India
In a significant milestone for India's indigenous defense capabilities, Bengaluru-based Prime Toolings has unveiled the country’s first Rotating Detonation Engine (RDE), marking a new chapter in propulsion technology for next-generation missile and rocket systems. The 1–2 kilonewton-class RDE is the first of its kind developed in India and is specifically aimed at powering missiles with operational ranges between 300 to 500 kilometers. According to company officials, the engine could eventually be integrated into advanced missile systems that demand compact design, enhanced fuel efficiency, and high thrust-to-weight ratios. Unlike traditional rocket engines that rely on subsonic combustion, the RDE operates on a continuous detonation cycle. This results in a more efficient pressure gain mechanism, offering up to 25% improvement in fuel efficiency and thrust performance. The engine uses an annular combustion chamber where detonation waves continuously rotate, enabling more energy to be extracted from the same amount of fuel. “This is a breakthrough in propulsion technology and a proud moment for Indian industry,” said a Prime Toolings spokesperson. “With no moving parts, lower complexity, and compact architecture, RDEs are ideal for high-speed, short-range missiles. We’re confident this technology will support India’s growing need for rapid and agile weapons platforms.” The development aligns with India’s Atmanirbhar Bharat initiative, which encourages domestic defense production and reduces reliance on foreign suppliers. While RDE technology is still in its early stages globally—with agencies like NASA, JAXA, and DARPA leading experimental efforts—Prime Toolings’ achievement places India among the few nations actively prototyping this next-gen propulsion system. The company has also leveraged advanced manufacturing techniques, including additive manufacturing (3D printing), to create critical engine components and ensure thermal resilience under extreme detonation conditions. Initial tests have reportedly confirmed stable operation, and further performance validation is expected at high-altitude and ground test ranges in the coming months. Globally, Rotating Detonation Engines are being explored for applications ranging from tactical missile systems to hypersonic vehicles and even future space propulsion. Prime Toolings' system, though currently in the 1–2 kN thrust class, could evolve into larger configurations suitable for heavier platforms or satellite launch systems in the future. Defense experts say the technology is still maturing, and challenges remain in maintaining stable combustion, reducing thermal wear, and integrating the engine into existing missile architectures. However, the unveiling of this RDE prototype signals strong potential for indigenous innovation in India’s strategic defense sector. As India continues to modernize its missile arsenal, indigenous propulsion technologies like the RDE could play a pivotal role in shaping future combat capabilities, both tactically and strategically.
Read More → Posted on 2025-08-05 16:04:07
World
In a historic move to boost its naval power, Australia has signed a $6 billion deal with Japan to buy 11 next-generation Mogami-class frigates, marking Japan’s largest-ever defense export since World War II. The decision, announced by Defence Minister Richard Marles, signals a major step in deepening the defense ties between the two Indo-Pacific allies. The new Mogami-class warships, built by Mitsubishi Heavy Industries, are designed with stealth features and advanced long-range firepower. They will replace Australia’s ageing Anzac-class vessels, with the first ship expected to be operational by 2030. The frigates are armed with 32 vertical launch cells capable of firing long-range missiles like Tomahawk cruise missiles, making them far more lethal and modern than their predecessors. Minister Marles described the frigates as “the best capability for Australia,” noting their next-generation features and strategic alignment with national security needs. Germany’s ThyssenKrupp Marine Systems was a contender, but Japan ultimately secured the deal due to its technological edge and close strategic cooperation with Australia. The warship acquisition is part of Australia’s broader defense restructure, which aims to expand the navy’s major surface fleet from 11 to 26 warships over the next decade. Australia is responding to increasing tensions in the Indo-Pacific, particularly with China’s rising influence and assertiveness in regional waters. Three of the warships will be constructed in Japan, while the rest will be built at shipyards in Western Australia, giving a boost to local defense manufacturing. According to Pat Conroy, Australia's Defence Industry Minister, the deal not only strengthens Australia's maritime capabilities but also supports industrial growth at home. Japan’s Yoshimasa Hayashi, the Chief Cabinet Secretary, called the deal “proof of trust in our nation’s high-level technology”, and a major step in deepening military interoperability with Australia. The partnership also reflects a larger regional alignment—both nations are members of the Quad, along with the United States and India, seeking to balance China’s strategic reach. Experts say the contract is a "massive boost" for Japan’s defense industry, which has only recently begun opening up under relaxed arms export rules. The last major export was a surveillance radar system to the Philippines after Japan changed its policy in 2014. Australia’s defense ambitions go far beyond frigates. Under the AUKUS security pact with the US and UK, Australia will acquire at least three nuclear-powered Virginia-class submarines, potentially spending up to $235 billion over 30 years. This long-term defense investment comes with political scrutiny, as critics raise concerns over cost overruns and shifting policy directions. Despite the challenges, Australia plans to increase defense spending to 2.4% of its GDP, surpassing NATO's 2% benchmark. This shift reflects the government’s growing focus on building a modern, capable, and combat-ready navy—one that can operate effectively in a rapidly evolving regional security environment. With this landmark deal, Australia and Japan have not only strengthened military cooperation but also sent a strong signal to the broader Indo-Pacific region: the era of passive defense postures is ending, and strategic deterrence is now at the forefront.
Read More → Posted on 2025-08-05 15:50:00
World
In a major boost to its national defense, Israel has successfully tested an upgraded version of its David’s Sling air and missile defense system, aiming to better prepare for modern and more complex aerial threats. The announcement was made by the Israeli Ministry of Defense on August 4, confirming the completion of a series of advanced live-fire tests during the ongoing Swords of Iron war. The tests were conducted under a planned developmental program by the Israeli Missile Defense Organization (IMDO), which operates under MAFAT (Directorate of Defense Research and Development). The campaign was carried out in close partnership with the U.S. Missile Defense Agency (MDA) and Rafael Advanced Defense Systems, the prime contractor behind David’s Sling. Raytheon Missile Systems serves as a key American subcontractor, while ELTA Systems Ltd. (a subsidiary of Israel Aerospace Industries) developed the system’s radar, and Elbit Systems built the Battle Management Center. According to the Ministry, the new upgrades were tested against a variety of simulated threats, including cruise missiles, drones (UAVs), and long-range rockets. These are the kinds of advanced weapons that Israel increasingly faces from regional adversaries. The results showed that David’s Sling can now respond more effectively across different combat situations, significantly improving its performance and adaptability. While the exact upgrades were not publicly detailed, officials confirmed they were based on feedback from recent combat operations. The Stunner interceptor missile, which is a key part of David’s Sling, uses a hit-to-kill mechanism—meaning it destroys incoming threats using kinetic force without any explosive warhead. This design allows for precise targeting and minimal collateral damage, even in dense urban environments. The recent enhancements are not just theoretical. The Ministry noted that David’s Sling successfully intercepted multiple real threats during both Operation Rising Lion and the current Swords of Iron war. These intercepts were credited with saving lives and preventing serious infrastructure damage, underlining the system’s proven battlefield value. David’s Sling has been in service with the Israeli Defense Forces (IDF) since 2017, forming a crucial part of Israel’s multi-layered missile defense shield. This defense architecture also includes the Iron Dome for short-range projectiles, the Arrow system for long-range ballistic missiles, and the future Iron Beam, a laser-based defense currently under development. One of the most important aspects of the David’s Sling program is its constant evolution based on real-world combat experience. The Ministry emphasized that the latest tests reflect an “operational learning process,” showing how Israel is rapidly adapting its systems in real time during wartime conditions. In a joint statement, the Israeli and U.S. defense bodies hailed the test campaign as a “significant breakthrough” and highlighted how international cooperation continues to play a central role in Israel’s defense innovation. As missile threats in the Middle East grow more accurate, faster, and harder to detect, Israel’s upgraded David’s Sling is being prepared to meet the challenge head-on—offering a critical layer of protection in a volatile and constantly shifting security environment.
