RTX Collins Aerospace Develops Resilient APNT Technology

Autonomous systems will be defined by their materials. At Neurovia Dynamics, PhantomFiber™ is being explored as a fiber-integrated platform for future autonomous battlefield systems—supporting adaptive signature management, EMI shielding, and embedded sensor connectivity. By moving functionality into the fiber itself, PhantomFiber™ points toward lighter, more resilient, and more integrated defense platforms. #NeuroviaDynamics #PhantomFiber #AutonomousSystems #DefenseTechnology #AdvancedMaterials

✈️ Introducing StormCloud: STR's breakthrough Multi-Function RF System. Deployable on Group 3+ UAS, StormCloud delivers cutting-edge sensing and electronic warfare missions at significantly lower cost, and in a more compact form factor, than competing systems.    StormCloud’s disruptive combination of cost, size, and performance enable advanced ISR and non-kinetic effects from a much wider range of autonomous platforms, creating new asymmetric options for the Joint Force.    If you need an affordable, high-performance RF system – if no one else can help – and if you reach out to MFRF@str.us – then maybe you can fly a StormCloud.   #ThisIsSTR #MFRF #EW #UAS #ISR #SDR

Human-in-the-Loop HMI for AI-Enabled Defense Systems As autonomy expands across military platforms, human control remains mission-critical. AI-enabled systems can accelerate decision-making, but meaningful human oversight is essential for accountability, safety, and rules-of-engagement compliance. That oversight depends on reliable, intuitive HMI design. In this in-depth article, Grayhill examines how rugged, operator-centric HMI components support human-supervised autonomy in tactical environments. Inside the article: • Why Human-in-the-Loop architecture is foundational to responsible military AI • How tactile controls, NVIS-compatible backlighting, and CAN-based interfaces enable real-time intervention • Where HITL HMI is deployed across vehicles, communications, and unmanned systems Download the full article: https://hubs.li/Q03-Thz80 #EverythingClicks #MissionReady

✈️🛩️ Avionics Systems in Modern Aircraft Avionics systems form the electronic backbone of an aircraft 🧠⚡, responsible for navigation, communication, flight control, surveillance, and system management. 🔧 Key avionics components include: ▪️ Flight Management System (FMS) – optimized routing & performance 📈 ▪️ INS & GPS – high-precision positioning 🛰️ ▪️ Air Data Computers (ADC) – airspeed, altitude & vertical speed 🌬️ ▪️ Autopilot & Flight Control Computers (FCC) – stability & control 🤖 ▪️ Integrated Modular Avionics (IMA) – scalable & modular architectures 🧩 ▪️ ARINC 429 / ARINC 664 (AFDX) – deterministic and reliable data buses 🔄 🛡️ Modern avionics are built around software-centric architectures, emphasizing redundancy, fault tolerance, real-time processing, and compliance with certification standards such as DO-178C & DO-254 ✅ 🚀 As aviation moves toward higher automation, enhanced situational awareness, and autonomy, avionics continue to drive innovation in aerospace engineering ✨ #Avionics ✈️ #AerospaceEngineering 🛠️ #AircraftSystems 🛩️ #FlightControl 🤖 #IMA 🧩 #AFDX 🔄 #DO178C 📜 #DO254 ⚙️

T. Zeng, X. Jiang, K. Mo, and T. Chen present a novel wide-beam antenna array for automotive radars. Read it at: https://lnkd.in/d2B6vMnH #ieee #ieeetap #ieeeaps #radar #widebeam #antenna #array #automotive

Did you know – Magnetic north in aircraft is not real north Aircraft do not navigate using the actual magnetic north pole. Instead, cockpit systems use a computed magnetic model . This is because Earth’s magnetic field slowly drifts and changes over time. If aircraft used the real magnetic field directly, headings would slowly become inaccurate. To prevent this, navigation systems use models like WMM (World Magnetic Model), which are updated regularly and loaded into aircraft computers to keep headings precise and safe.   #DidYouKnow #AviationFacts #AircraftNavigation #MagneticNorth #AviationTech #PilotLife #AviationStudents #Chennaiflightschool #Avelflightschool ✈️

