Golden Dome Missile Defense Shield at Risk of Grinding to a Halt as $185 Billion Program Faces FY2027 Funding Crisis

U.S

HUNTSVILLE, Ala. — Gen. Michael Guetlein, director of the U.S. military’s Golden Dome missile defense initiative, said the program remains on track to deliver its initial operational capabilities in mid-2028 at a projected cost of $185 billion, while warning that a funding gap in fiscal year 2027 could put the program at serious risk. Guetlein made the remarks during the annual Space & Missile Defense Symposium in Huntsville, Alabama. Guetlein Maintains $185 Billion Cost Estimate Guetlein said the current Golden Dome cost estimate remains $185 billion. The figure was initially set at $175 billion and later increased by $10 billion to accelerate space capabilities that were not part of the original architecture. “I’m on record, and I’m still up here saying the exact same number: $185 billion,” Guetlein said, emphasizing the need to keep the large missile defense effort affordable. The estimate is significantly below a separate Congressional Budget Office assessment released in May 2026. The CBO estimated that a notional national missile defense architecture broadly consistent with the capabilities described for Golden Dome could cost about $1.2 trillion over 20 years. However, the CBO noted that its calculation was based on a notional architecture because the Defense Department had not publicly released enough details about the final system. Guetlein has argued that the CBO estimate does not represent the architecture currently being developed by the Pentagon. He said the assumptions used for the higher estimate involve different technologies and requirements. Contracts and Testing Underway Guetlein said several major elements of Golden Dome are already under contract. These include radars, launchers, space-based interceptors, a hypersonic ballistic tracking system and a space data network. The program has also moved into construction, with the first operational site established and groundwork underway at locations including Joint Expeditionary Base Fort Story in Virginia. According to Guetlein, two tests have already been completed successfully, demonstrating elements involving command and control, sensor networks and effectors against current threats. Details of the tests remain classified. One of the major tests conducted in summer 2026 at White Sands Missile Range, New Mexico, was described as the most complex integrated missile defense test conducted there. The exercise involved the Missile Defense Agency, Space and Missile Defense Command and other organizations. Guetlein said the test met all of its objectives after six months of preparation. A more complex test is planned for 2027. Space-Based Interceptors Remain a Major Element Space-based interceptors are a major part of the publicly described Golden Dome architecture. The Space Force has advanced a competition involving 12 companies for related technology development, with the first of four planned development gates completed. The space component has also been an important factor in the debate over the program’s potential long-term cost. The CBO's May assessment included a large space-based interceptor constellation in its notional architecture, contributing substantially to its $1.2 trillion estimate. FY2027 Funding Creates Risk The immediate concern for Golden Dome is its funding structure. About $22.5 billion has been appropriated for the program so far, with approximately 95 percent committed to specific work and about 90 percent obligated. Much of the funding has been provided through congressional reconciliation rather than the regular defense budget. For fiscal year 2027, the administration has requested approximately $17.5 billion for Golden Dome. Only about $400 million is included in the base budget, with the remaining funding dependent on a proposed reconciliation package. A Congressional Research Service summary similarly reports a $17.5 billion FY2027 Golden Dome request, with the overwhelming majority sought as mandatory funding through reconciliation. Guetlein warned that the program does not have a reliable funding path if the FY2027 reconciliation funding is not approved. “We’ve got to figure out, as a nation, a different way of funding Golden Dome, at least for 2027. Right now, that’s under reconciliation,” he said. “If they don’t figure it out, there is no Golden Dome because there is no funding.” He also said a continuing resolution would not provide the baseline needed to sustain the effort at its planned level. Pentagon Examining Contingency Options Pentagon officials are examining possible contingency measures if Golden Dome funding is delayed or interrupted. One option under consideration involves the Space Force continuing investment in certain shared space capabilities that also support the broader Golden Dome architecture. No final decision has been made on those options. The broader FY2027 defense budget request is approximately $1.5 trillion, including base funding and proposed reconciliation resources. Other major defense modernization programs, including efforts to modernize the U.S. nuclear triad, are also being funded alongside Golden Dome. For now, Guetlein said the program remains focused on its mid-2028 initial operational capability target. The next phase will depend not only on continued testing, contracting and construction, but also on whether Congress provides the funding required for fiscal year 2027. Source : TWZ

Rheinmetall Successfully Launches FV-014 Loitering Munition from HX Truck-Mounted Launcher

U.S

COCHSTEDT, Germany — Rheinmetall has successfully demonstrated the launch of its FV-014 loitering munition from the company’s Containerized Missile Launcher (CML), a modular multi-launcher designed for loitering munitions and guided missiles. The live-fire demonstration took place in July 2026 at the National Test Centre for Unmanned Aerial Systems operated by the German Aerospace Centre (DLR) in Cochstedt, Saxony-Anhalt. During a customer demonstration, the FV-014 was launched from a Rheinmetall HX truck in both stationary and moving configurations. The system then carried out simulated operational profiles and attack flights. The FV-014 and CML are both Rheinmetall developments. FV-014 combines reconnaissance and precision strike The FV-014 is designed as a portable reconnaissance and strike system that combines target observation, tracking and precision engagement. Rheinmetall describes the system as bridging the tactical gap between reconnaissance drones and conventional artillery. The drone has a flight endurance of up to 70 minutes and a range of up to 100 kilometres. Its data-link range is up to 60 kilometres. A 360-degree swivelling gimbal in the nose allows the system to observe potential targets over extended periods. Rheinmetall states that the FV-014 has an approximate launch weight of 20 kilograms. The system carries an HEDP (High-Explosive Dual Purpose) warhead with a penetration capability of more than 600 millimetres against armoured targets. The warhead is also intended for use against unarmoured targets and infrastructure. The FV-014 uses an electric propulsion system and an aerodynamic wing design. Rheinmetall says the design is intended to reduce acoustic, radar and infrared signatures. The system is also designed to operate in environments affected by GNSS interference. After being launched from a transport and launch container using a booster, the FV-014 unfolds its wings and transitions into aerodynamic flight. Its endurance provides time for reconnaissance, target selection and an attack decision. Human control and swarm operations The FV-014 is controlled through a ground station with continuous human-in-the-loop oversight. Operators can identify and track targets, conduct an attack or abort the mission if circumstances change. Its software architecture also supports swarm operations. Rheinmetall says multiple FV-014 systems can be controlled simultaneously by a single operator, allowing several targets to be engaged or enabling coordinated attacks against defended areas. The system is designed to operate as part of Rheinmetall’s reconnaissance and strike network. It can also be integrated with other systems, including the LUNA NG reconnaissance drone, to support the flow of information from reconnaissance to engagement. Containerized Missile Launcher The CML is based on a standard 20-foot container and was publicly presented by Rheinmetall for the first time at Eurosatory 2026 in June. The launcher can accommodate up to 18 FV-014 systems. Rheinmetall describes it as a modular, networked system that can operate from different platforms. The container can be deployed as a standalone system or mounted on platforms including trucks, trains and ships. An integrated power supply and communication modules support autonomous operation, while a battery system and sleep mode allow the launcher to remain in standby before being activated. The CML can connect to command, control, communications, computers and intelligence (C4I) networks. Rheinmetall says communication can be supported through radio and satellite links, depending on the configuration. The standardized container format is intended to simplify transport and deployment across different platforms. Rheinmetall expands FV-014 programme The July demonstration follows earlier FV-014 testing and demonstrations. In February 2026, Rheinmetall demonstrated the system to a potential NATO customer at the DLR National Test Centre for Unmanned Aerial Systems in Cochstedt. That demonstration involved simulated mission scenarios and attack flights. In April 2026, Rheinmetall announced a framework agreement worth billions of euros with the German Armed Forces for large quantities of FV-014 loitering munitions. The first call-off was valued at approximately €300 million, while deliveries are scheduled to begin in the first half of 2027 following qualification. The company says the FV-014 is developed and manufactured entirely within the European Union and is designed for industrial-scale production. The CML demonstration adds a mobile multi-launch capability to the system, allowing the FV-014 to be deployed from containerized launchers on land and maritime platforms. COCHSTEDT, Germany, August 13, 2026 — Rheinmetall has successfully demonstrated the launch of its FV-014 loitering munition from the company’s Containerized Missile Launcher (CML), a modular multi-launcher designed for loitering munitions and guided missiles. The live-fire demonstration took place in July 2026 at the National Test Centre for Unmanned Aerial Systems operated by the German Aerospace Centre (DLR) in Cochstedt, Saxony-Anhalt. During a customer demonstration, the FV-014 was launched from a Rheinmetall HX truck in both stationary and moving configurations. The system then carried out simulated operational profiles and attack flights. The FV-014 and CML are both Rheinmetall developments. FV-014 combines reconnaissance and precision strike The FV-014 is designed as a portable reconnaissance and strike system that combines target observation, tracking and precision engagement. Rheinmetall describes the system as bridging the tactical gap between reconnaissance drones and conventional artillery. The drone has a flight endurance of up to 70 minutes and a range of up to 100 kilometres. Its data-link range is up to 60 kilometres. A 360-degree swivelling gimbal in the nose allows the system to observe potential targets over extended periods. Rheinmetall states that the FV-014 has an approximate launch weight of 20 kilograms. The system carries an HEDP (High-Explosive Dual Purpose) warhead with a penetration capability of more than 600 millimetres against armoured targets. The warhead is also intended for use against unarmoured targets and infrastructure. The FV-014 uses an electric propulsion system and an aerodynamic wing design. Rheinmetall says the design is intended to reduce acoustic, radar and infrared signatures. The system is also designed to operate in environments affected by GNSS interference. After being launched from a transport and launch container using a booster, the FV-014 unfolds its wings and transitions into aerodynamic flight. Its endurance provides time for reconnaissance, target selection and an attack decision. Human control and swarm operations The FV-014 is controlled through a ground station with continuous human-in-the-loop oversight. Operators can identify and track targets, conduct an attack or abort the mission if circumstances change. Its software architecture also supports swarm operations. Rheinmetall says multiple FV-014 systems can be controlled simultaneously by a single operator, allowing several targets to be engaged or enabling coordinated attacks against defended areas. The system is designed to operate as part of Rheinmetall’s reconnaissance and strike network. It can also be integrated with other systems, including the LUNA NG reconnaissance drone, to support the flow of information from reconnaissance to engagement. Containerized Missile Launcher The CML is based on a standard 20-foot container and was publicly presented by Rheinmetall for the first time at Eurosatory 2026 in June. The launcher can accommodate up to 18 FV-014 systems. Rheinmetall describes it as a modular, networked system that can operate from different platforms. The container can be deployed as a standalone system or mounted on platforms including trucks, trains and ships. An integrated power supply and communication modules support autonomous operation, while a battery system and sleep mode allow the launcher to remain in standby before being activated. The CML can connect to command, control, communications, computers and intelligence (C4I) networks. Rheinmetall says communication can be supported through radio and satellite links, depending on the configuration. The standardized container format is intended to simplify transport and deployment across different platforms. Rheinmetall expands FV-014 programme The July demonstration follows earlier FV-014 testing and demonstrations. In February 2026, Rheinmetall demonstrated the system to a potential NATO customer at the DLR National Test Centre for Unmanned Aerial Systems in Cochstedt. That demonstration involved simulated mission scenarios and attack flights. In April 2026, Rheinmetall announced a framework agreement worth billions of euros with the German Armed Forces for large quantities of FV-014 loitering munitions. The first call-off was valued at approximately €300 million, while deliveries are scheduled to begin in the first half of 2027 following qualification. The company says the FV-014 is developed and manufactured entirely within the European Union and is designed for industrial-scale production. The CML demonstration adds a mobile multi-launch capability to the system, allowing the FV-014 to be deployed from containerized launchers on land and maritime platforms.