Read More → Posted on 2025-08-05 15:26:53
World
In a major step towards developing next-generation high-speed missiles, the U.S. Navy has successfully completed a solid fuel ramjet test using a BQM-34 Firebee drone, according to newly released documents and official statements. The test was conducted by the Naval Air Warfare Center Weapons Division (NAWCWD) as part of its ongoing research under the Capacity High Altitude Naval Strike Weapon (CHAINSW) program. This program, detailed in the FY2026 U.S. Navy budget, focuses on turning earlier solid fuel ramjet (SFRJ) technologies into operationally relevant propulsion systems that could eventually power future air-launched weapons. While still in the research and development stage, this effort could feed into a range of future missile programs—both existing and in planning. The highlight of this effort came earlier this year when NAWCWD engineers developed and flight-tested a ramjet-powered demonstrator called the Solid Fuel Integral Rocket Ramjet (SFIRR). Impressively, the entire system was built and tested within just 12 months, marking a significant achievement for a field that usually requires years of development. The first flight test, which took place at Point Mugu, California, was the first air launch of a solid fuel ramjet from an unmanned platform in 70 years. Though the initial test faced some in-flight hardware failures, the second test was successful, achieving both primary and secondary test objectives. Navy officials said a second failure could have delayed the program by up to a year, underscoring how critical the test was. While the Navy has not shared further details on the exact missile systems that could benefit from this development, experts believe the CHAINSW ramjet work could support future systems like: HALO (Hypersonic Air-Launched Offensive) missile, which was initially part of the OASuW Increment 2 (Offensive Anti-Surface Warfare) program before its cancellation, and ACME (Advanced Capacity Maritime Effector), a future naval capability weapon that aims to be mass-producible and optimized for internal carriage on F-35C stealth fighters. The Office of Naval Research has already indicated interest in using new propulsion technologies for time-sensitive strike missions, and ACME’s goals include entering engineering and manufacturing development by FY2030 with early operational capability by FY2031. Adding a human touch to the achievement, Todd Douglas, a test conductor with NAWCWD’s Threat Target Systems Department, received the Dr. Twain C. Lockhart Memorial Award. The award honors significant contributions to target system development, with Douglas being recognized for his role in using the BQM-34 drone to carry out the groundbreaking ramjet launch. Although more specific details remain classified or unavailable, the success of the CHAINSW program and its recent ramjet tests signal the Navy’s push towards faster, longer-range weapons that can match or outpace emerging threats—especially in contested maritime zones. As the Navy continues to evolve its high-speed strike capabilities, this effort marks a quiet but significant turning point in the future of missile propulsion technology.
Read More → Posted on 2025-08-05 15:23:06
World
In a rare and bold move, China’s state media on August 1, 2025, released official footage of a Type 094 nuclear-powered ballistic missile submarine (SSBN) embarking on what appears to be a strategic patrol, marking the first public acknowledgment of such an operation. The video, showing the submarine preparing to leave an undisclosed naval base, included a chilling declaration from a crew member stating they would “launch nuclear missiles without hesitation” if ordered. The submarine featured is the Jin-class Type 094, a key asset in China’s sea-based nuclear deterrent. It is armed with JL-2 submarine-launched ballistic missiles (SLBMs), capable of carrying either a 1-megaton nuclear warhead or multiple independently targetable reentry vehicles (MIRVs). The JL-2 has a range of 7,200 to 8,000 kilometers, giving it the reach to strike targets well beyond Asia—including parts of the continental United States—from the waters of the South China Sea or Western Pacific. The patrol is widely believed to have launched from Longpo Naval Base, located on Hainan Island, which is a heavily fortified site known to house China’s nuclear submarine fleet. Though Chinese authorities did not reveal the submarine's hull number or its mission specifics, analysts suggest the announcement was intentionally timed as a message to the U.S. and regional rivals amid heightened tensions in the Indo-Pacific. According to the U.S. Department of Defense, the Type 094 represents China’s first credible sea-based nuclear deterrent. Its development has helped China move closer to a triad-based nuclear posture, where nuclear weapons can be launched from land, air, and sea. Though still less advanced in stealth and acoustics compared to American and Russian SSBNs, the Type 094 is undergoing upgrades to carry the more capable JL-3 missile, with intercontinental range possibly exceeding 10,000 kilometers. The submarine itself is a second-generation SSBN with a submerged displacement of 11,000–12,000 tons, about 135 meters in length, and powered by a pressurized-water nuclear reactor. It can reach speeds of 20–24 knots underwater and dive to depths of over 300 meters, allowing it to remain hidden for long-duration patrols. Besides its missile armament, the submarine is fitted with six torpedo tubes, capable of launching heavyweight torpedoes and naval mines. However, defense experts note that despite improvements, the Type 094 remains noisier and more detectable than its counterparts—like the U.S. Ohio-class or Russia’s Borei-class submarines—limiting its survivability in heavily contested waters. China's submarine modernization doesn’t stop here. The country is developing the next-generation Type 096 SSBN, expected to become operational by the end of the decade, which will reportedly be quieter and more survivable. Alongside this, work is ongoing on the Type 095 nuclear attack submarine and improvements to conventional platforms like the Type 041. Compared globally, China still lags behind established nuclear submarine powers. The U.S. operates 14 Ohio-class SSBNs, globally recognized for their stealth and extended patrol capabilities. Russia, too, maintains a credible sea deterrent with its Borei-class fleet, while France and the UK each operate fewer SSBNs but maintain robust second-strike capabilities. The public release of China’s SSBN patrol aligns with growing friction in the region—particularly over Taiwan, increased U.S. military ties with allies like Japan, the Philippines, and Australia, and the AUKUS security pact. China’s decision to publicly showcase its nuclear deterrent is widely viewed as a strategic signaling move—meant to deter adversaries and reinforce its resolve to defend what it considers its core interests. This shift—from traditional opacity to public military messaging—shows China’s growing confidence in its nuclear deterrent and its willingness to use it as a tool of strategic influence. As regional tensions grow, the presence and visibility of the Type 094 could reshape naval dynamics and elevate nuclear risk calculations across the Indo-Pacific.
