The DLR exhibit "Maritime Situation Image" at the Seoul ADEX 2025 uses a VR presentation to illustrate how the use of maritime situation images can be utilised for the protection of maritime infrastructures. Three subject areas are presented and explained: the ‘SeaCat’ autonomous underwater vehicle (AUV) concept on object detection in the underwater area, the topic muon tomography, i.e. the use of cosmic radiation (muons) for the tomographic examination of objects such as freight containers, and Distributed Acoustic Sensing (DAS) on the detection of ships and submerged objects using fibre optic cables on the seabed.

SeaHFlight is an advanced 2D/3D GIS-based command and control solution engineered for the comprehensive management of low-altitude aircraft, including helicopters, drones, and future UAMs. It provides a complete operational picture, offering full lifecycle management from initial flight planning and real-time monitoring to post-flight performance analysis. Key Capabilities: Unified Situational Awareness: Achieve superior decision-making with a dynamic 2D/3D operational map that visualizes all air assets in real-time. The system integrates crucial data layers, including weather, airspace information, and flight plans. End-to-End Mission Management: Streamline the entire operational workflow, covering everything from flight plan creation and pilot hour management to flight history recording and detailed performance evaluation. Proven Interoperability: SeaHFlight is designed for seamless data integration with key national and military agencies (Army, Police, National Fire Agency, Forest Service). This creates a unified network for complex, multi-agency public safety or defense operations. Future-Ready Platform: Built to manage not only current helicopter and drone fleets but also the next generation of Urban Air Mobility (UAM), SeaHFlight is a scalable, long-term solution for modern aviation.

Fast and Intuitive Quality Inspection With precise AR overlay technology, deviations between 3D design data and real-world objects can be identified instantly. This enables fast and accurate quality inspections on the spot. Optimized and Lightweight 3D File Processing Supports the four most popular 3D file formats: FBX, GLTF, OBJ, and STL. Lightweight processing ensures faster matching and smoother inspection workflows. From Inspection to Report — All in One Inspection results can be recorded and documented with image captures, drawings, and notes. Final reports can be exported in PDF, XLS, or CSV formats, making them easy to share and manage.

This solution follows a three-step process of input, processing, and output, utilizing imagery, DEM, AT, and spatial data to refine 3D models. The editing-based texturing function allows users to correct shape errors, occlusions, and distortions, while the automated texturing ensures consistency and accuracy through advanced geometric matching. Final outputs are stored in standard formats for broad practical applications.

ORSKOREA’s centerless grinding machines ensure stable accuracy and durability without the need for chucks or centers. By allowing workpieces to rotate freely between the grinding and regulating wheels, they deliver high-efficiency and uniform machining for shafts, pins, housings, and other cylindrical components used in aerospace, defense, and advanced automotive systems. Key Advantages • High productivity through fast, efficient multi-part processing • ±2μm precision and long-term repeatability • Versatility to handle components from small to large sizes • Hydrostatic slides and spindles minimizing heat and vibration • Proven stability for high-value part manufacturing such as engine components, battery cases, and optical housings By combining productivity, accuracy, and reliability, ORSKOREA’s centerless grinders significantly enhance competitiveness in both defense and civilian applications.

Powering front-line fighters globally and backed by a continuous infusion of new technology, the F110 remains the engine of choice around the world.

Each SCU can interface with up to eight (8) fuel probes with temperature detection and/or fuel probes with compensators. It will process capacitive and resistive readings to determine the fuel heights for each probe and transmit the calculated fuel volume to the cockpit.