Lockheed Martin Wins $211.4 Million Contract for New THAAD Launchers for UAE

U.S

HUNTSVILLE, Ala. — Lockheed Martin Space has received a $211.4 million contract modification from the U.S. Department of War to manufacture and deliver new Terminal High Altitude Area Defense (THAAD) launchers for the United Arab Emirates (UAE). The contract is being managed by the Missile Defense Agency (MDA) in Huntsville, Alabama, under the U.S. Foreign Military Sales (FMS) program. The latest award will add new launcher hardware to the UAE’s existing THAAD ballistic missile defense capability. The contract modification, identified as P00082 under contract HQ0147-19-C-5001, increases the cumulative value of the original contract to $1.0545 billion. The latest work is funded entirely through UAE FMS funds. The contracting announcement does not disclose the number of launchers included in the order. Production to Continue Through January 2031 Manufacturing will be carried out by Lockheed Martin at its facility in Sunnyvale, California. Production is scheduled to run from August 2026 through January 2031. The new launchers will use the Configuration 3 (C3) standard. The contracting announcement does not provide additional technical details about the specific C3 hardware included in this procurement. The award represents a change from several earlier modifications under the same UAE THAAD contract, which have primarily supported maintenance, logistics, training, repair and sustainment of the UAE's existing systems. UAE's Existing THAAD Capability The UAE operates two THAAD batteries, according to the U.S. Missile Defense Agency. The agency states that both batteries have been procured and delivered and are fully operational. The UAE was THAAD's first international customer. Earlier procurement provided the country with two AN/TPY-2 radars and nine launchers. The UAE's THAAD system became operational before its first combat use in January 2022. The MDA says the UAE successfully used THAAD to intercept ballistic missiles during attacks in January 2022, marking the first operational THAAD intercept in a combat environment by any nation. Lockheed Martin currently lists the UAE as one of THAAD's two international customers, alongside Saudi Arabia. What THAAD Provides THAAD is a land-based ballistic missile defense system designed to intercept ballistic missiles during their terminal phase of flight, both inside and outside the atmosphere. The system uses hit-to-kill technology, destroying the incoming warhead through kinetic impact rather than a conventional explosive warhead. A THAAD battery includes mobile launchers, interceptors, an AN/TPY-2 X-band radar, and fire-control and communications equipment. The MDA states that each launcher can carry up to eight interceptors. The system is designed to engage short-, medium- and intermediate-range ballistic missile threats during their terminal flight phase. New Launcher Capacity for the UAE The $211.4 million contract therefore adds new THAAD launcher production to the UAE's existing missile-defense program. While the U.S. contracting announcement does not identify the quantity of launchers being purchased, it confirms that the equipment will be produced in the modernized Configuration 3 standard. The procurement will be completed through the U.S. Foreign Military Sales framework and will further expand the launcher hardware available to the UAE's existing THAAD force. The latest award comes as the United States and Lockheed Martin continue broader efforts to expand THAAD production capacity. In June 2026, the U.S. government awarded Lockheed Martin a separate seven-year contract of up to $35 billion to increase THAAD interceptor production.

Pentagon Explores AI to Protect Financial Markets, But Weaponization Risks Remain

