AI autonomous mission-performing drone - Drone performing autonomous defense/interception missions using Deep Reinforcement Learning technology - Drone platform for development (can be provided separately) - Drone H/W specifications

Toxic gases, such as Silane (SiH4), Nitrogen Trifluoride (NF3), Sulphur Hexafluoride (SF6), Ammonia (NH3), Nitrous Oxide (N2O), etc. must be contained in IMDG certified MEGC tubes for ocean transportation. For high purity gases such as SiH₄, and NF₃, DS Aether CT provides internal-polished tubes to a grade of 3S, 25S, etc. depending on customer's requirements. DS Aether CT’s tubes keep moisture levels below 1 ppm or 3 ppm by a heated vacuuming process so that gas quality can be maintained at high purity level.

Military actions today depend on effective use of the electromagnetic spectrum to surveil and assess the battlespace, to protect friendly forces and equipment, and to attack the enemy. That is today's Electronic Warfare (EW), and maintaining a technological advantage across the electromagnetic spectrum can mean the difference between whether or not you complete your missions and bring your forces home.

High-performance video tracking camera UVA, a high-performance long-distance tracking camera optimized for aircraft such as helicopters. 2-axis, 3-axis, 4-axis and various sensors can be installed. Depending on your needs, you can choose from various options such as LRF, SWIR, and Pointer.

- Detects fire through heat sources when installed in areas where optical fire detectors are difficult to apply, such as in the presence of contaminants or obstructed visibility - Capable of detecting fire even if the sensing line is severed - Length can be adjusted depending on the equipment applied

- Fire response time: 0.004 seconds - Fire monitoring range: cone angle of 90° or greater - Equipped with self-diagnostic function - Capable of distinguishing between major fires and minor fires

ALTERNATIVE TO M19648/1 SERIES

Hyundai Elevator is leveraging its expertise in elevator technology to develop infrastructure for urban air mobility (UAM). We are working on takeoff, landing, charging, and maintenance platforms that can be built on top of existing buildings, solving space constraints in congested urban environments. Our initiative is backed by their manufacturing expertise and government support, though global building codes may present a challenge in scaling the solution.