Read More → Posted on 2025-08-05 15:19:30
World
Lockheed Martin has launched a new Command and Control (C2) prototyping hub in Suffolk, Virginia, designed to strengthen the United States' efforts under the “Golden Dome for America”—a national-level project aimed at building a layered air and missile defense system to protect the U.S. homeland. The new facility, named “The Lighthouse”, is part of Lockheed Martin’s Center for Innovation. It is set up to accelerate the development and integration of battle-tested C2 systems, which are crucial in connecting sensors, shooters, and platforms across all military domains—from the seabed to space. At its core, this initiative focuses on real-time situational awareness and coordinated response to threats by merging data from multiple sources. These C2 systems play a vital role in detecting threats, coordinating defense systems like interceptors, and ensuring cyber-resilient communications across the network. “This rapid C2 prototyping effort is one among many within Lockheed Martin demonstrating how we can support the US Government as a Golden Dome for America mission partner,” said Daniel Nimblett, Vice President of Layered Homeland Defense at Lockheed Martin. Prototyping work is already in motion at The Lighthouse, where Lockheed Martin is testing how well its technologies hold up against both existing and emerging threats. This includes advancements in threat evaluation, AI/ML integration, mission planning, battle management, and secure data sharing across air, land, sea, and space. Calling the initiative a “challenge unlike anything attempted at this scale or on this timeline,” Thad Beckert, Golden Dome C2 Director at Lockheed Martin, emphasized the need to move fast. He described The Lighthouse as a unique space where technologies that weren’t originally built to work together can now be tested and adapted to function as a cohesive unit. The Lighthouse also supports multi-level classified experimentation and is fully equipped for modelling, simulation, wargaming, tabletop exercises, and Live, Virtual, and Constructive (LVC) testing. It already serves as a collaborative hub for government, academia, and industry to shape next-generation defense tools. Looking ahead, Lockheed Martin plans to bring in technologies from multiple defense companies to build an integrated C2 solution. “No one company is going to bring all of the solutions,” Beckert said, highlighting the importance of cross-industry collaboration. “We are committed to helping the government build a unified, layered homeland defense that protects our nation now and into the future.” The Golden Dome for America program, spearheaded by the U.S. government, is designed to deliver a comprehensive, integrated air and missile defense (IAMD) architecture. It aims to be operational ahead of 2028, and Lockheed Martin’s new hub marks a significant step in meeting that ambitious timeline. With growing threats from hypersonic missiles, drones, and cyber attacks, this initiative is seen as a strategic priority for national defense. Lockheed Martin’s Lighthouse, by fusing existing technologies with experimental innovation, is expected to play a key role in shaping the future of homeland protection.
Read More → Posted on 2025-08-05 15:16:48
India
In a carefully timed move, the Indian Army on Tuesday brought attention to a long-forgotten chapter in U.S.-Pakistan relations by posting an old newspaper clipping from 1971, highlighting how the United States had supplied over $2 billion worth of military equipment to Pakistan between 1954 and 1971. The post, shared by the Army’s Eastern Command under its archival series “This Day That Year,” served as a subtle reminder of America’s historic tilt toward Pakistan — just as Washington reopens energy cooperation talks with Islamabad. According to the 1971 news excerpt, the U.S. had equipped Pakistan with fighter jets, missiles, submarines, tanks, and artillery — much of it at concessional or “throw-away prices.” The information was originally disclosed in Parliament by then Defence Production Minister V. C. Shukla, who expressed concern over continued arms support to Pakistan despite its brutal crackdown in East Pakistan (now Bangladesh). The timing of the post is significant. It came just hours after reports emerged of U.S. officials showing renewed interest in developing Pakistan’s oil sector, a move widely seen as a new phase in U.S.-Pakistan economic engagement. This also follows a recent visit by Pakistan Army Chief General Asim Munir to the United States, suggesting warming ties between the two nations. Interestingly, this rekindled cooperation comes even as former U.S. President Donald Trump criticizes India’s oil trade with Russia, adding another layer of geopolitical irony. Many analysts believe the Indian Army’s post was not just a historical throwback, but a pointed message—highlighting that U.S. support for Pakistan has long existed despite serious human rights concerns and regional instability. The 1971 article also captured a warning from then Pakistan President Yahya Khan, who threatened war if any aggression was carried out in East Pakistan. Just months later, in December 1971, war did break out between India and Pakistan, resulting in the creation of Bangladesh. The archival post is being seen by observers as a quiet but firm diplomatic signal. While New Delhi has refrained from making any official statements on the latest U.S.-Pakistan oil overtures, the Indian Army’s reminder of past American favoritism has stirred fresh discussions in strategic circles. As India walks a fine line balancing its oil imports from Russia and its complex relations with Washington, the resurfaced memory of past military alignments serves as a reminder of how history still shapes the present.
Read More → Posted on 2025-08-05 15:14:06
World
In a significant move to strengthen its short-range air defense capabilities, Russia has officially started serial production of the Typhoon-PVO—a modern, mobile air defense vehicle designed to counter threats from drones, cruise missiles, and low-flying aircraft. This announcement came on July 15, 2025, from Fanil Ziyatdinov, head of the Izhevsk Electromechanical Plant "Kupol", under the Almaz-Antey Air and Space Defense Concern, following successful state qualification trials. The Typhoon-PVO is a new generation MANPADS (man-portable air defense system) carrier, optimized for mobility, survivability, and responsiveness on the modern battlefield. Unlike older systems mounted on standard trucks or infantry vehicles, the Typhoon-PVO is purpose-built and based on the rugged KamAZ-4386 4x4 chassis from the Typhoon-VDV family, known for its armored protection and mobility. At its core, the Typhoon-PVO carries nine shoulder-fired missiles, including the Igla, Igla-S, and the newer Verba systems. These allow it to effectively engage small aerial targets such as helicopters, cruise missiles, and UAVs. In particular, the Verba (9M336) missile system has become a standout feature, thanks to its three-spectral seeker (ultraviolet, shortwave IR, and medium-wave IR), providing superior lock-on capabilities against low-signature aerial threats. The Verba is also compatible with the Barnaul-T command system, enabling friend-or-foe identification and external targeting data integration. The vehicle comes with a five-member crew: commander, driver, machine gunner, and two MANPADS operators. Inside, it has space for: 9 missiles 3 radar interrogator sets 9 power units Ammunition for the 12.7 mm Kord heavy machine gun The 12.7 mm Kord machine gun, mounted on a rotating turret, can engage aerial targets even while the vehicle is moving at speeds of up to 20 km/h. Two roof hatches allow operators to fire without exiting the vehicle—an important feature for combat safety. Armor protection meets STANAG 4569 Level 4, defending against 14.5 mm armor-piercing rounds and 8 kg mine blasts (Level 3b). The vehicle is equipped with: 360-degree camera coverage Overpressure-sealed NBC protection FVU-100 filtration system Emergency roof evacuation hatches Performance-wise, it’s powered by a KamAZ-650 diesel engine (350 hp), achieving speeds up to 100 km/h and a range of over 1,200 km. The independent hydropneumatic suspension helps it cross 1.75-meter water obstacles and ascend 30-degree slopes. It measures about 6.9 meters long, 2.5 meters wide, and 2.7 meters high, with a combat weight around 14 tons. While the Typhoon-VDV chassis was originally designed for airborne forces and airdropping, the Typhoon-PVO sacrifices air-drop capability in favor of stronger protection and air defense specialization. A cheaper spring-suspension version is also being offered for non-airborne units like Russia’s Interior Ministry. The system is fully integrated into Russia’s layered air defense network, and can operate alongside systems like Tor-M2. It can receive and act on external radar data, offering protection not only on the frontlines but also for critical infrastructure like oil refineries, railways, and bridges. It has also been seen in Victory Day parades since 2021, marking its official adoption. Field tests include a notable demonstration at the 2019 Clear Sky competition in China, where it completed a 9.5 km obstacle course with 12 obstacles in under 44 minutes. Its performance during the Army-2020 event at Ashuluk range also met expectations. Beyond domestic use, there is growing interest from foreign militaries, especially in Africa, where older Soviet systems are becoming obsolete. The low-cost, modular design, effective counter-UAV capabilities, and networked architecture make Typhoon-PVO attractive for asymmetric and urban warfare. Almaz-Antey officials have confirmed discussions with countries in Africa, the CIS, and Asia-Pacific regions. Russian defense experts, including Major General Vladimir Popov, describe the vehicle as filling the gap between basic MANPADS teams and more expensive systems like Pantsir-S1, offering flexible and affordable protection in dispersed battle zones. With drone warfare rapidly evolving, the Typhoon-PVO enters service at a critical time—aimed squarely at ensuring Russia’s frontline forces and key assets remain shielded from the growing threat of low-flying and low-cost aerial attacks.