U.S

WASHINGTON — The Defense Advanced Research Projects Agency (DARPA) is continuing research into artificial intelligence, data analytics and modeling tools that can help the U.S. government understand vulnerabilities in complex economic, financial and supply networks. However, publicly available DARPA records do not currently confirm a program called the Intelligent Market Resilience (IMR) or a formal DARPA effort specifically intended to redesign electronic financial markets or develop tools for disrupting them. DARPA's verified programs in this area are focused on resilience, transparency, vulnerability analysis and protection against disruptions. DARPA's focus on economic resilience DARPA's Strategic Technology Office says it is examining commercial, financial and industrial infrastructure to improve the resilience of national systems. Its work includes the Resilient Supply-and-Demand Networks (RSDN) program, which develops analytical tools to map complex supply-and-demand networks, identify vulnerabilities and conduct stress tests. DARPA selected research teams for RSDN in 2023. The program covers areas including metals important to military applications, food and pharmaceuticals. Its tools are designed to identify hidden dependencies and examine how networks could respond to external shocks or changes in participant behavior. DARPA has also described RSDN as using stress-testing methods similar to those used by financial regulators. The objective is to examine how disruptions could propagate through complex networks and identify possible ways to reduce their effects. AI and critical-material markets Another DARPA effort, the Open Price Exploration for National Security (OPEN) program, is focused on improving transparency in markets for critical materials. According to DARPA, OPEN uses time-series forecasting, economic modeling and machine learning to estimate structural prices and forecast supply and demand for materials such as base metals and rare-earth materials. The agency says the program is intended to improve decision-making and strengthen supply-chain resilience. DARPA has specifically stated that OPEN is not intended to predict prices of publicly traded assets. The program instead focuses on critical commodity markets and the information needed to understand their underlying supply, demand and production costs. In April 2024, DARPA announced performers for the program. Exiger and S&P Global Commodity Insights were selected for work on estimating critical-material input costs, while Charles River Analytics, GE Research and S&P Global Commodity Insights were selected for supply-and-demand forecasting. Financial systems have been a longstanding research interest DARPA's interest in financial-system vulnerabilities is not new. Earlier agency research examined how financial markets could be vulnerable to malicious activity and how complex trading systems could be analyzed. The need for better analytical capabilities is illustrated by the May 6, 2010, Flash Crash, when U.S. financial markets experienced a rapid decline followed by a recovery within minutes. The U.S. Securities and Exchange Commission has said the event demonstrated the difficulty of reconstructing activity across highly automated and interconnected markets. The California electricity crisis of 2000–2001 is another example of weaknesses in complex markets. The U.S. Government Accountability Office found that California's market design enabled wholesale electricity suppliers to exercise market power, while the Federal Energy Regulatory Commission later concluded that reduced supplies, inadequate infrastructure and flawed market design contributed to the crisis and subsequent manipulation. DARPA also targets illicit financial activity DARPA has a separate program called Anticipatory and Adaptive Anti-Money Laundering (A3ML). The program seeks to develop algorithms that can analyze financial transaction networks, identify suspicious patterns and learn patterns associated with future illicit activity while preserving privacy. These efforts show that DARPA is applying advanced computing and AI techniques to financial and economic systems as part of broader national-security research. Could these technologies have offensive applications? AI systems capable of mapping complex networks and identifying vulnerabilities can raise dual-use concerns. A system designed to help defenders understand weaknesses could also provide information about where vulnerabilities exist. However, there is currently no verified evidence that DARPA's publicly documented RSDN, OPEN or A3ML programs are being developed to manipulate or disrupt financial markets. DARPA's published descriptions instead emphasize vulnerability identification, forecasting, stress testing, transparency and resilience. RSDN, for example, is explicitly designed to identify systemic weaknesses and evaluate mitigation strategies. Palantir's potential involvement remains unconfirmed Palantir Technologies has significant experience providing data integration and analytical systems to U.S. government customers, including the Department of Defense. However, there is no publicly confirmed evidence that Palantir has been selected for a DARPA program matching the specific IMR description. Palantir and TWG AI do have a recent commercial project involving financial-market monitoring. In March 2026, Polymarket announced a partnership with Palantir and TWG AI to develop a sports-market integrity platform using the Vergence AI engine. The system is intended to support trade monitoring, anomaly detection, prohibited-trader screening and compliance reporting. That work demonstrates Palantir's involvement in AI-based market monitoring, but it does not establish a connection between Palantir and a DARPA financial-market resilience program. No verified IMR solicitation identified As of Aug. 12, 2026, publicly available DARPA program records reviewed for this report do not identify an official program named Intelligent Market Resilience (IMR). DARPA's current public materials instead document programs such as RSDN, OPEN and A3ML that address different aspects of economic, financial and supply-network resilience. Therefore, claims that the Pentagon is developing an AI system specifically to disrupt or manipulate financial markets, or that Palantir has been selected to build such a system, should not be presented as confirmed facts without an official DARPA announcement or other verified government documentation. The verified picture is that DARPA is researching AI and advanced analytical methods to understand complex economic networks, identify vulnerabilities, improve market and supply-chain transparency, and strengthen resilience against disruptions. Source : Geopolitics Prime

U.S. Marine Corps Awards $19.06 Million Contract for 10 Tempest Counter-Drone Vehicles

U.S

INDIANAPOLIS, Indiana — The U.S. Marine Corps has awarded Vertex Modernization and Sustainment LLC, a subsidiary of V2X, a $19.06 million contract for 10 Tempest mobile counter-unmanned aerial systems (C-UAS) vehicles. The $19,062,156 award covers the vehicles along with software management, spare parts, ancillary equipment, training and related services. According to the contract information provided, work will primarily be performed in Indianapolis, Indiana, with completion scheduled for August 10, 2027. The contract is identified as a hybrid firm-fixed-price, cost-plus-fixed-fee and cost indefinite-delivery/indefinite-quantity award. It was issued on a sole-source basis under 10 U.S. Code 3204(a)(1). No funds were obligated at the time of award, with funding to be provided through individual task orders. The contracting activity is the Portfolio Acquisition Executive Marine Corps, Program Manager Ground Based Air Defense, based in Quantico, Virginia. The contract number is M67854-26-D-0080. Tempest Mobile Counter-UAS Vehicle V2X first publicly introduced Tempest at the Association of the United States Army (AUSA) Annual Meeting in October 2025. The company describes it as a rugged, commercially based combat vehicle designed for rapid, limited-exposure missions. V2X says the platform uses dual weapon launchers and a counter-UAS capability intended to detect, engage and defeat Class 2 and Class 3 unmanned aircraft. The company also says the vehicle can withdraw after an engagement to reduce its exposure to enemy counterfire. Earlier demonstrations of Tempest showed the system on a commercially derived 4x4 vehicle. Configurations displayed publicly included dual launchers and counter-UAS sensors. However, the latest Marine Corps contract notice does not publicly specify the exact production configuration that will be delivered. The contract also does not confirm the precise missile or interceptor package, radar configuration, electro-optical sensors, engagement range or software architecture of the 10 Marine Corps vehicles. Marine Corps DASH Requirement The procurement is connected to the Marine Corps' Denied Area Sprinter-Hellfire (DASH) requirement for a highly mobile counter-small-UAS capability. Earlier Marine Corps contracting information identified a requirement for a system at Technology Readiness Level 9, meaning a mature system demonstrated in an operational environment. The earlier requirement also indicated an intention to procure up to 50 systems, although the current contract covers an initial 10 vehicles. V2X has separately confirmed that it received an award to provide counter-UAS capabilities through the Tempest platform. The company describes Tempest as a mobile system developed to detect, engage and defeat unmanned aircraft. Focus on Mobile Counter-Drone Operations Tempest is designed around mobility rather than a fixed defensive position. Its ability to relocate after an engagement is intended to support operations in environments where counter-UAS systems may themselves be exposed to enemy observation and fires. The Marine Corps requirement is aimed at providing a mobile capability that can support maneuvering forces. The system's combination of a compact vehicle, sensors and weapon launchers allows it to be positioned with units and moved as operational requirements change. The contract's inclusion of software management, training and related equipment indicates that the procurement covers more than the vehicles themselves. The total contract value therefore should not be treated as a simple calculation of $19.06 million divided by 10 vehicles. Part of a Broader Counter-UAS Approach Tempest will add another counter-UAS option to the Marine Corps' ground-based air-defense capabilities. It is not described in the available contract information as a replacement for the service's broader Marine Air Defense Integrated System (MADIS). V2X's own description places Tempest in the mobile counter-UAS role, with the system intended to engage Class 2 and Class 3 unmanned aircraft. The effectiveness of such a system also depends on the availability and integration of targeting information. The Marine Corps has not publicly released the complete software and network architecture for the vehicles under this contract, so it is not yet clear how the production Tempest vehicles will be integrated with existing Marine Corps command-and-control and air-defense networks. What Remains Undisclosed The public information currently available does not identify the specific Marine Corps unit that will receive the 10 vehicles. It also does not confirm the final chassis configuration, exact radar and sensor equipment, interceptor type, engagement parameters, reload arrangements or detailed software architecture for the Marine Corps production vehicles. The $19.06 million contract nevertheless establishes an initial procurement of 10 Tempest vehicles and moves the platform from its earlier public demonstrations into a defined Marine Corps acquisition program. V2X has described Tempest as a commercially based mobile combat vehicle intended to provide counter-UAS capability with dual launchers and rapid relocation after engagement. The Marine Corps contract will now support the delivery, training, software management and sustainment elements associated with the initial fleet.

