March 11, 2026 - No. 10 In This Issue : From Billion-Dollar Jets to Instant Tragedy: Friendly Fire Lessons Ukraine Must Learn : B-52 Shortage: Why Modernization of America's Legendary Bombers is Under Threat : Sikorsky begins production of S-92A+ helicopter variant : Boeing and CFM Are Closing In On Leap Safety Fix : Airbus Opens Bengaluru Tech Hub To Support Engineering, Maintenance : Air Force Vice Chief: No Contract for Extra KC-46s Until Deficiencies Are Fixed : Why the US 'Boneyard' is worth billions (Video) : Hybrid-electric flight demonstrator, based on a De Havilland Canada Dash 8-100 : The hidden wing feature that makes the F-16 so agile (Video) From Billion-Dollar Jets to Instant Tragedy: Friendly Fire Lessons Ukraine Must Learn Svitlana Shcherbak March 8, 2026 Note: See photos and graphics in the original article. The Kuwait incident, the costliest case of friendly fire in modern history, exposed a fundamental flaw in 21st-century warfare: combat speeds have outpaced human decision-making. For Ukraine, this challenge is even more acute, requiring a constant balance within a "zoo" of Soviet and NATO systems, where a single error can be fatal The incident in the skies over Kuwait on March 2, 2026, where a single F/A-18 Hornet "downed" three American F-15E Strike Eagles, will go down in history as the costliest case of modern friendly fire. Yet, setting aside the shock and the staggering losses of $300–400 million, a fundamental question remains: why, after decades of stealth and AI development, have we still not learned how to avoid shooting our own? F-15E Strike Eagle / Photo credit: U.S. Department of War From Desert Storm to Epic Fury The challenge of friendly fire has plagued aviation since its inception. During World War II, thousands of pilots were lost to their own air defenses and wingmen. To deconflict the British skies, the first Identification Friend or Foe (IFF Mark I) system was introduced in 1939. Yet even decades later, despite the shift to digital standards, the core issue persists: the human factor and the sheer speed of combat remain decisive. Read more: New Details on History's Most Expensive Friendly Fire: One F/A-18 Hornet Defeats Three U.S. F-15E Strike Eagles, Setting New Record During Operation Desert Storm (1991), roughly 17% of all U.S. combat losses were caused by friendly fire. This failure forced the Pentagon to radically overhaul IFF protocols and implement advanced digital battlefield management tools. Stinger missilemen train to engage targets aboard USS Guam in the Persian Gulf during Operation Desert Storm In 2003, during the Iraq War, U.S. Patriot systems mistakenly shot down a British Tornado and an American F/A-18. The 2026 Kuwait disaster during Operation Epic Fury demonstrated that even in a network-centric environment, a single pilot can decimate an entire allied flight in a matter of seconds. Cognitive Overload: The Digital Fog Carl von Clausewitz famously described war as the realm of "friction" and "fog." By 2026, that fog has turned digital. The problem is no longer a lack of information but an overload. Operators face sensor saturation, compressed decision cycles, and only milliseconds to act. The modern cockpit presents a large amount of information from radars, satellites, AWACS, and ground stations. In high-intensity combat, with skies cluttered by Iranian or russian drones, cruise missiles, and decoys, the human brain ceases to be an analyst and reverts to a "hunter" mindset. If an IFF system glitches or lags, survival instinct pushes the pilot to pull the trigger before a positive ID can be confirmed. F/A-18 Hornet Cockpit / Photo credit: Boeing The Vulnerabilities of IFF Systems IFF (Identification Friend or Foe) is a radio signal, making it inherently susceptible to several critical failure modes: • Electronic Warfare (EW): An enemy can jam the signal or trick the system by sending a fake "friendly" response. • Physical Interference: Lost due to terrain or maneuvering. • Sync Issues: Cryptographic codes may fail to update across all platforms due to technical glitches or bureaucratic friction. Military expert Dave Grossman (On Killing) and RAND Corporation analysts emphasize that the core vulnerability of IFF is operator psychology. Under extreme combat stress, the human brain tends to interpret the absence of a "friendly" signal as proof of an "enemy" presence. Because of this, IFF is not a 100% guarantee of safety; it is just one data point in a complex decision matrix. This is why modern militaries are shifting toward multimodal systems like Blue Force Tracking (BFT). These systems use GPS and satellite data to show the real-time position of all friendly forces on a digital map. Choosing Without Choice Any air defense or interception system operates within a delicate balance: • Cautious settings (Positive Identification - PID): minimize friendly fire risk but allow enemy missiles to reach targets. • Aggressive settings (Automatic Engagement Mode): create an impenetrable shield, but pilots become "statistical casualties." The Neural Network of the Battlefield: This infrastructure enables Link-16 and other tactical data links to connect satellites, aircraft, and ground units into a single, cohesive combat web / Photo credit: The Air Power Journal To fix this, modern militaries are pursuing a "third way" through Sensor Fusion. In this model, decisions are driven not by a single radar, but by a network that synthesizes data from satellites, ground sensors, and AWACS aircraft simultaneously. This allows forces to remain aggressive toward the enemy without losing caution toward their own. Eyes of the Network: Raytheon’s LTAMDS radar provides the high-fidelity 360-degree data needed for AI to distinguish friends from foes in high-intensity combat Defense industry leaders are developing algorithms designed to outpace human reaction times. Lockheed Martin is pioneering Cognitive EW systems, while Raytheon utilizes neural networks for AI-Driven Track Classification. The Architecture of Sensor Fusion: A modern decision cycle integrating Space, Cyber, Air, Land, and Sea domains to ensure accurate target identification / Photo credit: The Air Power Journal The ultimate objective is Guardian AI- an autonomous assistant capable of real-time risk assessment and empowered to override a missile launch. However, this raises the question of accountability: who is responsible if the AI blocks fire against a real enemy, mistaking it for a friendly target? The Ukrainian Takeaway: Living With Risk For Ukraine, these dangers are not theoretical. The "technological mix" of Soviet legacy and cutting-edge NATO hardware creates additional risks of misidentification. Delta system / Photo credit: Ministry of Defense of Ukraine Completely eliminating friendly fire is impossible — it is effectively a war axiom. The real task is to continually reduce its probability through digital integration of all strike and command systems into a single network (Delta, Virazh-Tablet) under the JADC2 (Joint All-Domain Command and Control) concept. In 21st-century warfare, the decisive factor is no longer just missile range but the speed and accuracy of information exchange among all elements of the combat system. Modern warfare serves as a stark reminder: even billion-dollar defense budgets cannot replace clear coordination and a unified identification code. From Billion-Dollar Jets to Instant Tragedy: Friendly Fire Lessons Ukraine Must Learn B-52 Shortage: Why Modernization of America's Legendary Bombers is Under Threat Defense Express March 7, 2026 50226 B-52 strategic bomber / Photo credit: US DoW Because the B-52 fleet must perform not only conventional missions but also maintain nuclear alert duties, its modernization could become a complicated issue The United States has encountered a rather unusual problem: a shortage of B-52 Stratofortress strategic bombers. This situation could complicate plans to modernize the aircraft and keep them in service into the 2050s. According to reporting by The War Zone (TWZ), the concern stems largely from the need to keep part of the fleet assigned to nuclear deterrence missions. At the same time, the bomber force has maintained a readiness rate of only about 50–55 percent in recent years while also supporting various global operations. B-52 strategic bombers / Photo credit: US DoW Moreover, under arms control agreements with russia that have recently ceased to function, only part of the B-52H fleet was allowed to carry nuclear weapons: 46 out of 72 aircraft. In theory, that capability could now be restored to additional bombers, but no decision has yet been made. Another option to increase the available fleet would be to return aircraft from long-term storage. However, representatives of the U.S. Air Force note that even the reserve inventory is limited. B-52 strategic bomber / Photo credit: US DoW From the perspective of Defense Express, this creates an interesting dilemma. A significant portion of the strategic bomber fleet must remain on nuclear alert. As a result, every aircraft sent for modernization reduces the number of bombers available for operational missions. Combined with the