s military hardware in the last five years has originated from China. “He would rather use the neighbour to cause pain to India than get involved in a mudslinging match on the northern border,” Lt Gen Singh remarked, referring to Beijing’s strategic approach. He drew attention to an ancient Chinese military concept from the “36 stratagems” – the tactic of “killing with a borrowed knife,” where an enemy is attacked through a proxy. “That’s exactly what we saw,” he emphasized. China’s assistance during Operation Sindoor reportedly included logistical, technological, and operational aid. Drones, some suspected to have been supplied by Turkiye, were used to bolster Pakistan’s response. “We saw numerous drones coming and landing during the war, along with the individuals who were there,” Lt Gen Singh added, referring to Turkish-origin drones that had been spotted during the conflict. Despite this three-pronged pressure, Lt Gen Singh said the Indian response was strong, data-driven, and strategically planned. The Indian armed forces used detailed intelligence to select high-value targets in Pakistan and PoK, and the country’s political leadership conveyed a clear and firm message to the adversaries. India’s Operation Sindoor reportedly dealt a significant blow to Pakistan’s terror infrastructure and military assets. By May 10, with casualties mounting and pressure intensifying, Islamabad was reportedly forced to seek an end to hostilities. The revelation that China treated the India-Pakistan conflict as a “testbed” for its weapons has added a new layer of complexity to the regional security landscape. It also highlights the deepening military ties between China and Pakistan, raising concerns for India and its defense establishment about future confrontations. Lt Gen Singh’s comments underline the challenges India faces in a changing security environment, where state-sponsored proxies and trilateral partnerships are increasingly being used to undermine national sovereignty.
Read More → Posted on 2025-07-04 15:18:31
World
Russia has dramatically increased the production of its most advanced battle tank, the T-90M "Proryv," as part of a broader strategy to maintain armored dominance in the ongoing Ukraine conflict and prepare for long-term confrontation with NATO. With current production now estimated at up to 300 tanks per year—five times higher than pre-war levels—Russia aims to hit an ambitious target of 1,000 units annually by 2028. This expansion, centered at the Uralvagonzavod tank plant, is backed by government investment, factory upgrades, and a focused defense industrial policy resilient to Western sanctions. The T-90M is not just a modern tank; it represents a complete rethink of Russian armored warfare, incorporating battlefield lessons from Syria and Ukraine. Compared to its older T-90 variants, the Proryv features a new 125mm 2A82-1M gun, digital fire control, modern optics, advanced battlefield networking, and heavily reinforced armor. Its Relikt explosive reactive armor (ERA) system, which replaces the older Kontakt-5, offers improved protection against tandem warheads and armor-piercing rounds. The tank also includes additional cage (slat) armor and counter-drone measures to survive modern threats like loitering munitions and FPV drones. What makes the T-90M stand out is how it blends combat effectiveness with mass production. Russia's vertically integrated manufacturing allows Uralvagonzavod to maintain steady production despite supply-chain restrictions. Unlike Western countries that depend on transnational suppliers and long lead times, Russia builds most tank components domestically, from casted armor hulls to fire-control computers. This makes rapid production scale-ups possible even under heavy sanctions. On the battlefield, the T-90M has demonstrated high survivability and firepower in support and breakthrough operations. While Russia has lost over 3,000 tanks in the war so far, the steady flow of new T-90Ms—an estimated 540 to 630 built since 2022—has helped refill frontline stocks. Around 130 of these have been confirmed destroyed, meaning roughly 500 are still active or in reserve. As Russia adapts to new battlefield threats, each new batch of T-90Ms includes incremental upgrades, like electronic warfare systems to jam drone signals and advanced smoke screens to evade top-attack missiles. How the T-90M Stands Against Western Tanks When compared to NATO-standard tanks like the American M1 Abrams or British Challenger 2, the T-90M holds its ground in surprising ways, especially in the conditions seen on Ukrainian soil: Survivability: The T-90M features Relikt ERA, cage armor, and active countermeasures that increase its chances against modern threats like Javelin missiles and drone strikes. In contrast, Abrams tanks supplied to Ukraine lack Trophy active protection systems, making them more vulnerable. Firepower: With its new-generation 125mm smoothbore gun and autoloader system, the T-90M can fire a wide range of munitions—including guided missiles—at high speed. Western tanks often rely on manual loading, requiring a fourth crew member and limiting rate of fire. Mobility and Crew Efficiency: Weighing less than an Abrams, the T-90M has better fuel efficiency and is easier to transport and maintain, especially on muddy or soft terrain. Its three-man crew layout (thanks to the autoloader) reduces manpower needs while maintaining combat effectiveness. Combat Adaptability: The T-90M has been designed with battlefield flexibility in mind, including Arctic and steppe operations. It also integrates more tightly with Russian combined arms doctrine, pairing with infantry and artillery in coordinated assaults. This is unlike NATO doctrine, which relies heavily on air support—something Ukraine cannot always replicate. Cost and Scale: T-90Ms are significantly cheaper and faster to produce than Western tanks, making them more suitable for high-intensity conflicts where large numbers matter. While each Abrams or Challenger 2 takes months to deliver and costs millions of dollars, Russia can churn out hundreds of T-90Ms yearly for a fraction of the price. Powered by a 1,130-hp diesel engine, the T-90M can reach speeds of up to 70 km/h with a range of 550 km. Its secondary weapons include a 7.62mm coaxial machine gun and a 12.7mm remotely controlled heavy machine gun. Newer versions are also being tested with hard-kill active protection systems and drone detectors, signaling Russia’s shift toward even more survivable platforms. Strategic Implications If Russia meets its 1,000-per-year production goal by 2028, the T-90M could become a dominant force in Eurasian armored warfare. Its increasing numbers, affordability, and battlefield resilience make it a potent symbol of Russia’s military endurance. For NATO, this poses a growing challenge, especially for countries near the alliance’s eastern flank. As the war in Ukraine drags on, the T-90M is not only filling the gaps left by battlefield losses but also laying the foundation for Russia’s post-war armored strength. With each passing year, its presence on the battlefield grows—quieter than a missile, slower than a drone, but just as decisive when the breakthrough moment arrives.
Read More → Posted on 2025-07-04 15:05:34
World
In the wake of last month’s intense 12-day conflict, Iran has claimed that its large-scale missile and drone offensive seriously challenged Israel’s famed Iron Dome defense system, exposing vulnerabilities in the country’s air defense architecture. Iranian officials argue that the scale and intensity of the attack revealed that Israel’s missile shield, once thought nearly impenetrable, could be weakened by overwhelming firepower. During the early hours of the confrontation, Iran launched over 150 ballistic missiles and 350 drones toward Israeli territory in what it described as a retaliatory response to Israeli strikes on Iranian nuclear facilities. Iranian Parliament Speaker Mohammad Baqer Qalibaf stated that these attacks inflicted considerable damage on military and strategic sites inside Israel, despite American and NATO support. Qalibaf declared, “The Zionist regime received a decisive response. The Iron Dome, which was once touted as the backbone of their security, failed to provide full protection.” But the explanation behind this apparent failure lies in the limitations of Israel’s layered air defense system. Iron Dome: Effective, But Limited While the Iron Dome is a well-regarded short-range defense system designed to intercept incoming rockets, artillery shells, and mortars, it was never intended to counter long-range ballistic missiles. That task falls to Israel’s higher-tier systems — primarily the Arrow 2, Arrow 3, and David’s Sling — which are built to engage more complex, high-altitude threats such as ballistic and cruise missiles. However, the sheer volume of Iranian ballistic missiles fired at once appears to have overwhelmed even these sophisticated systems. Israeli defenses reportedly intercepted around 60% of the incoming ballistic missiles, but not without difficulty. Several made it through, striking sensitive areas and causing damage. One of the main reasons for the shortfall in interception was the limited availability of interceptor missiles, especially for Arrow 2 and Arrow 3 systems. Israeli defense planners reportedly did not anticipate an attack of such scale, particularly the simultaneous launch of hundreds of drones and long-range missiles. This created a situation where the interceptors were simply outnumbered, reducing the overall success rate. A Calculated Iranian Strategy Iran’s barrage was not just about numbers, but also about strategic planning. By launching waves of drones alongside ballistic missiles, Iran aimed to saturate Israel’s radar and missile-tracking systems, forcing them to prioritize and potentially miss some targets. Iranian officials claim that this approach allowed their missiles to penetrate deep into Israeli-held areas — something rarely achieved in previous conflicts. The offensive also served as a political statement. Tehran intended to demonstrate that Israel’s reliance on its air defense systems alone would not be enough to guarantee national security, especially in a conflict scenario without full U.S. military backing. Qalibaf warned that any future aggression by Israel would be met with an even more forceful and coordinated military response. The Bigger Picture: Escalating Tensions The 12-day war, which began on June 13 after Israeli strikes targeted Iranian nuclear sites at Fordow, Isfahan, and Natanz, came at a time when nuclear talks between the U.S. and Iran had shown signs of revival. But the conflict not only derailed those discussions but also pushed the region into a more volatile phase. The war ended on June 24 with a fragile ceasefire, but tensions remain high. A day later, Iran’s parliament voted to suspend cooperation with the International Atomic Energy Agency (IAEA), deepening the diplomatic standoff. Iranian authorities also reported that over 900 people were killed during the conflict, including civilians, nuclear scientists, and high-ranking military personnel. Iran’s claims about “nullifying” the Iron Dome may be an exaggeration, but the conflict did highlight serious challenges for Israel's air defense network in the face of a large-scale, multi-pronged missile attack. While Israel’s defense systems did prevent even greater damage, the limitations exposed during the war may push Israeli military planners to reassess stockpiles, readiness, and future strategies to deal with evolving threats. The conflict underscored a sobering reality: even the most advanced missile shields can be stretched thin when adversaries change the rules of engagement.