Lockheed Martin and Albany Team Up to Scale Up Hypersonic Weapons Production

U.S

BETHESDA, Md. — Lockheed Martin and Albany Engineered Composites (AEC), a segment of Albany International Corp., have signed a teaming agreement aimed at increasing the production of hypersonic weapons for the U.S. Department of War. The agreement focuses on addressing the manufacturing challenges involved in moving hypersonic systems from prototype and test quantities to higher-volume production. The companies plan to jointly pursue future full-rate production contracts as hypersonic weapon designs move toward larger-scale manufacturing. Hypersonic systems are designed to travel at speeds above Mach 5, or about 3,836 miles per hour (6,174 km/h). Their ability to operate at these speeds while maneuvering creates challenges for traditional missile-defense systems. Focus on Advanced Composite Manufacturing Lockheed Martin will contribute its experience in systems integration and engineering, while AEC will provide its expertise in advanced composite manufacturing. AEC, based in Rochester, New Hampshire, specializes in lightweight, high-strength composite structures made from layered fibers. Its capabilities include 3D-woven composite aeroshells and thermal protection systems used for applications exposed to high temperatures and structural stresses. The companies said the partnership is intended to address the manufacturing requirements that arise after a hypersonic system has completed its design and testing phases. Johnathon Caldwell, Lockheed Martin’s vice president and general manager of Strategic and Missile Defense Systems, said the agreement combines Lockheed Martin’s systems integration and engineering experience with Albany’s composite production capabilities. Chris Stone, president of Albany Engineered Composites, said large-scale manufacturing of advanced composite structures is an important part of developing hypersonic systems. He said the partnership combines Lockheed Martin’s architecture with Albany’s composite technologies and manufacturing capabilities. The financial terms of the teaming agreement were not disclosed. The agreement has a flexible structure with defined roles and cost responsibilities. According to the companies, this approach is intended to allow the partnership to adapt to changing program requirements and government priorities. Push for Higher Production Rates The agreement supports the Department of War’s broader Arsenal of Freedom initiative, which seeks to increase the speed and volume of weapons production and reduce the time between successful testing and availability of operational systems. Lockheed Martin has also disclosed a multimillion-dollar investment in its Modular Prompt Distributed Strike system. The approach uses flight-tested hypersonic technologies and a modular architecture intended to reduce the engineering work required to integrate different payloads with existing hypersonic airframes. The company said increased automation in assembly, integration and testing can reduce labor requirements and help shorten delivery timelines. The investment supports the Department of War’s Scaled Hypersonics Critical Technology Area. Lockheed Martin is also continuing its work on the Conventional Prompt Strike (CPS) program. During the company’s second-quarter 2026 earnings call, Chief Executive Officer Jim Taiclet reported technical and contractual progress following successful flight tests. The program has also received contract modifications valued at about $1.4 billion to support accelerated development. Additional contract actions in 2026 have supported production of All-Up Rounds for Army requirements within the same program family. AEC Role in Future Production The companies have not identified the specific hypersonic programs that will receive production work under the new agreement once contracts are competed and awarded. Aviation Week has reported that Albany will supply a 3D-woven composite aeroshell for Lockheed Martin’s Next Generation Glide Body. The partnership comes as the United States continues efforts to expand its hypersonic weapons production capacity. The manufacturing challenge is not limited to developing the weapon itself; production of specialized structures and other components must also increase if larger inventories are required. Chinese state media reported in early August 2026 that the DF-17 hypersonic missile had reached full combat capability and entered mass deployment. The reports included footage showing multiple launch vehicles in formation. The Lockheed Martin-AEC agreement is intended to prepare the companies for higher-volume production opportunities as hypersonic programs progress from development and testing toward full-rate manufacturing.

Northrop Grumman Introduces Raid Hunter 50mm Next-Generation Gun-Based Air Defense System for Drone Swarms and Cruise Missiles

U.S

FALLS CHURCH, Va. — Northrop Grumman has unveiled Raid Hunter™, the official name of its new 50mm Gun-Based Air Defense (GBAD) system designed to provide short-range, layered protection against cruise missiles, unmanned aerial systems (UAS), drone swarms and other aerial threats. The company said Raid Hunter is intended to address a gap in short-range air defense by providing high-capacity firepower against large and mixed aerial raids. The system is designed to protect military bases, airfields and other critical infrastructure. We’re introducing Raid Hunter™, our newly named 50mm gun-based air defense system designed to defeat mass, mixed aerial raids with cost-effective interceptors and deep magazine effectors which can be delivered to the warfighter at scale. Learn more: https://t.co/gnOzpo0RA3 pic.twitter.com/oTqORTG9Q4 — Northrop Grumman (@NGCNews) August 11, 2026 50mm gun and guided ammunition Raid Hunter combines Chain Gun® technology, precision-guided 50mm ammunition and a networked, interoperable system controller. According to Northrop Grumman, the combination provides a high rate of fire, deep magazines and fast reloads for engagements involving high volumes of aerial threats. The system is designed to counter a range of threats, including high-priority cruise missiles, UAS and other advanced aerial threats. Its guided 50mm ammunition is intended to support cost-considerate engagements against massed threats. Kenn Todorov, vice president and general manager of command and control and weapons integration at Northrop Grumman, said Raid Hunter addresses a critical short-range defense gap by providing rapid, high-capacity protection against complex aerial threats such as cruise missiles and drone swarms. He said air defenders need systems capable of dealing with large and complex raids designed to overwhelm traditional defense systems. According to Todorov, Raid Hunter provides a cost-effective and deep-magazine solution that can be rapidly delivered to the warfighter at scale. Modular design and deployment Northrop Grumman said Raid Hunter uses a modular, palletized design that enables rapid transportation on C-130 aircraft. The company also plans future vehicle-mounted and container-based configurations, which are intended to expand the system's deployment options. The modular design is intended to support different operational requirements while allowing the system to be integrated into layered air-defense architectures. Part of Raid Defense Solutions Raid Hunter is part of Northrop Grumman's Raid Defense Solutions portfolio, which focuses on layered kinetic capabilities for protection against increasingly complex and high-volume aerial threats, including coordinated drone swarms. The portfolio combines fielded programs with AI-enabled command and control, sensor fusion and high-rate firepower. Northrop Grumman said these capabilities are intended to support faster detection, decision-making and coordinated engagements across different operational scenarios. Testing planned Northrop Grumman said it is continuing to work with government and allied partners to mature Raid Hunter's capabilities. Planned testing throughout the year will be used to further validate system performance and support accelerated fielding. The company has not disclosed specific customers, contract values or production quantities for Raid Hunter in the information provided. Raid Hunter represents Northrop Grumman's latest effort to expand its counter-UAS and air-defense capabilities with a 50mm gun-based system designed specifically for high-volume aerial threats.

Leonardo DRS Demonstrates SGT STOUT M-SHORAD Defeat of Smaller Drones Through Software Updates

U.S

ARLINGTON, Va. — Leonardo DRS announced that its SGT STOUT Maneuver Short-Range Air Defense (M-SHORAD) Mission Equipment Package successfully defeated Group 1 and Group 2 small unmanned aircraft systems (sUAS) during a recent U.S. government test event. According to Leonardo DRS, the expanded capability was achieved through software updates to the system’s detection and fire-control functions. The company said the test did not require the addition of new physical hardware to the Mission Equipment Package. The SGT STOUT is the U.S. Army’s M-SHORAD system based on a Stryker vehicle. The Army renamed the system in June 2024 after Sgt. Mitchell W. Stout, a Medal of Honor recipient who served with the 1st Battalion, 44th Air Defense Artillery Regiment during the Vietnam War. Expanded Counter-Drone Capability SGT STOUT was developed to provide mobile air defense for maneuver formations. Leonardo DRS says the system can detect, identify and track air threats using onboard sensors and engage them with multiple kinetic effectors. The company’s current description also identifies Group 1 and Group 2 UAS as smaller air threats that the system can defeat at closer ranges using direct fire when required. The recent government test demonstrates an expansion from the system’s original focus on larger Group 3 unmanned aircraft systems, as well as rotary-wing and fixed-wing aircraft. Leonardo DRS said the new capability allows the existing Mission Equipment Package to address smaller drone threats without replacing its hardware. The company attributed the software-based upgrade path to SGT STOUT’s modular and open-architecture design. “SGT STOUT was engineered from the start for modernization, so capability can evolve as the threat evolves,” said Aaron Hankins, senior vice president and general manager of the Leonardo DRS Land Systems business unit. “This event highlights an upgrade path that emphasizes speed, safety, cybersecurity-by-design, and operational interoperability.” Designed for Maneuver Forces SGT STOUT is designed for formation-based air defense, rather than primarily serving as a stationary point-defense system. Its mission equipment combines sensing, cueing and engagement functions to support maneuvering forces. Leonardo DRS previously described the system as providing the mobility, survivability and lethality needed to move with Brigade Combat Teams while detecting, tracking and defeating low-altitude aerial threats. The system also integrates with existing Army networks and is interoperable with Sentinel radar. The U.S. Army has also been developing tactics for using SGT STOUT against Group 1 and Group 2 UAS. An Army Air Defense Artillery Journal article published in June 2026 identified counter-small-UAS training and updated tactics as important areas for SGT STOUT units. Existing System and Future Upgrades The Mission Equipment Package uses modular and platform-portable interfaces, allowing additional technologies to be integrated without redesigning the complete platform. Leonardo DRS has identified potential future additions including passive detection options, artificial intelligence-enabled decision aids, edge computing and new effectors. The company said several proven technologies could be incorporated into SGT STOUT systems already operating in the field. These upgrades are intended to further improve the system’s ability to detect, track and defeat Group 1 and Group 2 drone threats. The Army’s 2027 budget documents also show ongoing investment in SGT STOUT modernization, including software upgrades for its Multi-Mission Hemispheric Radars and other product-improvement work. The system is mounted on a Stryker platform and uses a combination of sensors, guns and missiles. Leonardo DRS lists the XM914 30 mm cannon and M240 7.62 mm machine gun among its onboard weapons, while the Army has also demonstrated Stinger missile launches from SGT STOUT during training in 2026. Lessons From Counter-UAS Programs Leonardo DRS said it is also using experience from its role as prime contractor on the Mobile Low, Slow UAS Integrated Defeat System (M-LIDS) program. The company said lessons from SGT STOUT and other counter-UAS work are supporting the continued development of modular, software-driven air-defense capabilities. The latest test therefore demonstrates that changes to the SGT STOUT capability do not necessarily require a new vehicle or a new hardware configuration. In this case, Leonardo DRS said the ability to defeat Group 1 and Group 2 small drones was demonstrated through updates to the existing detection and fire-control software.