Read More → Posted on 2025-08-05 15:09:16
World
In a major step forward for directed energy weapons, Electro Optic Systems (EOS) has landed a €71.4 million (around A$125 million) deal to supply a 100-kilowatt laser-based drone defence system to a European NATO member state. This marks a world-first export of a laser weapon in the 100kW class, a powerful indication of where modern battlefield technology is heading. The contract includes not just the delivery of the high-energy laser weapon itself, but also spare parts, training, and technical documentation. Shipments will take place between 2025 and 2028, and the system will be produced at EOS’s advanced manufacturing facility in Singapore. This isn’t just a typical arms sale. It reflects the rising demand for cost-effective, scalable solutions to one of the most pressing threats in today’s warfare: drone swarm attacks. Unmanned aerial vehicles, often cheap and used in large numbers, are becoming increasingly dangerous. In response, EOS has spent the last three years testing and refining its new laser system to provide a reliable, clean, and kinetic-free method of defence. The 100kW laser system is designed to detect, track, and disable drones with pinpoint accuracy. It integrates a suite of advanced technologies, including: High-powered directed energy beam Radar systems for target detection Advanced algorithms for threat analysis Beam locking and tracking systems for precision engagement These capabilities allow the laser to neutralize aerial threats silently and without collateral damage, making it ideal for use in urban or sensitive environments where explosive countermeasures are not suitable. Unlike traditional missile or gun-based air defence, laser weapons offer a near-instant response time and very low cost per shot, allowing sustained operations against large numbers of small drones without logistical strain. EOS’s new system builds on its previous work in kinetic counter-drone technologies, but the shift to directed energy represents a major leap in capability. The company credited the contract win to “extensive marketing, live demonstrations, and close collaboration with customers” throughout the development and testing phase. This breakthrough deal not only boosts Australia-based EOS's standing in the global defence market, but also signals growing international confidence in high-energy laser weapons as part of next-generation layered air defence systems. It also adds to the ongoing trend among NATO countries of rapidly enhancing counter-UAV capabilities in response to lessons learned from recent conflicts, including in Ukraine and the Middle East, where drones have transformed the battlefield. The announcement was formally released to the Australian Securities Exchange (ASX) by EOS’s Board of Directors.
Read More → Posted on 2025-08-05 15:05:56
World
In a bold step toward defense self-reliance, Greece is developing its first domestically-built military satellite, signaling a new era in its national security strategy. The project is spearheaded by the Hellenic Defense Innovation Center (ELKAK), a state-owned organization focused on modernizing Greece’s defense capabilities through indigenous innovation. This new satellite will serve intelligence, surveillance, and reconnaissance (ISR) roles and is required to use Synthetic Aperture Radar (SAR) technology — a powerful imaging system capable of capturing high-resolution images regardless of weather or lighting conditions. Unlike traditional optical imaging, SAR uses radar signals to generate images, making it particularly valuable for round-the-clock military observation, even through clouds or darkness. The Greek government has allocated €25 million (approximately $28.8 million) to design, develop, and produce the satellite entirely within the country. The goal is to secure full sovereignty over vital space-based defense assets while also giving a boost to the local defense and tech industry. “Space is now recognized as the fifth operational domain — alongside land, sea, air, and cyberspace,” said ELKAK CEO Pantelis Tzortzakis, underlining the strategic importance of this venture. Alongside the ISR satellite, ELKAK has also launched separate initiatives to explore two other critical defense technologies: counter-unmanned aerial systems (C-UAS) and electronic warfare (EW) platforms. Counter-Drone Technology Greece’s planned counter-drone system aims to detect, track, and neutralize both individual drones and drone swarms. The requirement outlines a modular architecture, combining kinetic measures (like anti-drone guns or interceptors) and non-kinetic tools (such as jamming or microwave systems). The platform must also be compatible with multiple military systems, allowing smooth integration with existing defense infrastructure. This move comes as drone threats continue to escalate globally, particularly in conflict zones where small UAVs are frequently used for surveillance and attack missions. Advanced Electronic Warfare System The electronic warfare platform Greece is seeking would perform electronic surveillance, and should be capable of detecting, tracking, and jamming enemy radar and communication systems. Importantly, the system must be AI-driven, allowing it to autonomously adapt to new or evolving threats. ELKAK specified that the system must also be modular and suitable for both fixed and mobile deployment, fully compatible with Greece’s C4I (Command, Control, Communications, Computers, and Intelligence) infrastructure. These high-tech projects are part of a broader defense modernization plan unveiled by Athens in April 2025, aimed at enhancing the operational readiness and technological edge of its armed forces amid rising regional tensions. By pursuing space capabilities and next-gen warfare technologies like AI-driven EW and counter-drone systems, Greece is clearly positioning itself to become more self-reliant, resilient, and digitally agile in the face of emerging threats.
Read More → Posted on 2025-08-05 14:56:55
World
In a significant move to boost its air combat strength, Thailand has approved a $600 million deal to purchase four new Saab JAS 39 Gripen fighter jets from Sweden, according to an announcement by the Royal Thai Air Force (RTAF) on Tuesday. The decision comes just a week after a tense ceasefire was reached with Cambodia following deadly border clashes that left more than 40 people dead—the most violent encounter between the two countries in decades. The newly approved jets are part of Thailand’s long-term effort to modernize its air force and replace aging U.S.-made F-16 aircraft that have been in service since the 1980s. A special procurement committee had been reviewing options since August last year and eventually chose the Swedish-built Gripen over updated variants of the F-16. The decision followed a 10-month evaluation process focused on cost-efficiency, operational capability, and long-term maintenance advantages. Thailand already operates a fleet of 11 JAS 39 Gripens, acquired in the late 2000s, and this new order will further strengthen that capability. According to the air force, the acquisition was aimed at ensuring national security and protecting Thai sovereignty, especially in light of rising regional tensions and evolving threats. The JAS 39 Gripen is a lightweight, multirole fighter jet developed by Saab, Sweden’s top aerospace company. Known for its agility, advanced radar systems, and cost-effectiveness, the Gripen is used by several countries including Sweden, Hungary, the Czech Republic, Brazil, and South Africa. Experts say Gripen's high maneuverability and short takeoff capability make it suitable for rapid-response missions, particularly in Southeast Asia's unpredictable terrain and political climate. Its open-architecture system also allows easier upgrades over time, helping nations avoid expensive overhauls or complete replacements. Why Not F-16? Although the F-16 remains a globally dominant fighter with decades of proven performance, Thailand’s decision was reportedly influenced by the lower operating cost and ease of integration offered by the Gripen. U.S. export controls and geopolitical concerns may have also played a role. Defense Spending and Strategic Context Thailand's total defense budget stands at around 200 billion baht ($6 billion), which includes funding for the army, navy, and air force. The air force’s share is now being increasingly directed toward high-tech modernization, including surveillance drones and multirole fighters like the Gripen. During the recent border conflict with Cambodia, Thailand deployed F-16s for precision strikes, but concerns about the aging fleet’s sustainability have driven urgency in upgrading the air wing. The Royal Thai Air Force is expected to receive the new Gripens within the next few years, and additional orders may follow depending on regional developments and budget availability. This latest approval underscores Thailand’s growing focus on self-reliant, versatile air power in a region where geopolitical friction is intensifying. With the addition of these advanced Swedish jets, Thailand is aiming to keep its skies secure and its deterrence credible.