need to support conventional operations around the world, this creates a potential shortage of available aircraft. Part of this problem is expected to be resolved with the introduction of the B 21 Raider stealth bomber, which will also perform strategic deterrence missions. However, the B 1B Lancer and B 2 Spirit are scheduled to be retired in the 2030s, which could again create a capability gap. B-21 strategic bomber / Photo credit: US DoW The B 52 Stratofortress is expected to remain in service into the 2050s. To achieve this, the aircraft are being upgraded to the B-52J configuration. Among other improvements, the program includes installing the new AN/APQ-188 radar and replacing the engines with eight new powerplants. However, despite plans to begin test flights in 2024 and introduce the upgraded aircraft into service by 2030, the program has been delayed. The current timeline now anticipates test flights starting in 2027 and operational deployment in 2033. At the same time, the new radar has already been delivered to the U.S. Air Force for testing, while new engines from Rolls Royce are expected to be delivered in 2027. Sikorsky begins production of S-92A+ helicopter variant March 8, 2026 Sikorsky has officially begun manufacturing the first production batch of the S-92A+ helicopter variant as of March 2026. This follows years of development and a shift in strategy that prioritized the A+ upgrade over the previously planned S-92B. Helicopter Investor +2 Production & Delivery Timeline • Sikorsky is ramping up its manufacturing capacity at its facilities in Owego, New York, and Stratford, Connecticut. Star-Gazette • Initial Batch: The first batch consists of five aircraft, two of which are already sold to a head-of-state customer. • Annual Capacity: The company aims to scale production to build up to 12 S-92A+ helicopters per year. • Lead Times: Current production time is approximately 36 months, though this is expected to drop to 24 months for future orders. • Certification: While production has started, final certification for the variant—specifically its new gearbox—is expected later in 2026. • Helicopter Investor *3 Key Upgrades in the S-92A+ The S-92A+ is designed to improve reliability and reduce operating costs through several technical enhancements: • Phase IV Main Gearbox: Features a secondary oil system to provide enhanced "run-dry" capability, increasing safety if the primary lubrication system fails. • Engine Option: Available with GE CT7-8A6 engines, which provide better performance in "hot and high" conditions compared to the standard engines. • Increased Payload: The variant supports an increased gross weight of 27,700 lbs, allowing for greater mission flexibility. • Availability: The A+ features are available both as new-build aircraft and as a retrofit kit for existing S-92 fleets. YouTube +5 Market Focus The primary markets for the S-92A+ include head-of-state transport, offshore energy (oil and gas), and search and rescue (SAR) operations. Sikorsky is building three of the initial five units "on-spec," anticipating further demand as global offshore capacity requirements grow modestly. Star-Gazette +2 Would you like to see a comparison table of the S-92A+ specs versus the original S-92A model? Boeing and CFM Are Closing In On Leap Safety Fix Share Sean Broderick March 06, 2026 An eagle strike broke a fan blade and triggered the Leap-1B load reduction device in a December 2023 incident. Credit: NTSB Boeing and CFM International are on track this year to deliver an NTSB-recommended fix—which the FAA plans to mandate—to address an ancillary hazard in the Boeing 737 MAX Leap-1B safety system. CFM is close to wrapping up work on the software change to the engine load reduction device (LRD), sources... Airbus Opens Bengaluru Tech Hub To Support Engineering, Maintenance Share Swaati Ketkar March 06, 2026 Credit: Airbus Airbus has opened a new technology center in Bengaluru, India, to strengthen engineering capability, digital innovation and technical expertise in support of its global aircraft programs and the aviation maintenance sector. The Airbus India Technology Center is one of the OEM’s largest engineering and digital centers outside Europe, spanning 880,000 ft.2 with the capacity to host around 5,000 employees. It will bring together engineering, digital transformation, customer services and procurement functions under one roof, creating a collaborative hub that supports Airbus’ global operations while reinforcing its long-term “Make in India” commitment. Jürgen Westermeier, president and MD of Airbus