Boeing Completes Tests of Ultra Low-Cost Radar Seeker for Weapons

U.S

Huntsville, Alabama — Boeing has completed a series of tests of its newly developed Ultra Low-Cost Seeker (ULCS), an active radar seeker designed to provide lower-cost precision guidance for a range of offensive and defensive weapon systems. The company announced the testing progress this week as the Space and Missile Defense Symposium opened in Huntsville, Alabama. Boeing is evaluating the ULCS for possible integration into its direct-attack, cruise missile, and integrated air and missile defense portfolios. Testing Across Multiple Environments The latest test campaign concluded earlier this summer and examined the seeker's detection and tracking performance as well as its ability to withstand the physical stresses associated with flight. Testing included an anechoic chamber, captive-carry flights and a surrogate rocket launch. During captive-carry testing, the ULCS was mounted on the nose of a Beechcraft 1900 aircraft. The aircraft operated over both land and maritime environments to evaluate the sensor's ability to detect and track targets. At Spaceport America in New Mexico, Boeing also tested the seeker from a fixed ground position. The ULCS successfully tracked a passing unmanned aerial vehicle (UAV). Boeing then mounted the seeker on a surrogate rocket. During the flight, the sensor tracked a secondary drone equipped with a radar reflector to represent a larger target. According to Boeing, the seeker detected and tracked its targets in each test and survived the acceleration and vibration associated with the rocket launch. Commercial Components and Open Architecture The ULCS is an active radar seeker built primarily from commercial off-the-shelf components that Boeing has adapted for military applications. Boeing is using a modular, open-systems architecture for the seeker. The company says this approach is intended to support high-volume production and allow a common sensor architecture to be used across several weapons programs. The effort also draws on Boeing's experience producing the active radar seeker used by the Patriot Advanced Capability-3 Missile Segment Enhancement (PAC-3 MSE). Boeing currently produces PAC-3 seekers in Huntsville, Alabama, as a subcontractor to Lockheed Martin. Unlike the more sophisticated PAC-3 seeker, the ULCS is being developed for lower-complexity threats where a lower-cost seeker could support larger production quantities. Potential Applications Boeing is evaluating the ULCS for use across several weapon categories, including direct-attack weapons, cruise missiles and integrated air and missile defense systems. The company describes the seeker as being intended to support weapons capable of operating in all weather conditions and engaging moving targets. Bob Ciesla, vice president of Boeing Precision Engagement Systems, said the company wants to use a common sensor architecture across several programs. “We are developing ULCS with the goal of sharing a common sensor architecture across several of our programs. It is modular, producible and built with Weapons Open Systems Architecture to speed integration and future changes,” Ciesla said. Boeing's broader air and missile defense portfolio already includes PAC-3 seeker production and other missile-defense systems. The company says its PAC-3 seekers provide active guidance data for target acquisition, aim-point selection and terminal guidance. Further Flight Testing Planned Boeing engineers are now analyzing data collected during the latest test campaign to refine the ULCS design. The company plans to conduct additional advanced flight tests in 2027 using configurations that more closely represent the seeker's intended end-use applications. Steve Wright, Boeing's senior manager for weapon sensors and advanced guidance, said further development work remains but described the recent testing as evidence that the ULCS concept is viable. “We still have more work to do but the rapid testing our teams have completed prove that this capability is real and will fundamentally change how we look at seeker affordability across our programs,” Wright said. Boeing has not provided a specific unit cost for the ULCS. The company is instead focusing on its use of commercial components, modular design and open-systems architecture as the basis for developing a seeker that can be produced in larger quantities and integrated into multiple weapons programs.

U.S. Space Force Awards SciTec $93.7 Million Contract to Digitize Six Legacy Radar Systems

U.S

BOULDER, Colo. — SciTec, a wholly owned subsidiary of Firefly Aerospace (Nasdaq: FLY), has been awarded a $93,704,410 firm-fixed-price Other Transaction Agreement (OTA) by the U.S. Space Force for the Ground-Based Radar Digitization (GBRD) program. The contract will support the development of a common architecture and design for modernizing U.S. ground-based radar systems. Space Systems Command, headquartered in Colorado Springs, Colorado, is the contracting activity. The work is expected to continue through April 21, 2028, with activities to be performed in Arlington, Texas; Princeton, New Jersey; and Woburn, Massachusetts. Three Companies Selected for Radar Digitization SciTec is one of three companies selected by the Space Force for the GBRD effort. The contracts have a combined value of approximately $423.4 million. Company Contract value Raytheon Corp. $309,472,660 SciTec Innovations LLC $93,704,410 WildStar LLC $20,226,551 Total $423,403,621 The contracts were awarded through a competitive acquisition process that received eight offers. The U.S. government also obligated $107.436 million in fiscal 2025 research, development, test and evaluation funds at the time of the awards. Modernizing Six Legacy Radar Systems The GBRD program covers the digitization of six legacy radar systems, consisting of five Upgraded Early Warning Radar (UEWR) sites and one Perimeter Acquisition Radar Attack Characterization System (PARCS) site. The modernization effort is intended to create a common architecture and design for the upgraded ground-based radars. According to the program description, the work is aimed at improving battlespace situational awareness through increased radar tracking capacity, range and object classification while also addressing system obsolescence and sustainment challenges. The program's focus on digitization is intended to address aging radar infrastructure and establish a more common approach to upgrading the systems. The Space Force has not publicly provided all technical details of the planned architecture. SciTec's Role Under its $93.7 million agreement, SciTec will contribute to the GBRD modernization effort alongside Raytheon and WildStar. SciTec has more than four decades of experience supporting national security missions. Its work includes defense software, data processing and capabilities supporting areas such as missile warning and defense, intelligence, surveillance and reconnaissance, space domain awareness, remote sensing and autonomous command and control. David Simenc, president of SciTec, said: “SciTec is honored to support the Space Force. This effort strengthens national defense, modernizing vital radar infrastructure and ensuring the United States maintains an operational advantage in an increasingly contested environment while minimizing total lifecycle costs to taxpayers and warfighters.” Firefly Completed SciTec Acquisition in 2025 The radar contract also comes after Firefly Aerospace completed its acquisition of SciTec in late 2025. Firefly announced the completion of the transaction on November 5, 2025, after announcing the planned acquisition the previous month. Firefly agreed to acquire SciTec for approximately $855 million, with the transaction involving cash and Firefly shares. The acquisition brought SciTec's national-security software and data-processing capabilities into Firefly's broader space and defense business. SciTec has continued operating as part of Firefly following the acquisition. Firefly Aerospace has capabilities spanning launch, lunar and in-space operations. In March 2025, its Blue Ghost Mission 1 successfully landed on the Moon, an achievement also documented by the American Institute of Aeronautics and Astronautics. The GBRD award adds another U.S. government modernization program to SciTec's defense portfolio and gives the company a role in the planned digitization of legacy ground-based radar infrastructure. The current contract is scheduled to run through April 21, 2028.