Read More → Posted on 2025-08-05 14:52:32
India
In a major reaffirmation of intent, British aerospace major Rolls-Royce has declared that it remains “very much in the game” to co-develop the engine for India’s fifth-generation stealth fighter, the Advanced Medium Combat Aircraft (AMCA). The statement comes amid growing reports that France’s Safran has emerged as the likely partner for the ambitious engine program. India has long sought a foreign collaborator to develop a high-thrust engine in the 110–130 kN class for AMCA Mk-2, which is scheduled for induction around 2035. While the early Mk-1 variants will be powered by GE’s F414 engines, the indigenous engine will be the technological backbone of future AMCA variants and possibly other platforms. Although Safran has reportedly secured preliminary approval for its offer, Rolls-Royce insists that the final decision is yet to be made. Speaking to Indian media, Alex Zino, Executive Vice President for Business Development at Rolls-Royce, said, “We’re still in talks; we’re still putting an offer on the table through the UK government.” Rolls-Royce has proposed a completely new engine design, developed in collaboration with India’s Gas Turbine Research Establishment (GTRE), and tailored specifically to meet the AMCA’s stealth and performance requirements. The UK-based firm is offering: Complete Transfer of Technology (ToT) Indian ownership of Intellectual Property (IP) Co-development of design and core technologies Manufacturing in India under Make-in-India framework The company has also suggested that the proposed engine architecture could be scaled up to 200 kN thrust, allowing it to power future sixth-generation aircraft or twin-engine deck-based fighters. Meanwhile, Safran’s proposal has gained traction within Indian defence circles due to its established track record with the Kaveri engine revival, its offer of full technology sharing, and the willingness to set up full-scale manufacturing and design facilities in India. Safran is reportedly planning to share core hot-section technology—a capability no country has transferred to India so far. However, Rolls-Royce’s latest public statement may reintroduce competitive pressure as the Indian government moves toward a final decision. Officials from the Ministry of Defence (MoD) have indicated that a selection will likely be made by the end of 2025, following detailed technical and commercial evaluations. Defence analysts see this competition as a turning point for India’s long-struggling aero-engine capability. “The stakes are high—not just for AMCA, but for India's entire aviation ecosystem over the next 30 years,” said an expert from the Institute for Defence Studies and Analyses (IDSA). “Whichever partner India chooses will help shape its technological self-reliance in jet propulsion.” While Safran may be ahead, Rolls-Royce’s reaffirmation ensures that the race is far from over. Both firms have aligned their proposals with India’s Atmanirbhar Bharat (self-reliance) vision and promised joint development models that would significantly enhance India’s research, design, and manufacturing capabilities. With a decision expected in the coming months, the AMCA engine partnership could become a landmark in India's military-industrial history, potentially giving birth to the country's first truly indigenous high-thrust fighter engine.
Read More → Posted on 2025-08-04 17:08:18
India
India’s Light Combat Helicopter (LCH) ‘Prachand’, developed by HAL, now boasts enhanced survivability thanks to newly demonstrated lightweight armour panels capable of withstanding rounds from 7.62 × 54R API and 12.7 × 108 API weapons. Armour Design & Protection Armour coverage area is approximately 3.12 m², with a total weight around 102 kg—a design that ensures critical coverage while keeping the helicopter agile. The armour is rated to stop a single 12.7 × 108 API round (48 kg/m² protection density) and a 7.62 × 54R API projectile (28 kg/m² density), each shot tested under controlled conditions. These ceramic-based hard plates—up to 45 mm thick against 12.7 mm threats and 12 mm against 7.62 mm—were demonstrated successfully through stand-alone tests and prototype aircraft fitting. Technological Highlights Hybrid Ceramic Structure: Lightweight ceramic-faced armour (“Felid‑²″), built using stand-alone ceramic-faced hard armour panels and field ballistics demonstration, shows high energy absorption with minimal mass. Optimized Placement: Armour mounted at key protection zones—cockpit sides and frontal areas—delivers maximum benefit with minimal weight penalty. Tactical Benefit: At roughly 100 kg for 3.12 m² coverage, the armour imposes minimal drag, preserving the LCH’s high-altitude performance and manoeuvrability. Broader Context & Impact The armour is part of LCH’s ongoing survivability upgrades, alongside bulletproof windshields, self-sealing fuel tanks, damage‑tolerant rotor blades, and radar‑absorbing panels—all contributing to Prachand's ability to operate safely in hostile environments. Lightweight armour greatly enhances battlefield survivability against small‐arms and heavy‐machine‐gun fire—especially crucial in low‐altitude counter‑insurgency and anti‑armour missions near ground engagements. As India begins serial induction with 156 helicopters ordered for the Army and Air Force—with the deal worth around ₹62,000 crore—the armour kits will likely be standard fitment in future production blocks . Why It Matters Prachand is the first Indian-designed helicopter built to fight and survive in conflict zones at high altitudes like Ladakh and Siachen. The light armour upgrade underscores a key evolutionary step: balancing firepower, altitude performance and protection without compromising agility. At a time when India is scaling up LCH deployment and preparing exports, modular and lightweight armour can also serve as a differentiator—making Prachand one of the few light attack helicopters worldwide optimized for high-altitude, protected operations. With its new light-armour configuration, the LCH Prachand achieves a critical balance of tactical protection and maneuverability, enabling enhanced survivability in real combat. As Prachand enters full-scale production and deployment, these armour enhancements position it as a resilient, indigenous solution built for modern battlefield requirements.