Read More → Posted on 2025-07-04 14:55:46
World
In a landmark demonstration that signals the future of aerial warfare, the United States Air Force has successfully advanced human-machine teaming during a live combat training flight held at Eglin Air Force Base in Florida. The exercise featured crewed fighter jets working alongside semi-autonomous drones, marking a major step in integrating artificial intelligence into battlefield operations. During the training, pilots flying an F-16C Fighting Falcon and an F-15E Strike Eagle each controlled two XQ-58A Valkyrie autonomous collaborative platforms (ACPs). These drones operated in coordination with the manned jets in a simulated air combat environment, showcasing how future missions could be executed by mixed teams of humans and machines. The XQ-58A Valkyrie, developed by Kratos Defense, is a low-cost, high-performance unmanned aircraft system (UAS) designed to act as a wingman to manned combat aircraft. It can perform multiple roles such as scouting, electronic warfare, and even precision strikes—without risking a pilot’s life. The Valkyrie is capable of flying at high subsonic speeds, with a range of up to 3,000 nautical miles, and can carry a mix of payloads depending on mission requirements. This exercise demonstrated real-time collaboration between pilots and drones, emphasizing the strategic value of autonomous systems that can operate in dangerous airspaces, make mission-based decisions, and adapt to dynamic threats. While the drones flew semi-independently, the pilots retained ultimate control, allowing for ethical oversight and mission flexibility. The project was supported by the Rapid Defense Experimentation Reserve (RDER) program, under the Office of the Undersecretary of Defense for Research and Engineering. It was a joint mission involving the Air Force Research Laboratory (AFRL), Air Combat Command, Air Force Test Center, and even the U.S. Navy—showing how cross-service cooperation is shaping the next era of defense technology. According to Gen. Ken Wilsbach, commander of Air Combat Command, this flight was not just a test of new aircraft, but of a new strategy. "We are committed to integrating ACPs through these kinds of demanding, operator-driven evaluations that allow us to learn rapidly and enhance our human-machine teams," he said. The Air Force envisions a future where drones like the Valkyrie fly ahead of manned fighters, scout enemy positions, jam radar systems, or even draw fire—preserving the safety of pilots while expanding combat effectiveness. These unmanned systems can be rapidly upgraded with new software or mission-specific modules, adding significant adaptability to the U.S. Air Force’s operational toolset. Brig Gen. Jason Bartolomei, commander of AFRL, emphasized that this test flight marks a critical turning point: “By developing and integrating autonomous platforms with manned systems, we can quickly adapt, increase combat effectiveness, and reduce risk to our aircrews in contested environments.” As future air battles become faster and more complex, human-machine teaming will allow pilots to focus on strategic decisions while autonomous drones handle tactical execution. With insights from this exercise, the Air Force plans to refine its drone platforms and command systems, paving the way for next-generation air dominance. The Air Force Research Laboratory, which leads scientific and technological development for the service, remains at the center of this innovation. Its mission—to turn cutting-edge science into battlefield-ready capabilities—is proving vital as the U.S. prepares for the challenges of modern, contested airspaces.
Read More → Posted on 2025-07-04 14:39:44
India
Russia is making a major offer to bolster India's underwater warfare capabilities as both countries prepare for their 23rd annual high-level summit in September 2025, during Russian President Vladimir Putin’s planned visit to India. The centerpiece of this offer includes six refurbished Kilo-class conventional submarines, the lease of a second Akula-class nuclear-powered attack submarine, and advanced 1,500 km-range Kalibr cruise missiles—technologies that Russia has rarely offered in the past. This comes at a time when the Indian Navy is facing a serious challenge: most of its conventional submarines, acquired during the 1980s, are nearing retirement, creating a capability gap until the new Project 75I submarines arrive by the mid-2030s. Meanwhile, both Pakistan and China are rapidly expanding their own submarine fleets. Pakistan is set to receive its first of eight Chinese-built Yuan-class submarines this year, while China is producing multiple nuclear-powered submarines annually. The Kilo-Class Offer Russia has proposed the sale of six refurbished Kilo-class submarines, which are part of the Indian Navy's existing fleet. These diesel-electric attack submarines are known for their stealth, endurance, and torpedo capabilities. Under this proposal, the submarines would be delivered at a rate of one per year over six years. In addition to refurbishment, Russia is offering to upgrade these submarines with the ability to launch cruise missiles from all six of their torpedo tubes. Currently, Indian Kilo-class submarines can fire missiles from only two tubes. This would significantly enhance their strike power and flexibility in naval combat operations. Long-Range Kalibr Missile Package One of the most notable parts of Russia’s proposal is the offer to supply Kalibr land-attack cruise missiles with ranges of up to 1,500 kilometers. These long-range variants were previously withheld by Moscow, and even India's leased Chakra III nuclear submarine was only equipped with the 500-kilometer version. The Kalibr missiles are capable of striking deep inland targets with high precision and could greatly enhance India’s ability to project power from the sea. If integrated across both Kilo and nuclear-powered submarines, these missiles would give India a formidable sea-based conventional strike capability, rivaling the U.S. Tomahawk missile in performance. Second Akula-Class Nuclear Submarine Russia has also renewed its offer to lease a second Akula-class nuclear-powered attack submarine to India. This would complement the INS Chakra III, which is already under a $3 billion, 10-year lease and scheduled to join the Navy in 2028. The Akula-class submarines are powered by nuclear reactors, allowing them to remain submerged for months and operate silently over long distances. While they carry only conventional weapons, their stealth and endurance make them ideal for patrolling vast ocean areas, trailing enemy submarines, and delivering cruise missile strikes. India’s plan to lease another Akula fills the gap until its own Project 77 indigenous nuclear submarines begin arriving by the late 2030s. Strategic Context and Implications This Russian offer comes amid growing competition in India’s defense market, particularly from the United States. Over the last few years, Washington has emerged as a significant arms supplier to India, but remains hesitant to transfer key technologies like nuclear-powered submarines or long-range cruise missiles. Russia, on the other hand, is leveraging its decades-old defense ties with India by focusing on these high-end areas where the U.S. cannot or will not compete. India has also been pushing for greater self-reliance in defense production. However, with urgent gaps in submarine capability and delays in indigenous programs, the Russian offer provides a timely and strategic bridge. This move also reinforces the India-Russia defense partnership, which remains vital despite geopolitical pressures and supply challenges posed by the ongoing Russia-Ukraine war. Over 60% of India’s defense inventory is of Russian origin, and both countries continue to jointly develop systems like the BrahMos missile, which India recently used during Operation Sindoor. As President Putin prepares to visit New Delhi in September 2025, these proposals will be central to discussions at the 23rd India-Russia summit. If accepted, the offers could shape the Indian Navy's combat capabilities for the next decade, especially in light of increasing maritime threats from neighboring adversaries. For India, this is more than just a procurement opportunity—it is a critical moment to fill pressing capability gaps and maintain underwater dominance in a rapidly evolving regional security landscape.