U.S. Navy Keeps Two Aircraft Carriers in Middle East as Iran Talks Deadline Nears

U.S

The United States is maintaining a significant naval presence in the Middle East as the 60-day negotiating period established under the June U.S.-Iran memorandum of understanding approaches its deadline. The June 17 memorandum established a maximum 60-day period for Washington and Tehran to negotiate a final agreement, with the period extendable by mutual consent. The agreement also addressed the U.S. naval blockade and called for its removal, with the blockade to be fully ended within 30 days. Because of that provision, the U.S. naval presence in the region is more accurately described as a dual-carrier presence rather than a confirmed continuing blockade. Two Aircraft Carriers Remain Central to U.S. Naval Presence The U.S. naval force in the Middle East includes the Nimitz-class aircraft carriers USS Abraham Lincoln (CVN-72) and USS George H.W. Bush (CVN-77), according to the information provided. The presence of the two carriers provides the U.S. Navy with substantial aviation and maritime capabilities while negotiations over a longer-term U.S.-Iran agreement continue. The June memorandum called for an immediate start to the removal of the U.S. naval blockade and its complete removal within 30 days. It also included provisions for the restoration of commercial shipping through the Strait of Hormuz. The supplied operational data states that U.S. Central Command forces had redirected 55 commercial vessels, boarded two vessels and kinetically disabled two others as part of maritime enforcement operations. These specific figures could not be independently confirmed through an official U.S. government source available for this report and are therefore treated as reported figures rather than independently verified facts. Extended Deployment of USS Abraham Lincoln The USS Abraham Lincoln is approaching nine months of deployment, according to the supplied information. The long deployment has raised concerns among some family members about conditions aboard the carrier. U.S. 5th Fleet spokesperson Cmdr. Joseph Hontz acknowledged that deployments lasting more than 250 days present challenges for sailors and equipment. Hontz said the carrier remains capable of carrying out its assigned missions and has adequate food and provisions. He also acknowledged that the ship has occasionally experienced short periods when certain supplies were running low. The supplied information also reports continued carrier aviation activity, including the launch of an EA-18G Growler from Electronic Attack Squadron 133 from Abraham Lincoln on July 31. USS George Washington Operates in the South China Sea While the Middle East force remains focused on the Iran situation, the U.S. Navy continues to maintain a separate carrier presence in the Indo-Pacific. The Nimitz-class USS George Washington (CVN-73) recently completed a scheduled five-day port visit to Da Nang, Vietnam. The carrier arrived on July 30, according to the U.S. Navy, alongside elements of Carrier Strike Group 5. The visit was the fourth U.S. aircraft-carrier visit to Vietnam and followed earlier U.S.-Vietnam naval engagements. The carrier is operating with other ships from its strike group, including the guided-missile cruiser USS Robert Smalls and guided-missile destroyer USS Shoup. The supplied information also identifies USS Benfold as part of the group. Open-source flight-tracking information cited in the supplied data placed the group approximately 100 nautical miles west of Luzon in the Philippines. A CMV-22B Osprey associated with Carrier Air Wing 5, using the callsign RUDY73, was also reported to have made a round trip to Clark Air Base in the Philippines. USS Theodore Roosevelt Returns to San Diego The USS Theodore Roosevelt (CVN-71) has returned to Naval Air Station North Island in San Diego following approximately two months away that included participation in Rim of the Pacific (RIMPAC) 2026. RIMPAC 2026 ran from June 24 through July 31 around Hawaii and involved dozens of nations, ships, aircraft and personnel. The U.S. Navy describes RIMPAC as a major multinational maritime exercise. After returning to San Diego, Theodore Roosevelt hosted nearly 2,000 friends and family members for a "tiger cruise" over the weekend of August 8. The event gave family members an opportunity to observe carrier operations and the working environment of the crew. Capt. William Mathis, the carrier's commanding officer, said the event was intended to allow sailors to demonstrate their professionalism and help their families understand their work. The carrier's future deployment is not clear from publicly verified information. The supplied data states that possible future tasking could include relieving Abraham Lincoln in the Middle East or conducting operations in the Western Pacific, depending on developments in the U.S.-Iran negotiations. Amphibious Fleet Faces Continued Demand The Navy's amphibious forces also remain heavily committed. Marine Corps Commandant Gen. Eric Smith has previously highlighted the shortage of Amphibious Ready Groups available to meet combatant-commanders' requirements. In May, the 24th Marine Expeditionary Unit assumed the Littoral Combat Force-24 designation in the U.S. Southern Command area of responsibility. The force operates as a Marine Air-Ground Task Force and is centered on the amphibious transport dock USS Fort Lauderdale (LPD-28). The Littoral Combat Force-24 concept provides a different deployment model from a traditional Amphibious Ready Group. U.S. Southern Command has described it as an agile force designed to provide operational options in the region. Other amphibious ships are also moving through training and deployment cycles. The USS Essex (LHD-2) participated in RIMPAC 2026 and subsequently conducted operations around Pearl Harbor as it prepared to leave the area following the exercise. The supplied information states that USS Makin Island completed ARGMEUEX training on July 31, while USS Essex departed Pearl Harbor following RIMPAC. U.S. Navy Maintains a Global Carrier Posture The supplied fleet assessment indicates that three U.S. aircraft carriers are deployed globally, while three are in various stages of workups or homeport readiness, four are undergoing maintenance and one is assigned to training. For the amphibious fleet, the same assessment lists one Amphibious Ready Group as deployed, five in port or training and three undergoing maintenance. These figures represent a snapshot of the fleet's status and can change as ships complete maintenance, training and deployment rotations. For the Middle East, the key issue remains the outcome of the U.S.-Iran negotiations. The June memorandum established the 60-day negotiating period while also requiring the removal of the U.S. naval blockade. As the deadline approaches, the disposition of U.S. carrier forces in the Middle East will remain closely linked to developments in the negotiations and the broader security situation around the Strait of Hormuz. Recent reporting indicates that discussions over reopening the waterway and reaching a longer-term arrangement remain ongoing. Note: I changed “dual-carrier blockade” to “dual-carrier presence” because the verified June 17 U.S.-Iran memorandum explicitly required the U.S. naval blockade to be fully ended within 30 days. Describing a continuing blockade as an established fact would conflict with the verified agreement. Source : TWZ

Northrop Grumman Links Talon IQ and YFQ-48A Talon Blue for Future CCA Missions

U.S

FALLS CHURCH, Va. — Northrop Grumman is advancing its Project Talon initiative, a connected autonomous combat ecosystem that brings together autonomy software development, flight testing and modular uncrewed aircraft. The company’s approach is focused on reducing the time required to move new autonomous capabilities from development and laboratory testing to flight evaluation and, ultimately, operational applications. Northrop Grumman describes Project Talon as part of its broader effort to develop open-architecture autonomous systems that can be adapted as mission requirements change. Project Talon includes two principal elements: Talon IQ, an autonomous flight-test environment, and the YFQ-48A Talon Blue, an autonomous wingman aircraft intended to operate with crewed aircraft. Project Talon links software testing with operational aircraft The central idea behind Project Talon is to separate the development and testing of autonomy software from the development of the final combat aircraft. Talon IQ provides a flight environment where autonomy capabilities can be integrated and evaluated using an existing aircraft platform. Software can then be refined before being transferred to other aircraft. Northrop Grumman has described its autonomy approach as based on open architecture and interoperability. The company says this allows different technologies and software providers to work with its autonomous systems rather than limiting development to a single software solution. The approach has already been demonstrated through Talon IQ flights. In March 2026, Northrop Grumman and Shield AI tested Shield AI's Hivemind autonomy software on the Talon IQ aircraft. During the flight, Hivemind controlled mission-level behaviors before control was transferred back to Northrop Grumman's Prism autonomy system. The demonstration was intended to show the ability to integrate third-party autonomy software into the open-architecture test environment. YFQ-48A Talon Blue The second major element of Project Talon is the YFQ-48A Talon Blue. Northrop Grumman developed the aircraft after its original Collaborative Combat Aircraft proposal did not advance to the final selection in the Air Force's first CCA competition. The U.S. Air Force selected General Atomics' YFQ-42A and Anduril's YFQ-44A for the first increment of the program. Northrop Grumman subsequently redesigned its concept with Scaled Composites, its subsidiary, focusing on a simpler airframe and faster manufacturing. The Air Force formally assigned the YFQ-48A designation to Northrop Grumman's Project Talon aircraft in December 2025. At the time, the company said the new aircraft was significantly different from its earlier CCA design. According to figures disclosed by Northrop Grumman, the YFQ-48A has approximately 50 percent fewer parts, weighs about 1,000 pounds less than the company's previous CCA proposal and can be manufactured approximately 30 percent faster. The aircraft makes extensive use of composite structures, while some components are based on existing aerospace designs. The company has also been conducting ground testing of the aircraft. The YFQ-48A completed an engine start earlier in 2026 and conducted its first taxi test in May. Northrop Grumman describes the Talon Blue as a modular, cost-effective and rapidly deployable autonomous wingman, with the design intended to support different mission configurations. Talon IQ is based on Model 437 Talon IQ uses the Scaled Composites Model 437 as its flight-test platform. The Model 437 is a 41-foot-long aircraft with a 41-foot wingspan and a gross takeoff weight of approximately 10,000 pounds. The aircraft is powered by a Pratt & Whitney PW535 turbofan producing approximately 3,400 pounds of thrust. Its stated design figures include a range of about 3,000 nautical miles, an endurance of up to six hours and a payload capacity of approximately 2,000 pounds. The Model 437 was developed as a low-cost, multi-mission aircraft and has an internal weapons bay sized for two AIM-120 air-to-air missiles. Its design also provides space for other mission payloads. The aircraft first flew in August 2024 as a technology demonstrator developed by Scaled Composites. Its development was also used to demonstrate Northrop Grumman's digital design and manufacturing processes. Project Talon develops alongside the CCA program Project Talon is being developed as the U.S. Air Force continues its Collaborative Combat Aircraft (CCA) effort. CCA is intended to provide uncrewed aircraft that can operate alongside crewed platforms. The first increment is currently moving forward with the General Atomics YFQ-42A and Anduril YFQ-44A. The CCA program has also progressed into weapons and operational testing. In July 2026, the Air Force conducted a live-fire test in which a YFQ-44A fired an AIM-120 missile at a digital target over the Mojave Desert. The Air Force said the test followed earlier inert weapons carriage and data-link evaluations. The Air Force has emphasized that human oversight remains part of the CCA concept. During the July test, the service stated that weapon-release decisions remain under human control, even as the aircraft performs portions of the weapon-employment sequence autonomously. The service is also testing CCA aircraft in more operationally representative environments. In July, the YFQ-44A participated in an exercise at Creech Air Force Base, Nevada, where the Air Force examined operations, logistics, maintenance and integration with crewed aircraft. Northrop Grumman's focus on software and manufacturing Northrop Grumman's Project Talon approach combines two areas that are becoming increasingly important in autonomous aircraft development: software integration and aircraft production. Talon IQ is intended to provide a reusable environment for testing autonomy technologies, while Talon Blue is designed around reduced part counts, modular construction and faster manufacturing. The company says its broader autonomy portfolio uses open architectures and human-overseen autonomy, with the aim of allowing autonomous systems to incorporate new technologies without requiring an entirely new aircraft for every capability change. Northrop Grumman is therefore continuing to develop the YFQ-48A Talon Blue even though it was not selected for the Air Force's initial CCA Increment 1 production competition. The aircraft has received an official Air Force designation and continues through development and ground testing, while Talon IQ provides a separate platform for testing autonomy software and related technologies. The combination of the two platforms forms the main structure of Project Talon: Talon IQ provides the flight-test environment for autonomy development, while YFQ-48A Talon Blue is the modular autonomous aircraft being developed for future CCA requirements.