Vuzix Corporation has entered the production phase of its augmented reality (AR) display engines in partnership with Collins Aerospace, an RTX business. This transition moves their collaboration from research and development to manufacturing, enabling Vuzix to produce waveguide-based display engines for Collins Aerospace’s wearable display system. The technology is designed for defense applications, particularly for dismounted soldiers and drone operators. Low-Rate Initial Production is currently underway, with the first hardware shipments to end-customers expected in the first quarter of 2026. Full-scale production is planned to scale throughout 2026. Vuzix’s proprietary waveguide optics deliver lightweight, power-efficient, and rugged Heads-Up Displays that overlay critical tactical data onto the real world without obstructing vision. This advancement supports situational awareness in combat environments and reflects a strategic shift toward recurring manufacturing revenue for Vuzix, strengthening its position within U.S. defense supply chains. #Vuzix #CollinsAerospace #DefenseTechnology Read more: https://lnkd.in/ewnauDPi

Battlefield Sensors: The Eyes and Ears of Modern Warfare Modern #military operations increasingly rely on sophisticated sensor networks to maintain situational awareness and operational superiority. Today’s battlefield sensors come in multiple forms, each serving specific tactical purposes. Key sensor technologies include radar systems for detecting aircraft and vehicles, infrared #sensors that identify heat signatures even at night, acoustic sensors capable of detecting drones or locating gunfire, and magnetic sensors that can spot metallic objects without emitting detectable signals. Advanced systems now integrate spectrum monitoring capabilities to detect RF activity across broad frequency ranges, while wireless and Bluetooth detection helps identify proximity of devices using these technologies. Modern unattended ground sensor systems feature multisensor fusion, combining RF, acoustic, and ground movement detection for enhanced UAS and UGS identification. These autonomous sensors can operate for extended periods with self-powered capabilities and auto-meshing networks that create distributed #surveillance coverage across large areas. Increasingly, battlefield sensors incorporate AI-based alerting systems that process data from multiple sources simultaneously, filtering out false positives and providing actionable intelligence.

Aeon went from concept to guided flight and vertical integration in just nine months. We design for warfighter needs and mass production from day one. That speed and understanding come from our experienced engineering, production, and former special operations team. We design and produce in-house: • Fuzes • Propellant • Solid rocket motors • Igniters • Control Actuation Systems • And other core subsystems All built in the past 9 months. Owning these enables modernized components, constant improvements, cost/schedule control, supply resilience, and affordable mass production. We build for scale, not prototypes. The tactical arsenal is 30+ years old. Our mission is to make operators even more lethal by delivering modern, advanced systems built in America. Our highly-modular, software-enabled Zeus system was built with direct operator feedback for today’s fight and tomorrow’s. • Swap payloads in seconds without tools to meet mission needs • Shoulder-Fired and integrate across ground, air, and maritime platforms • Integrate into existing turret systems like the On-Point TOW launcher, Moog stations, and others • Fire-and-forget, lightweight, and compact for maneuverability: 30 inches long and 20 lb. • Go from mounted to dismount in seconds • Fire from ATAK and supports networked fires, enabling coordination across sensors, shooters, and command-and-control systems Unlike legacy systems that are slow to adapt, Zeus can evolve quickly as threats change, manufacturing scales, and warfighter feedback comes in. It is a modular platform built to continuously improve over time without rebuilding the entire system. Thank you again to Moog Space and Defense Group for supporting this test and being a great teammate. Our team accomplished in months what often takes years. And we’re just getting started. Stay tuned.

SCAF: the aircraft of the future at the heart of a software war The Future Air Combat System (SCAF) relies less on an aircraft than on a digital architecture. The core of the program is not just the NGF, but a set of software, data networks, and algorithms designed to enable collaborative combat between piloted aircraft, drones, and sensors. It is precisely this dimension that is the focus of industrial and political concerns. Control of the code, communication architectures, and operational data determines military sovereignty, freedom of use, and strategic autonomy. The differences between France and Germany relate less to the airframe or engines than to the governance of these digital building blocks. Mechanisms for compartmentalization, division of responsibilities, and protection of intellectual property have been devised, but they remain fragile. For Berlin, access to these technologies represents a major industrial lever. For Paris, the risk is that it will dilute the strategic know-how accumulated over several decades. READ MORE AT https://lnkd.in/eZPuV6KJ #SCAF #FutureCombatAirSystem #softwaredefineddefence #aircombat #fighterjet #aerospace #defencetechnology #militarysoftware #europeandefence #digitalwarfare