Read More → Posted on 2025-07-03 16:29:59
World
China has successfully tested its advanced Feitian 2 hypersonic missile system in a breakthrough that could redefine the future of missile and aerospace technology. Conducted in northwestern China, this test marked a significant milestone in hypersonic flight as the vehicle demonstrated its ability to autonomously switch propulsion modes mid-flight—an engineering feat that very few nations have achieved so far. Feitian 2 is developed by Northwestern Polytechnical University in collaboration with the Shaanxi Province Aerospace and Astronautics Propulsion Research Institute. It builds on the legacy of the earlier Feitian 1, which was flight-tested in July 2022. However, Feitian 2 goes a step further by introducing more advanced design features, propulsion flexibility, and flight autonomy. A Closer Look at the Technology Behind Feitian 2 What makes Feitian 2 stand out is its rocket-based combined cycle (RBCC) engine. This hybrid propulsion system can operate in multiple modes depending on the speed and altitude of the vehicle. It starts in ejector mode, using onboard rocket engines to lift off and accelerate. Once it reaches the right speed, it transitions into ramjet mode, which uses oxygen from the atmosphere for combustion instead of carrying heavy oxidizers onboard. This switch—done mid-air during high-speed flight—is extremely challenging and rarely accomplished in real-world tests. The engine is powered by a mix of kerosene and hydrogen peroxide, unlike many other hypersonic systems that use cryogenic fuels like liquid oxygen or liquid hydrogen. This makes Feitian 2 safer and easier to handle. Kerosene is denser and more stable at room temperature, while hydrogen peroxide acts as an oxidizer that reduces overall system weight and complexity. The result is a more practical propulsion system with fewer logistical challenges. Another key technical innovation is variable-geometry air intake, which adjusts airflow into the engine in real time. This allows Feitian 2 to perform efficiently at various speeds and altitudes—an essential feature for hypersonic systems traveling at speeds above Mach 5 (five times the speed of sound). Design and Performance Upgrades Compared to Feitian 1, the Feitian 2 features larger tail fins and new wing structures near the front end, enhancing its aerodynamic stability and maneuverability. These changes are especially important for long-distance, high-speed flight where control becomes increasingly difficult due to air resistance and temperature extremes. The test flight also confirmed that Feitian 2 can operate fully autonomously. It made adjustments to its angle of attack—how the vehicle is angled against incoming air—on its own, based on real-time environmental conditions and mission requirements. This level of smart flight control is critical for both military and scientific hypersonic missions in the future. Why This Matters Feitian 2’s success is not just about speed; it’s about versatility, survivability, and independence in propulsion. Its ability to use air-breathing engines partway through flight significantly improves fuel efficiency and reduces the burden of carrying large amounts of oxidizer. This allows for longer-range missions or lighter payloads—advantages that can be critical in both defense and space exploration. From a strategic perspective, this test positions China among the leaders in hypersonic technology. The RBCC engine and autonomous control systems could eventually be used for a range of military applications, such as high-speed strike weapons or rapid-reaction surveillance drones. On the civilian side, it opens the door to future technologies like ultra-fast point-to-point transport and atmospheric research vehicles. As nations race to master hypersonic flight, Feitian 2 proves that China is not only keeping pace—but also innovating with unique, potentially game-changing solutions.
Read More → Posted on 2025-07-03 16:17:49
India
India is set to take a major leap in futuristic defence capabilities as the Defence Research and Development Organisation (DRDO) prepares its indigenous 30-kilowatt laser-based Directed Energy Weapon (DEW) — codenamed ‘Sahastra Shakti’ — for user trials later this year. Designed to neutralize drones, sensors, and low-flying aerial threats, this system marks a significant stride in India’s efforts to develop high-precision, cost-effective weaponry for the future battlefield. Developed by DRDO’s Centre for High Energy Systems and Sciences (CHESS), located in Hyderabad, the system recently completed a round of successful internal demonstrations. According to defence sources, it is now ready for trials with operational users, including the Indian Army, Navy, and Air Force. The Weapon Behind the Name The Sahastra Shakti laser is a second-generation system, officially designated as the Mk-II(A) DEW, and is a significant upgrade over earlier prototypes. It uses multiple 5kW fiber laser modules, combining them to produce a continuous wave beam with a total output of 30kW. Mounted on a mobile platform, this weapon is capable of tracking, locking, and engaging targets up to 5 kilometers away. This class of weaponry, which uses high-intensity laser beams to destroy or disable targets without using traditional kinetic ammunition, is particularly effective against small drones, UAV swarms, surveillance balloons, and even soft-skinned ground targets. At its core, the system features: 360-degree Electro-Optical/Infrared (EO/IR) tracking turret Advanced beam-directing optics with automated targeting and kill-assessment Integrated radar and sensor suite for detection and cueing Truck-mounted mobility for rapid deployment and coverage of forward areas Power, Precision, and Speed The standout advantage of DEWs like Sahastra Shakti lies in their near-instantaneous target engagement. Unlike missiles or bullets, which take seconds to reach their targets, a laser beam travels at the speed of light — hitting the object almost as soon as it’s detected and tracked. This gives laser weapons a vital edge in intercepting fast-moving threats such as kamikaze drones or swarm UAVs. In successful field demonstrations conducted at DRDO’s National Open Air Range (NOAR) in Kurnool, the Sahastra Shakti DEW was able to disable reconnaissance drones, burn out their sensors, and structurally damage small UAVs in a matter of seconds. Targets were engaged at varying distances, ranging between 3.5 and 5 km, validating the system’s effectiveness in realistic threat environments. The Strategic Significance Directed Energy Weapons are no longer the stuff of science fiction. Countries like the United States, China, Russia, and Israel have already begun inducting laser-based systems into their armed forces for roles such as drone defence and base protection. With Sahastra Shakti, India is now stepping into this elite club of nations that possess operationally viable laser weapon technology. What makes laser weapons especially attractive to militaries is their cost-efficiency. Once installed, a DEW system’s cost per shot is significantly lower than traditional missiles or ammunition — often equating to just the cost of electricity required to power the laser. Moreover, there is no ammunition stockpile to maintain or reload time, which means sustained operation during swarm drone attacks or border infiltrations is feasible. This is particularly relevant in the context of recent conflicts, where inexpensive commercial drones have been used to overwhelm air defence systems. A laser weapon provides a clean, quiet, and scalable response to such threats, without the logistical burden of rearming. Scaling Up the Future According to DRDO officials, the Sahastra Shakti platform is only the beginning. Work is already underway to develop more powerful DEWs in the 50kW–100kW class, which will be capable of neutralizing faster and more heavily built aerial targets, including cruise missiles and rocket artillery. Beyond that, DRDO is planning a next-generation 300kW laser platform, reportedly under the project name "Surya", which could provide longer-range area denial capabilities. This future system is expected to be integrated with naval vessels, airbases, and space-based platforms — dramatically expanding India’s layered defence grid. Additionally, the organisation is exploring the use of high-power microwave weapons and electromagnetic pulse (EMP) systems, which would complement laser weapons by targeting electronics and communications rather than physical structures. Private Sector Entry and Operationalization To accelerate production and deployment, DRDO is expected to transfer technology to private sector defence firms under its 2025 tech-transfer policy. This move will allow for faster scaling of the system, localized manufacturing of subsystems, and possible integration with existing air defence networks. User trials with the Army, Navy, and Air Force are expected to focus on real-world validation of tracking accuracy, target discrimination, and weapon endurance under different terrain and weather conditions. Upon successful trials, the system could be inducted for critical infrastructure protection — including airfields, ammunition depots, forward operating bases, and border surveillance zones. The upcoming trials of DRDO’s 30kW Sahastra Shakti DEW represent not just a milestone in Indian military R&D, but a broader shift toward energy-based, precision warfare. As drones, loitering munitions, and low-cost threats proliferate, India’s ability to counter them with a clean, cost-effective laser system will offer both tactical and strategic advantages. In a future battlefield increasingly defined by speed, saturation, and electronic warfare, the silent beam of Sahastra Shakti may well become one of India's most potent shields.