U.S. Army Avenger Systems and Sentinel Radar Deployed at Trump National Golf Club Bedminster Amid Aerial Threat Concerns

U.S

BEDMINSTER, N.J., August 11, 2026 — A U.S. Army AN/TWQ-1 Avenger short-range air defense system, supported by an AN/MPQ-64 Sentinel radar, was deployed at Trump National Golf Club Bedminster in New Jersey while President Donald Trump played golf during the final round of the LIV Golf Bedminster tournament on August 9. Images from the golf course show Trump playing with an Avenger system positioned behind concertina wire in the background. Additional imagery shows an Avenger and an AN/MPQ-64 Sentinel radar near the course. The White House confirmed the authenticity of the photographs to The War Zone on August 10. The deployment comes as security concerns surrounding Trump have increased amid the ongoing conflict involving the United States and Iran. Independent analyst has linked the presence of the air-defense system to concerns about a possible Iranian aerial attack against the president. The exact threat assessment behind the deployment has not been publicly disclosed. 🇺🇸 #US: President Donald Trump was seen golfing at his Bedminster, New Jersey club with a missile-defense system deployed nearby, as F-16s were scrambled to intercept civilian aircraft that entered the temporary restricted airspace over the area.NORAD said two general-aviation… pic.twitter.com/NyZbj9OUEo — POPULAR FRONT (@PopularFront_) August 10, 2026 Iran has Trump so shook and scared right now he has to have a AN/TWQ-1 SHORAD air defense system with a AN/MPQ-64 Sentinel Radar follow him around as he golfs.lmao he is scared to even be outdoors anywhere at this point.pic.twitter.com/aEHQLlEr3p — Stellar Man (@stellarman22) August 10, 2026 Avenger provides short-range air defense The AN/TWQ-1 Avenger is a Humvee-mounted short-range air-defense system that uses FIM-92 Stinger surface-to-air missiles. The system can carry up to eight ready-to-fire Stinger missiles and is also equipped with an M3P .50-caliber machine gun. U.S. Army documents describe the Avenger as a mobile system designed to counter low-altitude unmanned aircraft and fixed- and rotary-wing aircraft. The Army has also integrated Avenger units into counter-unmanned-aircraft operations. The system can receive air tracks from the Sentinel radar, allowing the weapon system to be directed toward detected aerial threats. The AN/MPQ-64 Sentinel provides the accompanying air surveillance capability. The Army describes the radar as a 360-degree X-band system providing persistent air surveillance and fire-control-quality data. Its published instrumented range is up to 75 kilometers, and it can acquire, track and classify unmanned aircraft, cruise missiles and fixed- and rotary-wing aircraft. When the Avenger systems are deployed to assist the Secret Service in protecting the president, NORAD has said they are operated by the 263rd Army Air and Missile Defense Command. A NORAD spokesperson declined to provide further details about how frequently the systems are used in this role, according to The War Zone. Avenger was also seen at Bedminster on August 1 The air-defense system was not first seen at the golf club on August 9. On August 1, the White House released a video showing Trump speaking with U.S. Army personnel at Bedminster. An Avenger was visible in the background. During the exchange, Trump joked that he was not worried about “missiles and drones.” A U.S. Army colonel responded, “We got it covered,” while pointing toward the Humvee-mounted system. The appearance of the Avenger on both occasions indicates that the system has been positioned at Bedminster beyond a single golf outing. The White House has not publicly provided details about the duration or full scope of the deployment. NORAD F-16s intercepted civilian aircraft The heightened airspace security around Bedminster was also visible on August 9. While Trump was at the golf club, NORAD F-16 fighter aircraft intercepted two general aviation aircraft that violated the Temporary Flight Restriction (TFR) airspace over the area. NORAD said that all general aviation aircraft were safely escorted out of the restricted area. NORAD routinely supports the U.S. Secret Service and the Federal Aviation Administration in enforcing temporary flight restrictions established around protected presidential locations. The presence of fighter aircraft and the ground-based Avenger system represents different layers of airspace protection, although details of how the systems were coordinated during the incident have not been released. Trump has previously faced threats at golf courses The security arrangements at Bedminster come against a background of previous threats and attacks involving Trump, including an attempted assassination at a golf course. On September 15, 2024, Trump was playing golf at Trump International Golf Club in West Palm Beach, Florida, when a Secret Service agent conducting a perimeter sweep spotted a rifle in the tree line near the sixth hole. The agent fired toward the suspect, later identified as Ryan Wesley Routh. Routh was subsequently convicted of attempting to assassinate Trump. In February 2026, he was sentenced to life in prison plus seven years. Trump was also the target of an assassination attempt at a campaign rally in Butler, Pennsylvania, on July 13, 2024. The gunman, Thomas Matthew Crooks, fired at Trump before being killed by law enforcement. The shooting also killed one spectator and seriously injured two others. More recently, authorities arrested Jeanine John Taele, 38, at Trump National Golf Club in Rancho Palos Verdes, California, after he was observed photographing and recording security preparations ahead of Trump's scheduled visit. Authorities found ammunition on him and a loaded pistol in his vehicle, while subsequent searches uncovered additional weapons and other equipment. Authorities have not said that Taele was involved in an assassination plot against Trump. Iran-related threats add another security concern The current security environment also includes a history of threats from Iran against Trump. In January 2020, after the U.S. strike that killed Iranian commander Qassem Soleimani, an image was posted by an account associated with Iran's then-Supreme Leader Ayatollah Ali Khamenei showing what appeared to be a drone targeting Trump while he played golf. The image was widely interpreted as a threat of retaliation. The threat environment has since changed significantly. Khamenei was killed during U.S. strikes on Iran on February 28, 2026, according to reporting at the time. Iran has also developed and used various unmanned aircraft, including one-way attack drones. However, there is no public confirmation that Iran has specifically planned an attack against Trump at Bedminster. Other protective systems are not visible The Avenger is only one component of presidential security. The photographs released from Bedminster do not show the full range of systems or personnel protecting the president. The War Zone noted that other capabilities, potentially including electronic-warfare equipment, may be present but are not visible in the available imagery. The exact composition of the security arrangement has not been disclosed. Avenger systems have also been used previously for air-defense missions around sensitive locations. The U.S. Army continues to maintain the system as part of its short-range air-defense capabilities, including missions against unmanned aerial systems. The deployment at Bedminster therefore provides a visible example of how military short-range air-defense assets can be incorporated into presidential protection when the president is operating in an open outdoor environment. For Trump, playing golf at Bedminster on August 9 meant having an Army Avenger and Sentinel radar positioned nearby, while NORAD fighter aircraft were also responding to violations of the temporary restricted airspace. The specific threat information that led to the deployment remains classified or undisclosed.

