This solution leverages LLM-based data interpretation technology to detect process anomalies in advance, providing alerts and countermeasures before defects occur, thereby ensuring sufficient response time. It also analyzes issues such as positional misalignment or print degradation patterns during the process, matches them with various event timelines, identifies the root causes of defects, and delivers the findings in the form of analytical reports

Ultra-High Accuracy MEMS Motus features some of the highest accuracy MEMS accelerometers and gyroscopes currently available. Motus’s inertial performance exceeds some FOG IMUs and is up to 100x smaller and 10x cheaper. Motus is put through Advanced Navigation’s intensive calibration process to provide consistently accurate data over an extended temperature range of -40°C to 85°C. Miniature Package Never before has such high inertial performance been available in such a small package. Motus consumes just over 1 cubic inch in volume and weighs only 26 grams. This makes it ideal for weight and size sensitive applications. Motus is available in an OEM package suitable for integration into larger products or an enclosed package for external and standalone use. Advanced Signal Processing Motus samples its sensors synchronously at 1000Hz through six individual 24-bit differential ADCs which minimizes noise as well as providing optimal thermal calibration and performance characteristics. 14 separate heavily filtered regulated power supplies ensure that each sensor and ADC is operating off the cleanest possible power supply. Reliability Motus has been designed from the ground up for mission critical control applications where reliability is very important. It is built on top of a safety oriented real time operating system and all software is designed and tested to safety standards with fault tolerance in mind. The hardware is designed and manufactured to mil standards. High Update Rate Motus outputs temperature calibrated sensor data at 1000Hz as well as filtered attitude at the same rate. This allows for control of dynamically unstable platforms.

Potentiometers for aerospace applications: landing gears fly by wire fuel management system space mechanisms (SADM, robotic arms)

Active phased array fire control radar (AESA) for aircraft A fire control multi-function radar (MFR) that can simultaneously detect, identify, and track multiple targets, including in the air and on the ground, and has SAR and NCTR functions. Aircraft (fighter)-mounted AESA radar is a core sensor for fighter jets to perform day/night/all-weather multiple missions. It operates in multiple modes such as air-to-air/air-to-ground/air-to-sea/support mode, and acquires ground images and air/ground in electronic warfare situations. It is essential mission equipment for fighter jets that detects/tracks multiple targets and supports guided missile guidance and gun shooting.

Yuan Thor platform serves as the computational core for autonomous systems. Powered by NVIDIA® Jetson Thor™ (128GB LPDDR5X, 2560 CUDA cores, 96 Tensor cores), it delivers up to 2070 FP4 TFLOPS of AI performance for real-time sensor fusion, data analytics, and edge decision-making. Thor supports 16× MIPI CSI-2 cameras, audio in/out, CAN Bus, UART, I²C, SPI, and GPIO, enabling precise, low-latency responses for robotics, industrial automation, and autonomous vehicles.

Kia newly developed 2½ ton Medium Cargo Truck to fit all- battlefield environments with the best driving performance and durability and survivability based on its long-accumulated military and commercial vehicles technology. 280 – HP Diesel Engine Mounting commercial high-efficiency and high-hoursepower engines onto behicles for tracking capability, cold starting, and electromagnetic wave shielding adequate for military applications Automatic transmission Improves the convenience of operating the vehicle, and prevents the engine from shutting down and the vehicle from slipping when it is started on a slope. All wheel drive (AWD) The all wheel drive function is applied for improving tracking and hauling power, steering capability and stability, and off-road driving power. Full air braking system and ABS Applying a full-air braking system to the vehicle for reducing the force required for pressing the pedal, and ensuring precise braging force. Applying ABS for keeping the braking force and steering capability intact and securing vehiclestability on anuneven surface. Air pressure control device of tire (optional) Evacuates from poor subsoil by controlling air pressure of tire inside the cabin Cabin This cab-over cabin provides improved legibility compared with bonnet-type. Applying specifications of commercial vehicles enhances convenience of driving vehicle Air conditioner Provides a pleasant environment to riders all the time and secures visibility of a driver by defrosting the windshield. Instruments and switches Commercial vehicle instruments for improved legibility, and switches ergonomically arranged for enhanced operability

THE FUTURE OF FIGHTER JETS

With a 99% win-rate in simulated F-16 dogfights versus active-duty Air Force and Navy fighter pilots, Hivemind is learning to execute a variety of missions from Beyond Visual Range strike to suppression of enemy air defense. The future of air dominance will be powered and flown by Hivemind.

It Starts With The F-16

Hivemind will deploy as a digital co-pilot on a U.S. Air Force F-16, with the goal of rapidly scaling across next-generation aircraft, F-22s, F-18s, and other fighter jets. Hivemind will make legacy fighters relevant for decades to come and will power the next generation of military aircraft.

- 1 channel - Up to 100 FBG sensors - Up to 50 kHz sampling frequency