Read More → Posted on 2025-07-03 16:12:51
India
In a major step toward bolstering maritime security in the Indo-Pacific, India and Australia have entered into a groundbreaking three-year defence research agreement to co-develop advanced undersea surveillance technology. At the heart of this collaboration lies the ambition to improve early detection and tracking of enemy submarines and autonomous underwater vehicles (AUVs), a critical capability in an era of increasingly stealthy underwater threats. The program brings together two of the region’s foremost defence research institutions — India’s Defence Research and Development Organisation (DRDO) and Australia’s Defence Science and Technology Group (DSTG). Specifically, DRDO’s Naval Physical and Oceanographic Laboratory (NPOL) will work alongside DSTG’s Information Sciences division to jointly design, test, and refine detection systems based on passive acoustic methods. Listening to the Deep: The Promise of Towed Array Systems Central to the research is the development and refinement of Towed-Array Target Motion Analysis (TMA) — a technique that uses a long cable of hydrophones to passively “listen” to underwater sound. These arrays can be deployed from submarines or surface ships and are used to detect, classify, and track underwater threats at long ranges without giving away the vessel’s position. Unlike active sonar, which sends out sound pulses and listens for echoes, passive systems rely entirely on the noise produced by other vessels. This is particularly advantageous for navies aiming to operate discreetly. But making sense of the ocean’s vast and noisy soundscape — filled with marine life, wave action, and civilian ships — requires sophisticated algorithms capable of filtering signals, determining bearing lines, and estimating the motion of targets. The joint India-Australia program is set to focus heavily on improving these algorithms, ensuring better performance in complex environments where background noise can easily mask vital acoustic signatures. Shared Expertise, Shared Security According to Australian defence officials, the program is designed not just as a technology-sharing exercise but as a true co-development effort. Research teams will conduct joint trials, compare acoustic models, and iteratively refine tracking systems based on real-world data gathered from both Indian and Australian waters. Amanda Bessell, the Australian lead for the collaboration at DSTG, noted, “The science underpinning this initiative is critical to understanding how best to locate submarines while maintaining passive operations. Target Motion Analysis allows vessels to track and monitor undersea targets quietly and precisely.” India, meanwhile, brings to the table decades of expertise in sonar and undersea technology. DRDO’s NPOL is best known for developing the USHUS sonar suite, a domestically designed system fitted on Indian Navy submarines. The lab is also involved in developing seabed sensor networks, active and passive sonars for surface ships, and advanced signal processing tools for AUVs. Together, the two nations are looking to push the envelope in terms of both hardware (towed arrays, hydrophone configurations) and software (signal processing, AI-assisted classification, and real-time tracking solutions). Why This Matters Now The agreement comes at a time when the undersea domain is becoming increasingly contested. Submarines equipped with air-independent propulsion (AIP), unmanned underwater vehicles with extended range, and deep-sea surveillance drones are changing the dynamics of naval warfare. Nations across the Indo-Pacific are investing heavily in silent and longer-endurance platforms that can operate undetected — raising the stakes for nations like India and Australia to develop superior detection capabilities. Moreover, as Quad cooperation deepens, particularly in the realm of maritime domain awareness (MDA), this bilateral agreement acts as a technological force multiplier. The results of this collaboration could later be integrated with regional underwater tracking networks, enabling more coordinated responses to undersea incursions. This is also part of a larger push by both nations to reduce dependence on external suppliers for critical defence technologies and to invest in sovereign capability development. For India, this aligns with the “Atmanirbhar Bharat” (self-reliant India) initiative; for Australia, it ties into its Defence Strategic Review objectives of building long-term capability in the maritime domain. What Comes Next Over the next three years, researchers will conduct laboratory simulations, acoustic tank experiments, and at-sea trials. These tests will not only refine the performance of TMA algorithms under different environmental conditions — such as thermal layers, salinity variations, and sea-state noise — but also inform the design of the next generation of towed-array hardware and underwater acoustic processors. The insights gleaned from this effort are expected to feed directly into the next-generation sonar and surveillance systems for both navies. They may also shape the future of Indian-Australian defence-industrial cooperation, potentially extending into joint production or export-ready solutions for partner countries in the Indo-Pacific. This undersea surveillance partnership signals a deepening of strategic trust between India and Australia. It’s not just about developing cutting-edge technology — it’s about laying the foundation for a shared maritime security architecture. In a world where the ocean floor is fast becoming the next frontier of defence competition, India and Australia are diving in — together, and with purpose.
Read More → Posted on 2025-07-03 15:41:35
India
In a major push towards self-reliance and modernisation of the armed forces, the Defence Acquisition Council (DAC), chaired by Defence Minister Rajnath Singh, has approved capital acquisition proposals worth over ₹1.05 lakh crore. All ten proposals were cleared under the ‘Buy (Indian–IDDM)’ category, which prioritises systems that are indigenously designed, developed, and manufactured. This strategic decision comes at a time when India is rapidly enhancing its defence capabilities in response to evolving security challenges. The approvals span across the Army, Navy, and Air Force, and are aimed at strengthening the country’s operational readiness on both land and sea. Key Systems Approved Among the systems approved for procurement is the Armoured Recovery Vehicle (ARV), essential for supporting and retrieving disabled tanks and armoured vehicles during combat. These vehicles significantly enhance battlefield mobility and logistics by ensuring continuous movement and serviceability of armoured formations. The Army will also benefit from advanced Electronic Warfare (EW) Systems, designed to intercept, jam, and disrupt enemy communications and radar systems. These systems improve battlefield awareness and survivability by reducing the adversary’s electronic advantage. For joint operations across the Army, Navy, and Air Force, the DAC cleared the Integrated Common Inventory Management System (ICIMS). This tri-service platform will improve inventory tracking, logistics coordination, and reduce redundancy across services, making military supply chains more efficient. Boost to Air and Naval Defences The approval of Surface-to-Air Missile (SAM) systems is another major highlight. These systems are critical for defending key military installations, command centres, and strategic assets from aerial threats including enemy aircraft, drones, and missiles. For the Indian Navy, the DAC has cleared several acquisitions to enhance maritime warfare and underwater surveillance capabilities. These include: Moored Mines: Used for harbour defence, these are anchored explosive devices designed to deter or destroy enemy vessels. Mine Counter Measure Vessels (MCMVs): These specialised ships detect and neutralise naval mines, ensuring safe passage for both military and commercial ships. Super Rapid Gun Mounts (SRGM): Naval guns capable of high rates of fire, essential for air defence and surface engagements. Submersible Autonomous Vessels (SAVs): Unmanned underwater vehicles equipped for mine detection, reconnaissance, and surveillance. Promoting ‘Make in India’ The DAC’s move is aligned with the Indian government’s push for ‘Aatmanirbharta’ (self-reliance) in defence manufacturing. By approving all proposals under the ‘Buy (Indian–IDDM)’ category, the government is ensuring that Indian defence firms and domestic suppliers play a central role in supplying cutting-edge systems to the armed forces. This policy not only reduces dependence on foreign vendors but also fosters innovation and high-tech manufacturing within the country. Indian companies will now be responsible for both the production and support of these systems, creating job opportunities and advancing indigenous R&D in defence technology. With this record-setting approval, India is taking a significant leap in transforming its armed forces into a more modern, self-sufficient, and technologically advanced military. The ₹1.05 lakh crore investment is not just about procuring new weapons and systems—it’s a strong statement of intent to develop a robust domestic defence ecosystem that can meet both current and future challenges.
Read More → Posted on 2025-07-03 15:32:34
World
In a breakthrough for aerospace engineering, China has successfully carried out the maiden flight of its first fully 3D-printed turbojet engine, marking a major milestone in the country's push toward advanced aviation technology. The test flight took place in Inner Mongolia and saw the miniature engine soar to an altitude of 4,000 meters, confirming its stability and performance under real flying conditions. Developed by the Aero Engine Corporation of China (AECC), this compact turbojet belongs to the 160-kilogram thrust class and is entirely built using 3D printing technology combined with a sophisticated design method known as multi-disciplinary topology optimization. This is the first time China has manufactured an entire engine using these advanced techniques, and it fills a critical domestic gap in the application of additive manufacturing for full-scale jet propulsion systems. What sets this engine apart is its use of topology optimization—a design method that focuses on arranging material within a structure in the most efficient way possible. When paired with 3D printing, this approach allows engineers to create extremely lightweight and compact components without compromising strength or performance. As a result, the turbojet achieves a high thrust-to-weight ratio, making it ideal for unmanned aerial vehicles such as advanced strike drones, reconnaissance platforms, and lightweight cruise missiles. The AECC stated that the engine’s successful flight represents more than just a proof of concept. It demonstrates the reliability of 3D-printed components in harsh operating environments, as the engine had already passed extensive ground-based testing before being cleared for airborne trials. These included checks on thrust, temperature resilience, durability, and long-term reliability—all essential to confirming its readiness for real-world applications. The engine is not only ultra-lightweight but also benefits from faster production times, reduced manufacturing costs, and less reliance on complex supply chains that often depend on traditional casting, forging, and machining processes. This could help China rapidly scale up development and deployment of cutting-edge aerial platforms without being slowed by supply chain bottlenecks or foreign restrictions. This technological leap could also reshape China’s military and commercial drone sectors. Lighter engines with improved performance open doors for longer flight ranges, higher payloads, and more complex missions—particularly for high-speed UAVs used in surveillance or precision strikes. AECC described the flight as a foundational step toward future engine development programs and a clear indication that China is moving closer to self-reliance in next-generation propulsion technologies. With this achievement, China joins a select group of nations experimenting with additive manufacturing at the full-engine level, potentially speeding up innovation cycles and setting new benchmarks for aerospace design in the years ahead.