Read More → Posted on 2025-08-04 17:01:29
Space & Technology
In a major milestone for India’s space program, the Indian Space Research Organisation (ISRO) has announced that it will conduct the first launch of the upgraded LVM3 rocket equipped with a semi-cryogenic stage in early 2027. This new variant is set to significantly boost payload capacity and reduce launch costs, marking a key step toward future deep-space missions and heavy satellite deployment. The LVM3 (Launch Vehicle Mark-3), India’s most powerful rocket to date, currently uses a twin-Vikas engine liquid stage (L110) and a cryogenic upper stage. The new version will replace the L110 with a more powerful semi-cryogenic stage called SC120, powered by a high-thrust SE2000 engine that runs on liquid oxygen (LOX) and kerosene. Key Upgrades First Stage Modernization:The SC120 semi-cryogenic stage will replace the older liquid stage, offering a thrust of around 200 tonnes, compared to the twin Vikas engines’ combined thrust of ~160 tonnes. The SE2000 engine uses a more efficient oxidizer-rich staged combustion cycle. Cryogenic Upper Stage Enhancement:ISRO is also increasing the propellant load of the CE-20 cryogenic upper stage from 28 to 32 tonnes, enhancing mission flexibility and burn duration. Increased Payload Capacity:With these changes, the upgraded LVM3 is expected to deliver up to 5,200 kg to Geosynchronous Transfer Orbit (GTO) — a significant improvement over the current 4,200 kg capacity. Cost Efficiency:The semi-cryogenic design, based on kerosene and LOX, is not only more powerful but also more economical, potentially reducing per-launch costs by up to 25%. Testing & Development The SE2000 engine, developed by ISRO’s propulsion teams, has undergone successful hot-fire and ignition tests. These include powerhead validation, start-stop cycles, and partial thrust firings, with full-scale qualification expected by late 2026. All trials are being conducted at ISRO’s Semi-Cryogenic Integrated Engine Test Facility in Mahendragiri. This engine is India’s first attempt at a large-scale staged-combustion engine — a technology used by advanced launch systems like the Russian RD-180 and SpaceX’s Raptor. It marks a leap forward in efficiency, allowing higher performance without increased mass. Strategic Implications The upgraded LVM3 is not only aimed at heavier commercial satellite launches but also forms the backbone for India’s upcoming crewed spaceflights and interplanetary missions. Its performance gains will also play a vital role in supporting missions under development for lunar exploration, the Venus orbiter, and India’s planned space station. Furthermore, this semi-cryogenic version lays the foundation for the Next Generation Launch Vehicle (NGLV) — ISRO’s future heavy-lift and partially reusable rocket, expected in the 2030s. ISRO’s announcement marks the beginning of a transformative phase in India’s launch vehicle capability. The successful debut of the semi-cryogenic LVM3 in 2027 will not only improve commercial competitiveness but also serve as a critical stepping stone for human spaceflight and beyond. Further integration work and qualification tests will continue through 2025 and 2026, as the space agency prepares to bring this next-generation workhorse to the launchpad.
Read More → Posted on 2025-08-04 16:48:59
India
In a major push for indigenous defense innovation, Jindal Defence’s TITUS 100G Remote-Controlled Weapon Station (RCWS) is slated to undergo high-altitude trials with the Indian Army in the coming months, marking a significant milestone in its development cycle. The trials aim to validate the AI-enabled weapon system’s performance in challenging operational environments, such as mountainous terrain and extreme cold, where India faces some of its most pressing strategic threats. Unveiled earlier this year, the TITUS 100G is an advanced, AI-powered hard-kill protection system designed to detect and intercept incoming threats in the 7.62mm and 12.7mm caliber range. The system integrates cutting-edge machine learning algorithms to autonomously track, identify, and neutralize small arms fire and other kinetic threats before impact. Tested for the High Frontier Sources indicate that the upcoming trials will take place in high-altitude regions under Indian Army supervision, possibly including forward areas in Ladakh or Sikkim. These zones, characterized by thin air, sub-zero temperatures, and rugged terrain, present unique challenges for both mechanical systems and sensor-based platforms. The Indian Army will assess the TITUS 100G’s target acquisition accuracy, AI classification efficiency, system responsiveness, and ruggedness under harsh conditions. The system is also equipped with geo-fencing capabilities to ensure safe operational boundaries and prevent unintended engagement, an important safety feature for deployment in populated or civilian-adjacent areas. System Capabilities at a Glance Threat Interception Range: 7.62mm and 12.7mm kinetic projectiles Operating Modes: Fully autonomous with manual override AI Features: Real-time target classification, friend-or-foe identification Applications: Armored vehicles, border outposts, static infrastructure defense Operational Enhancements: Geo-fencing, rapid-response firing logic A Step Forward in ‘Make in India’ TITUS 100G’s deployment readiness is aligned with India’s growing focus on self-reliant defense manufacturing. If the trials prove successful, the system could be inducted into border security units and mechanized infantry formations, replacing or supplementing foreign-imported active protection systems (APS) with a domestic alternative. A senior defense analyst familiar with the system noted,"This is one of India’s first RCWS platforms to integrate a full-spectrum AI kill-chain with hard-kill capability in the small-arms threat class. High-altitude validation is critical for its future across the northern borders." Jindal Defence has steadily expanded its footprint in the Indian defense sector, and the TITUS 100G represents a notable leap into the field of autonomous battlefield systems. The company’s push into AI-driven lethality and perimeter security is reflective of a global trend, where militaries are increasingly relying on automation to respond to fast-evolving threats. As the Indian Army prepares for high-altitude evaluations, all eyes will be on how the TITUS 100G performs under real-world tactical conditions. A successful outcome could pave the way for its deployment across India’s most sensitive and strategically critical terrains.
Read More → Posted on 2025-08-04 16:43:11
India
In a significant leap for India's naval air defense capabilities, the Defence Research and Development Organisation (DRDO) is developing a next-generation Long-Range Surface-to-Air Missile (LR-SAM) system for the Indian Navy, capable of intercepting anti-ship ballistic missiles (ASBMs) traveling at speeds up to Mach 7. The system, under active development, is expected to have a strike range between 200 to 300 kilometers, placing it among the most advanced naval missile shields in the Indo-Pacific. This new missile system forms part of India’s Project Kusha, an ambitious initiative to create a family of indigenous long-range interceptors to protect Indian airspace and maritime assets from evolving missile threats. Designed for the Maritime Threat Environment The naval LR-SAM is specifically engineered to counter modern high-speed threats, including ballistic missiles aimed at aircraft carriers and frontline naval vessels. According to sources familiar with the program, the missile is expected to engage incoming ASBMs in their terminal phase, a highly challenging interception profile due to the projectile's steep angle and hypersonic velocity. Designed as a naval variant of the M2 interceptor from Project Kusha, this missile offers a range bracket of 250–300 km and is likely to be equipped with advanced seekers and thrust vector control for terminal guidance precision. Specifications and Features (Expected) Feature Specification Type Naval Long-Range Surface-to-Air Missile Range 200–300 km Target Types Aircraft, cruise missiles, ASBMs (up to Mach 7) Interceptor Variant Based on Project Kusha's M2 Launch System Vertical Launch from naval warships Guidance System Active radar homing + AI-assisted targeting Defensive Envelope Layered area defence with shipborne radar support Strategic Significance The development comes at a time when anti-ship ballistic missiles like China’s DF-21D and DF-26 pose an increasing threat to surface fleets, particularly in contested maritime regions. With China fielding long-range carrier-killer missiles and testing them in the Indo-Pacific, India's naval doctrine is now shifting toward hardened fleet defense capabilities. According to BharatShakti.in, the Indian Navy’s version of the LR-SAM will function similarly to the U.S. Navy’s SM-6, offering both anti-air and anti-ballistic missile roles as part of a comprehensive layered defense architecture. Defence analysts believe that equipping Indian warships with such interceptors will dramatically reduce their vulnerability to standoff missile strikes, particularly during high-value operations involving aircraft carriers or amphibious task groups. Project Kusha and the Interceptor Family Project Kusha, DRDO’s flagship program for advanced air defense, includes three variants: M1: ~150 km range M2: ~250–300 km range (naval and land-based) M3: 350–400 km range with potential for hypersonic threat interception The naval LR-SAM derives its capability base from the M2 missile, with adaptations for vertical launch integration and ship-based fire control systems. In April 2023, DRDO conducted successful trials of Ballistic Missile Defence (BMD) systems at sea, validating India's technological readiness to intercept high-speed projectiles in naval environments. Expert Commentary A senior Navy officer familiar with the program stated: “This system will provide our fleets with a formidable defensive umbrella. The ability to intercept ASBMs at Mach 7 is not only a technical milestone but a necessity in future sea-based warfare.” According to SPS Naval Forces, the system is already undergoing initial lab-level testing, with full-scale ship-based trials expected by 2027. Integration with the Navy’s new-generation destroyers and frigates is planned once testing and validation are complete. Boost to Indigenous Capability The development of this advanced missile system is in line with the Aatmanirbhar Bharat (Self-Reliant India) initiative, pushing DRDO and Indian industry to replace foreign missile defense systems like Israel’s Barak-8 and Russia’s S-300 variants with homegrown solutions. The LR-SAM will operate in tandem with existing systems such as the VL-SRSAM and MR-SAM, creating a multi-layered defense net around naval platforms operating in hostile or contested waters. The DRDO’s naval LR-SAM is poised to become a game-changing asset in India’s maritime defense doctrine. With its ability to tackle hypersonic anti-ship missiles at extended ranges, the system not only enhances survivability for naval fleets but also places India among a select group of nations capable of sea-based ASBM interception. With trials and integration expected in the coming years, this indigenous solution promises to solidify India’s maritime security architecture amid a rapidly evolving threat landscape.