India and South Asia, says the center will allow the company to “expand engineering and innovation capabilities while strengthening customer services and procurement operations.” Engineers at the center will contribute to the entire life cycle of Airbus aircraft and helicopter programs, supporting activities ranging from design and development to fleet maintenance, upgrades and performance optimization. Their work is increasingly tied to advanced technologies such as artificial intelligence, robotics, cybersecurity and digital engineering platforms, which are becoming essential tools for modern aircraft maintenance and fleet management. Beyond engineering development, the Airbus India Technology Center is also expected to play a role in strengthening India’s aviation talent base, particularly in areas related to aircraft maintenance engineering and technical services. The OEM aims to use the center as a hub where Indian engineers and technical professionals can gain exposure to global aircraft programs, advanced maintenance technologies and complex engineering challenges. India’s civil aviation market is among the fastest growing in the world, and the country is expected to see a dramatic increase in aircraft fleet size over the coming decade. This expansion will require thousands of additional aircraft maintenance engineers, technicians and aviation specialists to support both domestic and international MRO operations. The facility will also host a local chapter of Airbus Leadership University, which will offer specialized training and professional development programs to prepare the next generation of aerospace engineers, technical managers and industry leaders. A dedicated customer services center within the new campus will provide technical support to Airbus operators worldwide. It will deliver a range of services, including flight-hour support programs, maintenance advisory services and technical troubleshooting, helping airlines maintain operational reliability and reduce aircraft downtime. The Bengaluru hub will also play an important role in Airbus’ procurement and supply chain operations, helping coordinate sourcing and manufacturing activities within India. Airbus has significantly expanded its procurement footprint in the country over the past few years. Annual sourcing from India has grown to more than $1.5 billion from around $500 million in 2019, and the company expects this figure to exceed $2 billion before the end of the decade. More than 100 Indian suppliers are now part of Airbus’ global supply chain, producing critical aircraft components such as flap track beams, passenger doors and helicopter fuselages. Indian manufacturing capabilities are also supporting key Airbus programs, including the C295 military transport aircraft assembly line in Vadodara and the H125 helicopter final assembly line in Vemagal, near Bengaluru. Air Force Vice Chief: No Contract for Extra KC-46s Until Deficiencies Are Fixed March 4, 2026 By Matthew Cox The Air Force won’t finalize a new deal with Boeing for another 75 KC-46 tankers until some of the “deficiencies” with the refueler are resolved, new Vice Chief of Staff Gen. John D. Lamontagne told lawmakers March 4. The service announced in July 2025 it would purchase another 75 KC-46 Pegasus refuelers on top of the current program of record for 188 while the Air Force explores plans for a Next-Generation Air Refueling System. The additional KC-46s are intended to serve as a short-term measure to keep production on a modern tanker going while the Air Force considers a long-term plan to replace its aging fleet of about 375 KC-135 Stratotankers. The decision to buy more KC-46s, instead of holding a competition for a new tanker, comes despite years of struggles for the Pegasus and its maker, Boeing. The Air Force and Boeing are still working to revise the aircraft’s Remote Vision System for boom operators after the initial version had visibility issues, and the boom telescoping actuator is still being redesigned after it was found to cause the boom to become “stiff” and prevent it from refueling certain aircraft, such as the A-10 Thunderbolt II, that cannot produce enough thrust to keep the boom in place during refueling. While providing a program update to Sen. Dan Sullivan (R-Alaska), Lamontagne said the service is working “our way from 183 to 188 by the end of that initial contract” by next year. But Lamontagne, the former boss of Air Mobility Command, offered assurances that the plan for 75 more aircraft won’t be implemented without the plane’s issues being addressed. “We are