Read More → Posted on 2025-07-03 14:52:05
India
India is poised to deepen its maritime surveillance and anti-submarine warfare (ASW) capabilities with the acquisition of six additional P‑8I Neptune long-range maritime patrol aircraft (LRMPA). Formally confirmed during high-level diplomatic discussions in February 2025, this acquisition will increase the Indian Navy's P‑8I fleet to a formidable total of 18 aircraft . Origins & Previous Acquisitions First Batch (2009): India signed an agreement worth US $2.1 billion for eight P‑8I aircraft—an export variant of the U.S. P‑8A Poseidon—equipped with specialized systems including an aft-facing radar and Magnetic Anomaly Detector (MAD). Follow-on Order (2016): Four additional P‑8I aircraft were contracted via an option clause, with deliveries completed by early 2022, marking 12 aircraft in total. Pending Enhancement (2019–2021): In November 2019 the Defence Acquisition Council approved six more aircraft, with U.S. State Department clearance following in May 2021 under a Foreign Military Sale worth US $2.42 billion. Technical Marvels The P‑8I Neptune is based on the Boeing 737 Next Generation airliner, but fortified with robust military-grade sensors, communications, and weapons systems: Radar Suite & Sensors: Equipped with Raytheon’s AN/APY-10 multi-mission surface-search radar, India’s export version also incorporates a Telephonics APS-143 aft radar and a MAD in the tail—delivering near 360° coverage for submarine detection . Onboard Data Systems: Bharat Electronics Limited (BEL) supplies the Data Link II tactical datalink, plus indigenous IFF systems, enabling secure communications with ships, aircraft, and command centers . Armament Loadout: Featuring 11 hardpoints—five internal for Mk 54 torpedoes, two fuselage racks, and four underwing stations capable of deploying AGM‑84L Harpoon anti-ship missiles, depth charges, and free-fall bombs. It can also carry sonobuoys via a rotary dispenser for active/passive submarine acoustic tracking . ASW Innovations: Integration of advanced rotary launcher for sonobuoys, hydrocarbon sensors to sniff for sub-surface vessels, and compatibility with aerial-launch kits such as HAAWC elevate its submarine warfare efficacy . Performance Snapshot: Capable of operating at altitudes up to 41,000 feet with a range exceeding 2,200 km (over 1,200 nautical miles), and cruising speeds up to 490 knots (~789 km/h), executing endurance sorties up to 8,300 km . Operational Footprint & Deployment Induction Timeline: The first P‑8I arrived in Indian service in May 2013, forming INAS 312 “Albatross” at INS Rajali (Tamil Nadu). Four more formed the nucleus of INAS 316 “Condors” at INS Hansa (Goa) from March 2022 . Operational Record: The fleet has amassed over 35,000 flight hours across deterrence patrols, surveillance missions (e.g., MH370, Doklam, Pulwama standoff), and humanitarian assistance . P‑8Is have demonstrated impressive availability (~85%) since entering service . Fleet Expansion & Strategic Context Contract Details (2025): The latest six-aircraft deal, valued at US $2.4 billion, includes substantial Indian offsets (~30%), reinforcing national industrial capabilities . Rationale: The expanded fleet will enhance persistent maritime domain awareness across the Indian Ocean, counter increased Chinese naval deployments, and compensate for retiring Soviet-era patrol squadrons . Enhanced ASW: Upgrades under Increment 3 Block 2 will include advanced processing, wideband SATCOM, SIGINT suites, and optimized track management—significantly boosting submarine detection and targeting prowess . The Road Ahead & Synergies The expanded fleet of 18 P‑8I aircraft is slated to deliver transformative maritime security benefits: Layered Surveillance: Enabling near-continuous patrols across India's eastern and western seaboards. ASW Dominance: Advanced sensors and weapons make it a potent submarine-hunter, capable of tracking and engaging underwater threats. Regional Presence: Enhanced interoperability under COMCASA bolsters coordination with U.S., Quad, and other navies. Industrial Boost: The offset package feeds into India’s aerospace supply chain and MRO centers, expanding local capabilities. India's pursuit of six more P‑8I Neptune aircraft underscores a strategic pivot to prime maritime deterrence and domain control. These platforms bring decades of advanced ASW, surveillance, and ISR capabilities—integrated with indigenous systems—to ensure regional stability and secure Indian interests in pivotal oceanic theaters. As the first of these next-generation aircraft is delivered, the Indian Navy moves toward a future-ready fleet capable of sustained, decisive maritime operations.
Read More → Posted on 2025-07-03 14:46:23
World
The U.S. Air Force is moving forward with a comprehensive plan to upgrade its fleet of F-22 Raptor stealth fighters, aiming to keep the aircraft combat-ready and technologically superior well into the future. As part of the Pentagon's 2026 fiscal year budget proposal, $90.34 million has been allocated for a series of major enhancements designed to modernize the F-22’s capabilities in line with current and emerging threats. The F-22 Raptor, known for its unmatched air dominance, stealth features, and supermaneuverability, remains one of the most advanced fighter aircraft in the world. However, with evolving warfare technology and new generation threats, the Air Force intends to equip the Raptor with next-level systems that will extend its relevance on the battlefield. One of the key additions is the Infrared Defensive System (IRDS), which will improve the aircraft’s survivability by allowing it to detect and respond to heat-seeking missile threats. This is particularly important in environments where stealth aircraft may still face detection from infrared sensors. The upgrade plan also includes improvements to the Low Observable (LO) features of the F-22, which are responsible for its radar-evading stealth profile. This means refinements to the aircraft’s coating, shape, and materials to stay ahead of radar advancements. A major technological leap will come with the enhancement of the radar system, which will now include a dynamic Synthetic Aperture Radar (SAR) capability. SAR allows the aircraft to generate high-resolution ground imagery from the air, even through clouds or darkness, enabling it to identify ground targets more precisely. In terms of offensive and situational awareness capabilities, the Air Force plans to integrate an Infrared Search and Track (IRST) system, known as TacIRST. This passive sensor enables the F-22 to silently detect and track enemy aircraft by their heat signatures, without using radar—giving it a decisive advantage in stealth engagements. Pilots will also benefit from a redesigned Pilot Vehicle Interface (PVI), which includes updated cockpit displays, control systems, and human-machine interaction tools. To complement this, the Air Force has partnered with LIFT Airborne Technologies to develop the Next Generation Fixed Wing Helmet (NGFWH)—a state-of-the-art helmet that enhances situational awareness and supports integration with future systems. Another significant advancement is the development of stealth-compatible external fuel tanks. These are designed to extend the aircraft’s range without compromising its radar signature, allowing the F-22 to operate deeper into contested airspace. Currently, the U.S. Air Force operates 185 F-22 Raptors, but only 143 of these are combat-coded and ready for deployment. The rest are used for training, testing, or are undergoing maintenance. The modernization project is essential not only to maintain the operational readiness of the combat fleet but also to ensure that the F-22 remains a formidable air superiority platform in the years to come. Although the F-22 program was officially closed for new production in 2011, the U.S. Air Force is determined to maximize the performance and relevance of its existing Raptors as new-generation aircraft like the NGAD (Next Generation Air Dominance) fighter continue development. This modernization reflects a broader U.S. defense strategy that emphasizes upgrading existing platforms with cutting-edge technology to meet near-peer threats—particularly in an era of rapid advancements by adversaries like China and Russia. The upgraded F-22 will continue to play a crucial role in U.S. air superiority missions, deterrence, and global power projection.