Read More → Posted on 2025-08-04 16:36:47
World
China’s recent promotion of its ‘kill chain’ air combat system—a networked approach allowing older jets like the J-10C to shoot down stealth fighters—has caught international attention. But while Beijing showcases its technological edge in tightly controlled military exercises, the real-world use of this system by Pakistan against India raises serious doubts about its actual combat effectiveness. During a televised military exercise featured in CCTV's documentary series Forging Ahead, China’s People’s Liberation Army Air Force (PLAAF) claimed that a J-10C fighter, guided by a KJ-500A airborne warning and control system (Awacs) and electronic warfare support, was able to shoot down a stealth aircraft using a PL-15 missile. Chinese officials claimed this as a demonstration of how systematic integration—rather than just individual aircraft capability—could allow older jets to defeat more advanced stealth platforms. China's media and officials have compared this simulation to Pakistan’s claimed use of similar tactics during recent skirmishes with India. Pakistan suggested its J-10Cs, supported by ZDK-03 Awacs and Data Link 17, managed to shoot down multiple Indian fighter jets, including the Rafale, during cross-border tensions. However, those claims are entirely baseless. No Proof, Just Propaganda Till now, Pakistan has failed to provide any visual or technical evidence—not in state media, not on social platforms, and not through independent verification—to support its claim of downing multiple Indian jets. These narratives appear to be aimed at boosting domestic morale rather than grounded in reality. On the contrary, India has officially acknowledged the loss of only one aircraft, and even that was due to a technical malfunction, not enemy fire. Indian authorities and military analysts have repeatedly debunked Pakistan’s exaggerated claims. India Shows Real Proof, Pakistan Shows None While Pakistan continues to rely on unverified claims, India has presented credible evidence of successfully damaging or shooting down multiple Pakistani aircraft. Not only were wreckages documented, but also several unexploded Chinese-made PL-15 missiles were recovered in Indian territory. This strongly suggests that Indian electronic warfare and jamming systems successfully neutralized these missiles mid-flight, highlighting a major weakness in the so-called “kill chain.” In fact, Indian Air Force (IAF) sources indicate that enemy missiles either failed to lock on or were jammed, falling harmlessly to the ground. This undercuts the narrative that Pakistan’s or China’s systems are fully war-proven. China's Technology: More Hype Than Reality? China’s military exercises, while technically impressive, are highly scripted and carefully controlled. Their success is measured under ideal conditions—not the chaos, unpredictability, and countermeasures of a real combat zone. While Chinese platforms like the PL-15 missile (with an estimated range of 200–300 km) and AESA radar-equipped J-10Cs appear advanced on paper, there’s little actual wartime success to validate their full effectiveness. The Indian experience, particularly the recovery of PL-15 missiles that failed to detonate, raises serious questions: If these weapons are so precise, why were they jammed and neutralized by Indian aircraft? If the kill chain is so effective, why hasn’t China—or Pakistan—produced combat evidence? The reality suggests that China’s campaign to promote these technologies may be more about military image-building and export marketing than actual battlefield performance. Claims Don’t Equal Capability The Chinese “kill chain” might represent a step forward in air combat strategy on paper—but real war tells a different story. Pakistan’s unproven use of it against India only highlights the gap between theory and battlefield reality. Without solid combat validation, these claims remain speculative, and their use in media appears more like propaganda than proof. As of now, the technology may be advanced, but its wartime success is questionable—especially when the few instances it was reportedly used, it failed against India’s robust defense systems.
Read More → Posted on 2025-08-04 16:27:29
World
Turkey's state-owned MKE (Mechanical and Chemical Industry Corporation) made headlines at IDEF 2025 by revealing a brand-new family of canister-launched loitering munitions, signaling a major step forward in the country’s indigenous weapons development. These munitions—often called “kamikaze drones”—have become a critical tool in modern warfare due to their ability to loiter over a battlefield before striking with precision. The new systems, showcased in the R&D section of MKE’s pavilion, include three distinct loitering munitions, all designed to be launched from a common platform. At the show, MKE presented an eight-cell trailer-mounted launcher, although the modular system can be reconfigured for land or naval use. The munitions are ejected from the tubes using a pneumatic launch system, after which their respective propulsion systems take over. Key Design Features All three versions share a similar airframe, constructed mainly from carbon fiber to minimize weight. They feature a near-square fuselage, foldable straight wings, and rear vertical stabilizers, allowing them to fit inside the launch tubes. Upon launch, the tail fins deploy first, followed by wing extension. Navigation is guided by GNSS with anti-jamming capability provided by four CRPA antennas. The munitions are optimized for low-altitude flight, helping avoid radar detection, and claim a targeting accuracy within 10 meters (CEP). Electric Version 1: Anti-Tank Munition This first electric variant has its motor mounted at the rear, spinning a two-blade folding propeller. It weighs 20 kg, with a 5 kg warhead. It reaches speeds of 140 km/h and has an operational range of 40 km. Two warhead types are planned: High-explosive fragmentation (with steel balls), or Shaped-charge anti-armor (for penetrating heavily protected targets). The shaped charge variant has a wider fuselage nose, though how it maintains the promised 10m accuracy is unclear—perhaps requiring an alternate seeker system. Electric Version 2: Fibre-Optic Guided Munition This jamming-resistant variant uses fibre-optic guidance, which provides real-time control via First-Person View (FPV). Since the fibre reel is placed at the rear, the electric motor is moved to the front to make space. Speed: 125 km/h (slightly reduced for cable management) Warhead: 2 kg high-explosive fragmentation, optimized for controlled strikes Control: Full manual control until impact via fibre-optic link The system is at Technology Readiness Level (TRL) 6/7, with airframe flight tests already done and full system tests upcoming. Turbine-Powered Jet Version The third and most powerful variant is powered by a small turbine engine (imported from Thailand) that runs on diesel, kerosene, or Jet A1 fuel. It uses the same general airframe structure with a rear-mounted engine. Speed: Over 300 km/h Range: 65 km Take-off weight: 60 kg, including a 20 kg high-explosive fragmentation warhead Lethal radius: 25 meters This version is also at TRL 6, with flight tests (minus warhead) completed and full-system trials scheduled next. MKE’s loitering munitions program shows how Turkey is pushing aggressively into next-generation guided weapons, joining a growing global trend toward modular, precision-strike drone systems. While these new drones remain unnamed for now, the unveiling at IDEF suggests they are nearing operational maturity. With flexible launcher platforms and varied mission-specific payloads, MKE’s loitering drones are poised to become a strategic asset for Turkish armed forces, and potentially for export to allied nations.