working through a couple of issues with the contractor, and we’re not going to get a new contract for another 75 KC-46s until we work through some of those deficiencies,” he said, adding that the new contract won’t likely come for another “couple of years.” That timeline tracks with the current agreement, which states that the KC-46A production extension contract is planned from fiscal 2028 to fiscal 2036, according to a Justification and Approval document released by the service last fall. But it does put pressure on Boeing to ensure the program doesn’t suffer any delays as it has in the past n the past and that planned upgrades are completed. In addition to the RVS and boom, the KC-46 has had issues with leaks in its fuel system, cracks on some airframes, and quality issues with its auxiliary power unit’s drain mast. Deliveries have been paused multiple times. The RVS—the camera and video system boom operators use to refuel other aircraft—has been by far the most prominent problem, though. In certain lighting conditions, the boom operator is unable to see the receptacle clearly, resulting in damage to the receiving plane if the boom scrapes against that aircraft. Last year, the Air Force and Boeing projected a new Remote Vision System 2.0 for the KC-46 will be fielded by summer 2027. The new date is nearly two years longer than previously anticipated, and four years later than originally expected. The problems with the stiffness of the KC-46 refueling boom comes from the boom actuator which drives the boom out in the telescope direction to properly connect with a receiving aircraft. Rather than redesign the entire boom, Boeing and the Air Force chose to redesign the actuator, but developing a compliant actuator has proven to be difficult, then-Col. Leigh Ottati, chief of the KC-46 program office, said in 2023. Boeing CEO Kelly Ortberg said recently that the company has now lost more than $7 billion on the fixed-price contract for the KC-46, describing the original deal has been a “bad contract for the last decade.” Boeing officials are hoping to underwrite the new contract for the additional 75 KC-46s “to ensure it’s a fair contract and we can make money on that,” Ortberg said. Lamontagne said the Air Force is “confident that a good plan is in place” to complete the current program next year, “and then in subsequent years, we’ll intend to pursue another 75 KC-46s to deliver to the fleet.” Why the US 'Boneyard' is worth billions In the Arizona desert sits the 309th Aerospace Maintenance and Regeneration Group, often called the Boneyard, where thousands of retired military aircraft are stored in neat rows under dry desert skies. Far from being a simple aircraft graveyard, the facility functions as a massive reserve of spare parts, preserved airframes, and strategic backup capability valued in the tens of billions of dollars. The region’s low humidity helps prevent corrosion, allowing everything from F-16 fighters to B-52 bombers to be stored in near dormant condition for years. Aircraft can be stripped for components no longer in production, regenerated for foreign military sales, or even returned to active service when needed. What looks like rows of abandoned planes is actually a carefully managed system that protects long term readiness and saves significant maintenance and replacement costs. Hybrid-electric flight demonstrator, based on a De Havilland Canada Dash 8-100 In a test cell at a Pratt & Whitney Canada facility on the outskirts of Montreal, RTX has completed a key power-up sequence for its hybrid-electric flight demonstrator, based on a De Havilland Canada Dash 8-100 regional turboprop aircraft. - The demonstrator combines an advanced fuel-burning thermal engine from Pratt & Whitney with a 1-megawatt electric motor built by Collins Aerospace and a 200-kilowatt-hour battery system from the startup H55. - A special gear system connects the two and keeps the propeller turning, whether the power comes from the engine, the motor, or both. - The thermal engine will power the plane during cruise, and the electric motor will do most of its work by helping with the taxi stage, as well as the power-intensive flight modes of takeoff and climb. - The parallel hybrid-electric system aims to improve fuel efficiency and reduce CO2 emissions by 30% compared to modern regional turboprops. - The project is supported by the Canadian federal government and provincial government of Quebec along with a range of partners across industry and academia. Hybrid-electric flight demonstrator, based on a De Havilland Canada Dash 8-100 Curt Lewis