Read More → Posted on 2025-07-03 14:40:26
India
In a major push toward self-reliance in critical defence technologies, India’s Defence Research and Development Organisation (DRDO) has invited bids from local industries for the co-development and production of an indigenous 105mm Fin-Stabilised Armour-Piercing Discarding Sabot (FSAPDS) ammunition. This cutting-edge kinetic energy round will be the primary tank-killer munition for India’s upcoming Zorawar light tank, which is being developed to counter threats along high-altitude borders and in rapid-deployment scenarios. The Expression of Interest (EoI), issued by DRDO’s Armament Research and Development Establishment (ARDE), calls upon Micro, Small, and Medium Enterprises (MSMEs) and private-sector players to join hands in designing, testing, and eventually manufacturing the FSAPDS round. This initiative is part of a broader national strategy to indigenise tank ammunition and reduce dependence on foreign suppliers, especially for advanced rounds used in modern tank warfare. A Critical Capability for Mountain Warfare The Zorawar light tank, jointly developed by DRDO’s Combat Vehicles Research & Development Establishment (CVRDE) and Larsen & Toubro (L&T), is tailored for operations in challenging terrains like Ladakh and Arunachal Pradesh. Weighing under 25 tonnes, the tank is designed for strategic mobility, including air transportability and amphibious operations. Its firepower will center on the Cockerill 3105 high-pressure 105mm gun, an advanced rifled cannon integrated with an autoloader and modern fire control systems. To complement this advanced gun, the FSAPDS round under development will provide the necessary punch to penetrate modern armour threats, including China’s new-generation Type-15 light tanks. These rounds are known for their high muzzle velocity and long-rod tungsten or depleted uranium penetrators, which can defeat explosive reactive armour and composite protection. Technical Details of the Indigenous Round Although DRDO has not released exhaustive technical specifications in the public domain, available information outlines key design targets: Calibre: 105mm Round Type: FSAPDS (Fin Stabilised Armour Piercing Discarding Sabot) Weight (Shot): Approx. 6.0 – 6.7 kg Penetration: Comparable to globally deployed NATO standards like the DM63 Components: Long-rod penetrator, aluminium or carbon-fibre sabot, tail fins, ignition system, and propellant casing The FSAPDS functions by discarding the sabot after it exits the barrel, allowing the fin-stabilised penetrator to travel at hyper-velocity and deliver maximum kinetic impact on the target. This is not DRDO’s first experience with FSAPDS ammunition. The ARDE had previously developed 105mm rounds for legacy platforms like the Vijayanta and T-55 tanks, though production was discontinued in the early 2000s. With the Zorawar now entering limited series production, the requirement for a new, high-performance 105mm FSAPDS has become critical. Industry Involvement and Make-in-India Focus The EoI is also a call for industrial collaboration under the Ministry of Defence’s Technology Development Fund (TDF). Indian companies will be involved not only in the final assembly and supply chain but also in co-design and validation phases, including ballistic trials. The aim is to build a robust domestic production line capable of supporting long-term Indian Army requirements as well as potential exports. Industry experts see this as a golden opportunity for Indian defence startups, private OEMs, and ammunition suppliers to enter a niche but crucial sector. Developing a world-class FSAPDS round indigenously is both a technical and strategic milestone, considering that most such rounds today are imported from countries like Germany, Israel, or Belgium. Zorawar and Ammunition Synergy The integration of indigenous FSAPDS ammunition with the Zorawar platform also boosts operational efficiency. The tank will carry a complement of 105mm FSAPDS, High Explosive Squash Head (HESH), and possibly programmable air-burst munitions, all integrated with a digital fire control system, panoramic sights, and thermal imaging. Importantly, the decision to develop domestic ammunition also ensures that India’s frontline units are not held hostage to foreign embargoes, export restrictions, or logistical delays during wartime. A Strategic Step Forward The need for agile and heavily armed light tanks has gained renewed urgency after India’s 2020 standoff with China in eastern Ladakh. While heavy tanks like the T-90 and Arjun remain indispensable for the plains and deserts, mountainous and riverine terrain calls for platforms like the Zorawar. By ensuring the development of its core armament—the 105mm FSAPDS—within Indian borders, DRDO is reinforcing the strategic autonomy of the Indian Army. As the project moves forward, prototypes of the Zorawar are undergoing trials, and with indigenous ammunition in the pipeline, the day is not far when Indian soldiers on the frontlines will rely entirely on homegrown firepower—from platform to projectile. The DRDO’s move to develop an indigenous 105mm FSAPDS round for the Zorawar light tank is a defining moment in India’s defence journey. It’s not just about creating another shell—it’s about ensuring that every link in India’s warfighting capability is secure, sovereign, and superior. With local industry poised to play a pivotal role, the success of this program will mark a new chapter in indigenous armoured warfare readiness.
Read More → Posted on 2025-07-03 14:33:49
World
In a major leap for global security and satellite intelligence, Maxar Technologies has introduced a powerful new system named “Sentry” — an advanced AI-driven global monitoring platform designed to detect potential threats before they unfold. The system is being hailed as a game-changer for defense forces, security agencies, and decision-makers who rely on rapid, reliable intelligence. What is Sentry? Sentry is Maxar’s latest innovation in space-based surveillance technology. It combines live satellite imagery with decades of archived geographic data, processed through artificial intelligence, to provide what the company calls “predictive intelligence.” This means it doesn’t just show what’s happening now — it anticipates what could happen next. As global threats become more unpredictable, from military conflicts to maritime security issues, Sentry offers early warning alerts that could give governments and organizations a valuable advantage. Two Specialised Monitoring Tools Maxar’s Sentry platform comes in two mission-specific modules: Site Sentry:This module monitors key locations on land and sea, such as airports, ports, military bases, oil refineries, urban centers, and critical infrastructure. It continuously scans these areas and flags any abnormal activity like sudden troop build-ups, unusual vehicle convoys, or operational disruptions. Maritime Sentry:This tool focuses on the world’s oceans, providing real-time tracking of thousands of square kilometers of open waters. It monitors the movements of vessels, cargo ships, naval assets, and suspicious maritime gatherings, helping authorities detect potential threats or illegal activity at sea. How Sentry Works The strength of Sentry lies in how it gathers and processes data: Automated Satellite Coordination:The system automatically orchestrates data collection from multiple satellites, including optical, radar, and infrared sensors. This ensures continuous monitoring of hundreds of global sites and vast sea regions at once. Data Fusion and Time Synchronisation:The incoming data is combined into a single, time-aligned dataset, providing a comprehensive and clear picture of what’s happening on the ground and at sea. This allows for fast, large-scale analysis without conflicting data. AI-Powered Threat Detection:Using advanced AI and machine learning models, Sentry compares real-time data against Maxar’s massive 250-petabyte archive of satellite imagery. The system looks for patterns and anomalies — such as sudden military deployments, new structures, or unexpected ship gatherings — and flags them for immediate attention. Why This Matters Maxar CEO Dan Smoot said the launch of Sentry was driven by growing demand from defense and security customers who now need broader, faster, and more predictive monitoring tools. “For many of our customers, it’s no longer enough to deliver persistent monitoring of just one or two sites or limited geographies,” Smoot explained. Sentry has been described as a “mini intelligence agency” in itself, offering decision-makers what Maxar calls “unparalleled decision superiority” — the ability to act ahead of a developing threat, rather than just reacting to it. Final Thoughts As tensions rise in various parts of the world and as security risks evolve quickly, systems like Maxar’s Sentry could play a vital role in shaping the future of intelligence gathering. By blending AI, decades of satellite data, and advanced analytics, Sentry isn’t just watching the world — it’s predicting its next moves.
Read More → Posted on 2025-07-03 14:29:42
India
In a key leap for India's next-generation airpower, the Aeronautical Development Agency (ADA) is redesigning the internal weapons bay of the Advanced Medium Combat Aircraft (AMCA) Mk2 to house six Astra Mk2 air-to-air missiles. This major enhancement will significantly strengthen the fighter's air-to-air combat capabilities while preserving its stealth signature, a critical feature of any fifth-generation aircraft. The AMCA program, led by ADA under the Ministry of Defence, is India's ambitious attempt to develop an indigenously designed stealth fighter jet. The twin-engine, multi-role aircraft is being built to deliver cutting-edge features like radar-absorbent materials, advanced avionics, supercruise capability, and a reduced radar cross-section. One of the core aspects of its stealth design is the Internal Weapons Bay (IWB), which allows the aircraft to carry weapons within its fuselage rather than on external pylons, drastically reducing its radar visibility. Initially, the AMCA Mk1 was configured to carry four Astra Mk1 beyond-visual-range air-to-air missiles (BVRAAMs) inside the weapons bay. However, the AMCA Mk2 is undergoing refinements to allow the internal bay to carry six Astra Mk2 missiles, offering a substantial firepower boost without compromising the jet’s low observability. Why This Upgrade Matters The Astra Mk2 is India’s next-generation BVRAAM, developed by the Defence Research and Development Organisation (DRDO). It features a dual-pulse solid-fuel rocket motor and an improved seeker, giving it an extended range of about 160 kilometers—nearly double that of its predecessor. The missile is designed to maintain high energy at the terminal phase of its flight, improving kill probability against agile, maneuvering targets at long distances. With six of these missiles stored internally, the AMCA Mk2 can: Simultaneously engage multiple enemy aircraft from beyond visual range. Retain stealth during combat, as no weapons are exposed on external hardpoints. Maintain aerodynamic efficiency, which enhances speed, range, and fuel efficiency. Surprise enemy radar systems, thanks to a very low radar cross-section and long-range strike capabilities. This combination ensures the pilot remains undetected longer, engages threats first, and exits contested airspace safely—all crucial in modern aerial warfare. Looking to the Future This internal configuration is only the beginning. The AMCA’s internal weapons bay is also being designed to be modular and future-proof, allowing integration of newer missiles like the Astra Mk3, which is currently under development. The Mk3 is expected to feature a ramjet propulsion system, pushing its range and speed even further—potentially rivalling Western counterparts like the Meteor missile. The ongoing redesign reflects ADA’s commitment to making AMCA not just stealthy but also deadly and adaptable. As threat environments evolve, the fighter will be able to incorporate newer, smarter munitions, ensuring it remains relevant well into the 2050s. Timeline and Production Outlook The AMCA program was formally greenlit by the Cabinet Committee on Security (CCS), with the prototype development now in full swing. The first test flight is targeted for 2029, and full-scale production is expected to begin by 2035. Once operational, the AMCA will place India among the handful of nations with homegrown fifth-generation fighter capabilities, joining an elite club that includes the US, China, and Russia. This upgrade to carry six Astra Mk2 missiles internally is more than just a technical modification—it’s a strategic leap forward in India's vision for future air dominance.