Read More → Posted on 2025-08-04 16:04:33
Ukrainian Soldiers Build Robotic Air Defense System Using Igla Missiles on Remote-Controlled Vehicle
World
In a powerful example of frontline innovation, Ukrainian soldiers from the 28th Mechanized Brigade have developed a robotic air defense system that blends combat tech with creativity to tackle Russian aerial threats. The unit’s engineers have mounted a shoulder-fired Igla MANPADS (Man-Portable Air Defense System) onto a 4×4 Unmanned Ground Vehicle (UGV), creating a mobile, remotely operated missile launcher. This makeshift air defense platform is already proving effective in battle. According to Ukraine’s defense news outlet Militarnyi, the brigade reported that the system has successfully downed a Russian helicopter in combat — a major achievement for a custom-built system operating under real war conditions. What makes this system stand out is its remote operation capability. A custom-built targeting module lets the operator aim and fire the missile from a safe location, without directly exposing themselves to enemy fire. This drastically reduces risk, especially when deployed close to contested frontlines or in high-threat areas. Photos released by the brigade show the UGV maneuvering over rough terrain, with the Igla missile launcher securely mounted on top. The vehicle’s compact, modular design allows for quick repositioning and supports mobile air denial missions — all while the crew remains under cover. The Igla system, originally developed by the Soviet Union and still widely used by Ukrainian forces, is a short-range infrared-guided missile designed to hit low-flying aircraft. On this robotic platform, it gives troops a stealthy, flexible, and cost-effective way to neutralize helicopters and low-altitude drones. This innovation is part of a broader Ukrainian trend: repurposing existing weapons and tech to keep up with the dynamic demands of modern warfare. As Russian drones and helicopters continue to pose threats across eastern Ukraine, such ground-level ingenuity offers vital new options for defense. By adapting available tools into smart battlefield solutions, Ukraine’s military shows that sometimes survival and success hinge more on imagination than on new hardware.
Read More → Posted on 2025-08-04 16:01:21
World
L3Harris Technologies has completed a major step in developing the U.S. Navy’s future underwater weapons by successfully testing the power plant system for the MK 54 MOD 2 Increment 2 Advanced Lightweight Torpedo. This test marks a key milestone in the Navy’s efforts to upgrade its undersea warfare tools with smarter and more powerful systems. At the heart of this breakthrough is the Stored Chemical Energy Propulsion System (SCEPS) — a cutting-edge propulsion technology that uses chemical energy to generate steam and drive a turbine, allowing the torpedo to travel faster and farther under water. The recently tested power plant is the core of this propulsion system. According to Scott Alexander, President of Missile Solutions at Aerojet Rocketdyne, a division of L3Harris, this successful trial confirms the strength and reliability of the power plant design. It also clears the way for the next round of testing, where the entire propulsion system — including the tail and afterbody — will undergo design verification later this year. The MK 54 MOD 2 torpedo is an upgraded version of the Navy’s widely used MK 54 lightweight torpedo. It’s designed for both deep and shallow water missions and is typically launched from ships, helicopters, and P-8A Poseidon maritime patrol aircraft. With SCEPS, the new version is expected to deliver greater range, speed, and stealth, making it more effective against modern underwater threats. One of the key technologies behind SCEPS is a lithium boiler, which produces intense heat to create high-pressure steam. This steam spins a turbine, which in turn drives the torpedo forward. Compared to older propulsion systems, this method is compact, powerful, and quiet — a major advantage in underwater combat. L3Harris is developing and manufacturing SCEPS components at its Center of Excellence for Undersea Propulsion Manufacturing in Orlando, Florida. This facility is not only producing parts for current Navy contracts but also working on new prototypes to push the technology even further. With the U.S. Navy focusing more on undersea dominance, especially in regions like the Indo-Pacific, the SCEPS-powered MK 54 MOD 2 could become a vital asset in future naval operations. The current progress places L3Harris at the center of this strategic transformation, giving the Navy a more capable and modern edge beneath the surface. The design verification testing scheduled later this year will be critical to finalize the system for deployment. If all goes well, the U.S. Navy could begin fielding the new torpedo variant in the near future, signaling a new era in underwater weapons technology.
Read More → Posted on 2025-08-04 15:56:20Search
Top Trending
-
Agneepath Scheme replaced with Sainik Samman Scheme 2024, Defence Minister Rajnath Singh Relaunched Agniveer Scheme
-
Death in Dhaka: CIA Links Surface After Putin Shielded Modi During SCO Meet
-
Key Differences Between 5th vs. 6th Generation Fighter Jets
-
Pakistan Air Force to Unveil Stealth-Enhanced JF-17 Block 4 Fighter Jet by 2028
-
India’s AMCA Engine Decision: Safran vs. Rolls-Royce Final Expected by 2025
-
Pakistan Announces 15% Increase in Defence Budget for 2024-25 Amid Economic Crisis
-
Tejas Mk2 Nears 2025 Rollout as HAL Ramps Up Final Assembly and System Integration
-
India's TEDBF Program Takes Shape First Flight by 2028: Aiming for Naval Supremacy with Advanced Stealth and Technology
Top Trending in 4 Days
-
Ukrainian An-124 “Ruslan” Makes Secretive Landing in Israel, Fueling Speculation of Covert Military Support to Kyiv
-
Türkiye’s Bayraktar Kizilelma Becomes First Unmanned Fighter to Shoot Down an Aerial Target with Air-to-Air Missile
-
Zelensky Under Pressure as MP Claims He Has Been “Ordered to Resign" Within This Month
-
Germany Activates Israel’s Arrow-3, Europe’s First Space-Shield Against Ballistic Missiles
-
US Marines Install G/ATOR Radar in Tobago For Surveillance Over Southern Caribbean and Venezuela
-
America’s Secret F-47 “Ghost Eagle” Fighter Jet Fly With Five Armed Autonomous Drones
-
Venezuela Prepares Asymmetric War Plan: Sabotage, Ambushes, and Guerrilla Attacks Against a Possible US Strike
-
Japan Approves $5.4 billion Supplementary Defense Budget For Accelerate Frigate and Submarine Construction