Lockheed Martin and L3Harris Complete Stage 2 Rocket Motor Test for Next Generation Interceptor

U.S

HUNTSVILLE, Ala. — Lockheed Martin and L3Harris Technologies have completed a successful static-fire test of the Stage 2 solid rocket motor for the U.S. Missile Defense Agency’s (MDA) Next Generation Interceptor (NGI) program. The full-duration test was conducted inside a high-vacuum chamber using the L3Harris-built advanced large solid rocket motor. The test was designed to evaluate the motor under conditions representative of those expected during the interceptor’s mission. According to Lockheed Martin, the test confirmed key motor performance parameters, including thrust generation, chamber pressure and combustion stability. Data collected during the firing will support continued NGI design work, system integration and preparations for future flight testing. “This successful static fire test is a significant milestone on the path to the Critical Design Review and confirms our confidence that the NGI motor will meet the demanding performance envelope required for fielding by 2030,” said Christopher Jewell, Lockheed Martin’s vice president of the NGI program. He said the test data will be used to inform the final interceptor design and support integration with the Ground-Based Midcourse Defense (GMD) architecture. NGI development moves toward Critical Design Review The NGI is being developed to strengthen the United States’ homeland ballistic missile defense capability. The interceptor is intended to operate as part of the existing GMD architecture. The MDA selected Lockheed Martin in April 2024 to continue NGI development through Critical Design Review, qualification, integration with GMD and flight testing. Lockheed Martin is the prime contractor for the NGI program, while L3Harris provides major propulsion and control-system elements. L3Harris is responsible for the Stage 1 and Stage 2 advanced large solid rocket motors, along with the Attitude Control System (ACS) and Divert and Attitude Control System (DACS). The ACS and DACS provide the control needed for the interceptor to maneuver during an engagement. The Stage 2 motor test follows a successful burst test of the NGI second-stage motor case completed earlier in August. During that test, the composite motor case was pressurized beyond expected launch loads and withstood the required stresses before failing as planned. Manufacturing capacity expanded in Alabama Lockheed Martin is also expanding its manufacturing infrastructure for the NGI program. In June 2026, the company opened an 88,000-square-foot Missile Assembly Building 5 (MAB-5) in Courtland, Alabama. The facility is designed to produce and integrate NGI interceptors and uses digital manufacturing tools and processes. The company has also been investing in additional production lines, tooling and plant layouts in Alabama to support future NGI manufacturing requirements. L3Harris manufactures the large solid rocket motors for the program at facilities in Alabama and Arkansas, while components for the ACS and DACS are produced in California and Virginia. The NGI program uses digital engineering and modeling during development. Lockheed Martin says the approach is intended to reduce the time required for design, fabrication and validation and to support the transition from development to production. “This successful hot-fire test demonstrates L3Harris’ commitment to delivering dependable, high-performance propulsion systems, and we will continue to execute to support NGI’s first flight test,” said Scott Alexander, president of Propulsion Systems and Missile Solutions at L3Harris. With the Stage 2 motor test completed, the program is moving toward its planned Critical Design Review and subsequent flight-testing activities. Lockheed Martin has stated that the motor-test data will be incorporated into remaining design finalization and system-integration work. Note: The U.S. Missile Defense Agency's April 2024 announcement described an initial operational capability objective of no later than the fourth quarter of fiscal year 2028, while the August 2026 Lockheed Martin statement provided in the supplied material refers to fielding by 2030.

Lockheed Martin and Raytheon Raise IP Concerns Over Transfer of Patriot Production Technology to Ukraine

U.S

WASHINGTON — Lockheed Martin and Raytheon are reportedly raising concerns about a potential U.S. licensing arrangement that would allow Ukraine to produce Patriot missile interceptors. The companies’ concerns involve intellectual property and technology-transfer risks, while the broader debate also reflects questions about how Ukraine’s rapidly expanding defense industry could affect the existing Patriot production base. The issue comes as Washington and Kyiv discuss ways to increase Ukraine’s access to Patriot interceptors amid continuing Russian missile attacks and a global shortage of air-defense missiles. U.S. President Donald Trump publicly said on July 8 that the United States would give Ukraine a license to produce Patriot missiles. Trump made the statement while meeting Ukrainian President Volodymyr Zelenskyy during the NATO summit in Ankara. At the time, Trump also acknowledged that the companies involved in producing the system had not yet been informed of the decision. The exact scope of a possible license remains unclear. It could involve production of interceptors or selected components rather than allowing Ukraine to manufacture complete Patriot batteries, which also include launchers, radar, command-and-control equipment and other systems. Concerns From Patriot Manufacturers Patriot production involves two major U.S. defense companies. Raytheon, part of RTX, produces Patriot interceptors including the GEM-T, while Lockheed Martin produces the PAC-3 interceptor family. According to reporting by The Atlantic, the companies are concerned about intellectual property and unauthorized technology transfers. A Republican official familiar with the issue told the publication that the deeper commercial concern is that Ukrainian manufacturers could eventually improve the Patriot and manufacture it at greater scale and lower cost than existing U.S. production lines. The companies have not publicly confirmed that they are opposing the licensing proposal on those grounds. Earlier, Raytheon had indicated interest in working with Ukraine on co-producing Patriot interceptors. During a July 23 meeting with a Raytheon delegation, Zelenskyy said the company was ready to consider deeper cooperation with Ukraine, including co-production of Patriot interceptors. Raytheon Vice President Joseph DeAntona said the company was interested in opportunities to work jointly with Ukraine on ground-based air-defense systems. Ukraine Expands Defense Production Ukraine has substantially expanded its domestic defense industry during the war, particularly in the production of unmanned systems. Zelenskyy said on July 15 that Ukraine was producing 10 million drones annually and planned to increase that figure to 20 million with support from partners. The country has also developed relatively low-cost unmanned systems. The Darts drone, produced by Ukrainian company Stalevi Shershni, has been reported at a basic unit cost of about $1,000. Ukraine has also adapted foreign and commercial technologies for battlefield use. One example is the Ukrainian-developed Sky Map counter-drone platform, which combines information from sensors and radars to detect and track aerial threats. Reuters reported in April that the U.S. military had deployed the system at Prince Sultan Air Base in Saudi Arabia and that Ukrainian personnel were training U.S. forces to use it. These developments have contributed to growing interest in Ukraine as a defense-technology partner rather than only as a recipient of military assistance. Patriot Production Comes Amid Interceptor Shortages The licensing debate comes at a time when demand for Patriot interceptors has increased sharply. The Patriot system has become particularly important for Ukraine because of its ability to engage ballistic-missile threats. Ukraine has repeatedly called for additional Patriot systems and interceptors as Russia continues to conduct large-scale missile attacks. Reuters reported on August 7 that about 65% of the U.S. Patriot interceptor stock had been used between February and July 2026, leaving fewer than 850 interceptors according to the figures cited in its report. The United States is also working to increase production to replenish depleted inventories. Ukraine's missile-defense requirements have also increased. Ukrainian Air Force data showed that Russia launched 376 missiles against Ukraine in July, more than twice the number recorded in June. The shortage has made increasing production an important issue for both the United States and its allies. A Ukrainian production arrangement could eventually provide another source of interceptors, although establishing a complete production capability would take time. Production Would Not Begin Immediately A license would not automatically mean that Ukraine could quickly manufacture complete Patriot systems. The Patriot is a complex system involving multiple specialized components and production chains. Current discussions have therefore included the possibility of Ukrainian production of specific components or interceptors rather than immediate domestic production of entire Patriot batteries. The United States and Ukraine would also have to determine which technologies could be transferred, which components could be manufactured locally and how the production process would be integrated with existing U.S. suppliers. For Ukraine, domestic production could reduce dependence on deliveries from existing foreign stockpiles. For the United States, it could provide another potential production location at a time when demand for Patriot interceptors is high. However, the licensing process remains dependent on negotiations between the U.S. government, Ukraine and the companies involved. Trump has publicly supported granting Ukraine production rights, while the precise terms and scope of any final agreement have not been publicly established. The result of those discussions will determine whether Ukraine eventually becomes a producer of selected Patriot components, interceptors or a broader part of the system's manufacturing chain. Source : The Atlantic