Read More → Posted on 2025-07-03 14:21:22
World
In a bold step toward reshaping modern warfare, California-based defense tech firm Mach Industries has revealed its newest weapon — the Viper kamikaze drone. This AI-guided unmanned system promises to deliver precision strikes with the range of a missile, the speed of a cruise weapon, and the cost-effectiveness of a tactical drone — all in a compact, highly mobile platform. Viper's Combat Edge Designed with lessons from the Russia-Ukraine conflict in mind, Viper is built to give frontline units a long-reach strike option traditionally limited to much larger, more expensive missile systems. The drone can strike targets up to 290 kilometers (180 miles) away — a range on par with the U.S. Army’s ATACMS (Army Tactical Missile System) — delivering a powerful 10-kilogram (22-pound) warhead at high-subsonic speed. It blends the functionality of a loitering munition with the performance characteristics of a cruise missile, enabling commanders to destroy high-value targets like artillery batteries, air defense systems, radar arrays, or logistics nodes from a safe distance. Vertical Launch, AI Navigation, and GPS Independence One of Viper’s standout features is its vertical takeoff capability, allowing it to be launched from unprepared or rugged terrain without the need for runways or launchers. This makes it ideal for fast-moving units operating in unpredictable environments. The drone is equipped with artificial intelligence navigation and multi-band radio frequency (RF) guidance systems, making it capable of functioning in GPS-denied environments — a crucial feature in modern electronic warfare where GPS jamming is common. While its resilience against advanced electronic warfare is still under evaluation, its design clearly emphasizes autonomy and survivability. Speed, Survivability, and Cost Compared to systems like Israel’s Hero-120 or Russia’s KUB-BLA, Viper offers a significant upgrade in range, flight speed, and standoff survivability, enabling it to strike without exposing friendly units to counterattacks. Even more compelling is the cost-efficiency: at under $100,000 per unit, Viper delivers the destructive effect of multi-million-dollar missiles like ATACMS at a fraction of the cost. This affordability opens the door to mass deployment, enabling military forces to saturate the battlefield with precision drones rather than relying solely on limited high-end assets. Fast-Tracked for Combat Mach Industries, backed by private investors and support from the U.S. Army, has taken a rapid prototyping approach to development. Close collaboration with operational users and quick integration of battlefield feedback have allowed the company to accelerate both production scaling and flight testing of the system. This approach positions Viper as a ready-to-field option for future conflicts — especially in theaters where flexible, long-range, and cost-effective precision strike tools are in high demand. The Viper drone represents a significant evolution in drone warfare — combining the agility of unmanned systems with the punch and reach of tactical missiles. As nations race to adapt to drone-centric battlefields, Viper could emerge as a key player in shifting how wars are fought, offering firepower once reserved for large missile systems to small tactical units on the move.
Read More → Posted on 2025-07-02 16:19:51
India
In a significant leap forward for India’s indigenous defense capabilities, Gurugram-based deep-tech startup Sharang Shakti has unveiled vajR, a fully autonomous hard-kill drone interceptor system designed to take down hostile UAVs in real-time. This marks one of the first attempts by an Indian private firm to deliver a reusable, AI-enabled kinetic drone defense platform—tailored for modern aerial threats. At a time when drone incursions pose growing security concerns across borders, vajR stands out with its combination of smart targeting, high-speed interception, and reusability—all developed entirely in India. A New Breed of Aerial Interceptor Unlike traditional counter-drone systems that rely on soft-kill methods like jamming or spoofing, vajR is built for kinetic elimination. It launches automatically from a dedicated autonomous hangar, receives targeting data from radar or optical sensors, and then flies toward the hostile drone. Using onboard sensors and neural networks, vajR identifies and locks on to its target in mid-air, before physically colliding with it to neutralize the threat. This hard-kill approach is especially valuable in high-threat zones where soft-kill techniques may fail due to signal interference or latency. Key Features and Technology Stack What makes vajR unique isn’t just its capability—but the indigenous technology under the hood. The system has been designed entirely in-house by Sharang Shakti, from the control software and avionics to the sensor fusion and onboard AI. Proprietary Autonomy Engine: At the core of vajR lies Sharang Shakti’s own guidance and control system. It enables precise maneuvering at high speeds, even during complex engagements with agile enemy drones. Onboard EO/IR Sensor & ML Models: Once within 50–100 meters of the target, vajR switches from remote guidance to its internal targeting system. Using a forward-looking electro-optical/infrared (EO/IR) sensor and a deep learning model trained on thousands of drone profiles, it performs autonomous target recognition, tracking, and engagement. Kinetic Kill with Kevlar Protection: Upon target lock, the drone executes a full-speed collision. Critical components are housed in a Kevlar-reinforced dome, allowing vajR to survive and return safely—making it reusable, unlike many interceptors that are destroyed in action. Swarming Capability: vajR is designed to operate in coordinated swarms, enabling multiple interceptors to work together against large drone formations. Autonomous Hangar: The ground module houses and maintains vajR units. These hangars can autonomously charge, launch, and recover the drones without human intervention—allowing for round-the-clock readiness. A Mission-Ready Kill Chain The kill chain begins with the detection of a suspicious aerial object by a radar or an optical system. This data is sent to the vajR ground station, which then deploys the interceptor. During flight, it is guided by an AI-enhanced control system until it switches to its own onboard sensors for terminal guidance. Notably, the system includes a “human-in-the-loop” safeguard, allowing an operator to abort the mission at any point before impact. Designed for Indian & Global Battlefields Sharang Shakti’s broader vision is “from India, for global,” and vajR reflects that ambition. The system is modular, scalable, and has applications across defense, critical infrastructure, and even civilian drone monitoring. India has seen a surge in drone activity along its borders, including attempts to drop weapons, drugs, or surveillance devices. vajR is a timely solution, offering a rapid-response capability that doesn’t rely on imported tech or fragile communication jammers. Its integration into India’s multi-layered counter-drone defense—alongside soft-kill systems, radars, and upcoming directed-energy weapons—could dramatically strengthen perimeter security for armed forces, airports, and strategic installations. A Step Toward Sovereign Drone Defense The unveiling of vajR is more than just a product launch—it’s a reflection of India’s evolving defense-industrial ecosystem. As a private player, Sharang Shakti represents a new wave of defense tech startups that blend deep engineering with real-world military utility. With its smart design, indigenous development, and battlefield relevance, vajR could soon become a core part of India’s counter-UAS doctrine. And in a world where drones are no longer just surveillance tools but potential strike weapons, vajR offers a decisive, homegrown answer—fast, intelligent, and deadly.
Read More → Posted on 2025-07-02 16:09:41
World
Japan continues its rapid naval modernization by launching the eleventh Mogami-class multirole frigate, named JS Tatsuta (FFM-11), on July 2 at Mitsubishi Heavy Industries' Nagasaki Shipyard. The launch is part of Tokyo’s strategic push to reinforce its maritime defense capabilities against growing regional threats from China and Russia in the East China Sea and broader Indo-Pacific. The JS Tatsuta is the latest in a planned fleet of 12 compact but heavily armed frigates being built for the Japan Maritime Self-Defense Force (JMSDF). These warships are being designed for high-speed deployment, multi-role capability, and cost-efficiency—all critical in defending Japan’s remote southwestern island chain and maintaining control over contested areas such as the Senkaku Islands. The ship is named after the Tatsuta River in Nara Prefecture, following the JMSDF tradition of naming the Mogami-class ships after Japan’s Class A rivers. The Tatsuta is the third naval vessel in Japanese history to carry the name. Technical Features of the JS Tatsuta (FFM-11) The Mogami-class ships represent Japan’s first implementation of a Combined Diesel and Gas (CODAG) propulsion system, blending fuel efficiency with high performance. The Tatsuta is powered by: 2× MAN 12V28/33D STC diesel engines 1× Rolls-Royce MT30 gas turbine This advanced propulsion allows the 3,900-tonne ship to reach speeds exceeding 30 knots, making it one of the fastest ships in its class. Key dimensions and features include: Length: 133 meters Beam: 16.3 meters Draught: 9 meters Crew: Approx. 90 personnel Estimated cost: ¥58.3 billion (about $406 million USD) Expected commissioning: By the end of fiscal year 2026 Armament and Sensor Suite Despite its relatively compact size, the JS Tatsuta is equipped with an impressive array of weapons and electronic systems, giving it formidable capability across surface, subsurface, and aerial domains: 1× BAE Systems 127mm Mk 45 Mod 4 naval gun 2× 12.7mm Remote Weapon Stations 16-cell Mk 41 Vertical Launch System (VLS) for surface-to-air and anti-submarine missiles 1× Raytheon SeaRAM close-in defense system 2× 4-tube MHI Type 17 (SSM-2) anti-ship missile launchers Mitsubishi OPY-2 multifunction radar and OAX-3 EO/IR sensors Hitachi OQQ-11 anti-mine sonar NEC OQQ-25 towed sonar for anti-submarine warfare UUV (OZZ-5) and USV (JMU Defense) for mine countermeasures Sea mines for offensive mining The ship's design supports a wide range of missions including maritime patrol, mine warfare, anti-submarine warfare (ASW), and surface strike—all with a reduced crew size, thanks to automation. Strategic Importance and Australian Frigate Bid With tensions escalating in the Indo-Pacific, especially around Taiwan and the East China Sea, Japan is enhancing patrols and surveillance along its southwestern island chain that stretches over 1,200 kilometers. China’s naval build-up and joint drills with Russia have only intensified Tokyo’s focus on rapid naval expansion. Interestingly, the Mogami-class is also making waves abroad. Mitsubishi Heavy Industries has offered an upgraded version of the Mogami-class, referred to as the “New FFM,” for Australia’s SEA3000 General-Purpose Frigate program. Japan and Germany’s TKMS (offering the MEKO A-200) are currently the final two contenders. Australia is expected to choose a design by the end of 2025, with the first ships built in either Japan or Germany and the remaining constructed in Western Australia. Japan sees this as a key strategic partnership, not just a business deal, and hopes to use the opportunity to deepen military-industrial ties with Canberra. If selected, it would be Japan’s first major defense export of a surface combatant and a landmark moment for its re-emerging role in global defense cooperation. With the Tatsuta now afloat, and one final Mogami-class frigate yet to be launched, Japan is nearing the completion of one of its most ambitious naval programs in decades. As the region faces mounting security challenges, these agile, heavily armed ships are set to play a central role in maintaining peace and deterrence in the Indo-Pacific.
Read More → Posted on 2025-07-02 16:00:47
World
China has taken another major step forward in its drone warfare program by successfully conducting a live-fire test of an armed unmanned helicopter. The trial was led by Sichuan-based Tengden Technology, which announced that the missile strike was carried out by its first-ever female unmanned helicopter operator, Cheng Sijia. The test was part of a larger series of payload trials conducted in late June and aimed to verify the operational capability of Tengden’s vertical takeoff and landing (VTOL) drone platform under real-world conditions. A Historic Mission for China’s Drone Program According to the company, the mission was carefully planned and executed in close coordination with several Chinese defense partners. The armed drone, capable of taking off and landing like a helicopter without a runway, successfully launched a light-class air-to-surface missile during the test. The missile accurately struck its designated target, destroying it on impact and drawing cheers from the ground crew. This event marked a major milestone, not just for China’s growing unmanned weapons program, but also for gender representation in the country’s defense technology sector. Cheng Sijia, who operated the drone remotely, became the first woman in China to command an unmanned helicopter combat mission involving live ammunition. How the Test Was Carried Out The test took place at dawn on July 1, coinciding with the anniversary of the founding of the Chinese Communist Party. Cheng remotely piloted the aircraft toward the target zone. Upon receiving confirmation to proceed, she entered the attack corridor, locked onto the target, and launched the missile — completing a successful strike. Tengden described the test as a demonstration of both the reliability of its unmanned helicopter system and the growing role of women in China’s modern defense initiatives. Company reports highlight that Cheng, who joined Tengden as ground staff in 2023, earned her position through a competitive selection process and intense technical training. Unmanned Helicopter Drones: A New Battlefield Asset While details about the specific drone model and missile type remain undisclosed, images and footage from the test show a vertical takeoff platform performing an air-to-surface missile launch with notable precision. Armed unmanned helicopters like this one are expected to play a vital role in modern warfare. They can be deployed for: Tactical strikes Reconnaissance and surveillance Border security Rapid-response missions in complex terrain Their ability to operate without risking a human pilot and land in tight or challenging environments makes them valuable assets for both military and law enforcement agencies. China’s Growing Focus on Unmanned Combat Systems This latest success is part of China’s broader strategy to expand its unmanned systems capabilities. The country already operates several combat and surveillance drones and is now actively developing armed rotor-wing platforms for more flexible battlefield roles. Though no timeline has been provided for when Tengden’s armed helicopter drone will enter production or frontline service, experts believe this successful test moves it a step closer to operational deployment. The platform could strengthen China’s ability to conduct precision strikes, border operations, and anti-terror missions in the years ahead. A New Era for Women in China’s Defense Sector Beyond the technical achievement, the mission highlighted the growing participation of women in China’s defense and aerospace industries. Cheng Sijia, speaking after the test, expressed her commitment to furthering her skills and proving the value of women in roles traditionally dominated by men. “I will continue working hard, making breakthroughs, and showing the world the capabilities of women in China’s new era,” she said. China’s successful test of a missile-armed unmanned helicopter drone not only enhances its military drone capabilities but also signals progress in integrating female talent into its defense technology sector. As the global race for unmanned combat systems intensifies, this achievement positions China to play a leading role in shaping the future of aerial warfare.
Read More → Posted on 2025-07-02 15:54:39
World
China appears to be on the verge of achieving a landmark milestone in space technology — the world’s first satellite-to-satellite refuelling operation in geostationary orbit. On Monday, two Chinese spacecraft, Shijian-21 and Shijian-25, came into extremely close proximity, suggesting an imminent attempt at autonomous docking and fuel transfer. According to Swiss space surveillance firm s2a Systems, the two satellites — orbiting at an altitude of 35,786 km (22,236 miles) above the equator — have been closing in on each other for days. New tracking images showed them so close that they appeared as a single object, indicating that a docking or refuelling operation may soon take place. What Are These Satellites? Shijian-25: Launched in January 2024, this satellite was specifically designed to test on-orbit refuelling and satellite life-extension technologies. Its mission is to demonstrate how satellites already in orbit can be serviced and their lifespan extended, helping reduce costs and address the growing issue of space debris. Shijian-21: Launched in 2021, it made headlines in 2022 after using its onboard thrusters to move a defunct BeiDou navigation satellite out of operational orbit into a “graveyard orbit,” showcasing China’s capabilities in space debris management. Both satellites were developed by the Shanghai Academy of Spaceflight Technology, part of the China Aerospace Science and Technology Corporation (CASC). Why Is This a Big Deal? Performing satellite refuelling in geostationary orbit is a highly complex task. The challenges include: Autonomous docking between two free-flying objects moving at about 11,000 km/h Precise control to avoid collision in the vastness of space Safe and effective fluid transfer in microgravity conditions If successful, this would be a global first. While the US Defense Advanced Research Projects Agency (DARPA) carried out a similar test in low-Earth orbit in 2007 (called Orbital Express), it was far simpler. NASA’s ambitious OSAM-1 mission, which aimed for similar in-space servicing, was cancelled in 2023 after repeated delays and technical hurdles. Global Space Race Tensions The United States is closely watching these developments. American surveillance satellites, USA 270 and USA 271, have reportedly positioned themselves near the Chinese spacecraft since early June, according to US-based space situational awareness firm COMSPOC. This reflects not only the technical importance but also the strategic military implications of such technology. The Shijian-21, originally described as a space debris mitigation tool, also has the potential to act as a space tug — a vehicle capable of moving or disabling other satellites, raising concerns about its possible anti-satellite (ASAT) use in future space conflicts. What Happens Next? Earlier in June, the two satellites approached within 1 km of each other but separated after 90 minutes — possibly a rehearsal for docking or an aborted attempt. Now, with orbits nearly synchronised and robotic arms on Shijian-25 ready, all signs suggest the actual refuelling test is imminent. If completed successfully, it would mark a new chapter in space operations — allowing countries to repair, refuel, or upgrade satellites in orbit without launching replacements, saving millions of dollars and helping manage the growing congestion in Earth’s orbits. China’s upcoming satellite refuelling test represents a bold leap in space technology and signals Beijing’s growing ambitions in both civilian and military space capabilities. As nations like the US, Russia, and China increasingly compete in this domain, such achievements could reshape how the world manages satellites, space debris, and orbital security in the years ahead.
Read More → Posted on 2025-07-02 15:18:16Search
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