1. Battery Pack with Battery Management System (BMS) • High energy density cells, Rapid charge/discharge • State Estimation Technology, Multiple Sensing & Sensor Fusion • Thermal management design, Overcharge/overdischarge protection circuits • Real-time Diagnostics, Safety Compliance through Anomaly Detection 2. Hydrogen Fuel Cell Power Pack (1.6kW/3.5kW) • Patented Core Technology • Smart Energy Blending - High Energy Efficiency • Rapid Hydrogen Fueling 3. Energy Storage System (ESS) • Energy Efficient • Stable Power Supply of the Grid • Sensing & Diagnostics

Revolutionary DFOG Technology Boreas takes Fibre Optic Gyroscope (FOG) technology into the next generation with new, patent-pending Digital FOG (DFOG) technology, developed over 25 years with 2 research institutions. This revolutionary DFOG technology combines a specially designed closed-loop optical coil with advanced spread spectrum digital modulation techniques that have never been used in a FOG before. The resulting DFOG offers dramatically improved accuracy, stability, and reliability with significantly reduced size, weight, power, and cost.

Fast & precise 5-axis exceeds expectations • 15000, 20000 r/min high speed spindle • B-axis/C-axis 0.0001 degree control as standard • Tool change time (C-T-C) 3.8s, 28% faster than previous model • Increased X/Y/Z-axis rapid traverse speed & acc./dec. • Cooling functions as std. on spindle, motor/LM guide/ball screw (X/Y/Z), C-axis table motor • Integrated thermal compensation systems for spindle and structure FURTHER INCREASED MACHINING CAPACITY • Ø630mm dia. 2-axis tilting table, 26% increased compared to previous model • Max. Ø600 x H500mm machining area, 32% increased compared to previous model • Max. 400kg table load capacity with stable table support structure • X/Y/Z axis travel distance 650/520/480mm, up to 20% increased compared to previous model EASY ACCESS, EASIER OPERATION • Easy setup of workpieces with 580mm distance between operator and table center • Easy tool exchange by placing the tool magazine door on the front and applying a tool removal device (Auto Kicking Device) • Improved chip disposal capability with enhanced coolant flood & flushing functions • Grease lubrication system • Compact integrated automation system (AWC)

We have been designing and supplying cryogenic turbines for helium liquefaction since the late 1980s. Today we are a major supplier of turboexpanders, compressors and pumps to the world's leading manufacturers of cryogenic systems. Our cryogenic product line utilizes the unique PBS technology and know-how of dynamic gas bearings. We supply to prestigious research institutes such as CERN, Max Planck Institute or Rosendorf Research Centre. With the new HEXT/CTE300 turboexpander we will be ready for the hydrogen ecosystem

The IntuVue RDR-7000 is fully automatic and does'nt require active pilot adjustments of tilt and/or gain for operation. Reducing workload, allows pilots to focus on flying the most comfortable and safest route through weather. Engineered to provide far superior reliability, accuracy and durability than legacy magnetron-based radar systems, the RDR-7000 offers customers the flexibility to remotely enable advanced software features to provide them the clearest view of weather conditions around the routes they’re accustomed to flying. Key Honeywell Advantages: Next generation -fully automated, higher resolution weather radar system with airborne ground/sea mapping system Reliable and efficient - solid-state transmitters utilizing pulse compression provide reduced weight and power consumption, advanced coherent processing, and increased reliability Compact and easy to install - RDR-7000 IntuVue radar systems technology integrated into a small, lightweight package Available software upgrades - advanced features can be added at any time, including turbulence detection, advanced mapping, target detection and additional hazard features (lightning and hail detection), and forward looking (predictive) windshear Honeywell's RDR 7000 Radar helps in operational costs savings by reducing the delays & downtime caused due to hailstorm, weather incidents and windshears while optimizing routes to reduce diversions and turnbacks.

Weibel’s Doppler velocity radars are designed for precise velocity measurements of free-flying objects such as projectiles, artillery rounds, and rockets. The radars are capable of operating under confined indoor as well as long range environments and providing velocity and other ballistic data. The network-ready SL family of fixed head Doppler radar systems is easily portable and based on state of the art radar technologies. All electronic components are integrated in the antenna/processor unit. The radars connect directly to your TCP/IP network and can be accessed and controlled from any standard PC on the network, running WinDopp software.

Near-field Ranges calculate Far-field pattern based on amplitudes and phase samples in radiating near-field region mathematically. Near-field Ranges have various testing configurations-planar, cylindrical and spherical. Planar Near-field range is suitable for directional antennas. Cylindrical Near-field range is suitable for antennas with wide side/back lobes and fan beam antennas. Spherical Near-field Range is suitable for any type of antennas. You can choose reasonably defending your conditions. MTG has many experience supplying Far-field ranges as well as Near-field ranges. MTG work with many companies including munitions industries, laboratories, telecommunication corporations, and antenna corporations. We can provide a series of positioner, probes and Near-field measurement software.

Seedcore’s VPX Chassis Housing Assembly is designed as a structural platform for Multi-function radar signal processing systems. Featuring a robust 8U 2×5 slot VPX configuration, precision-machined aluminum construction, and excellent thermal management, it ensures high mechanical stability and optimal heat dissipation in demanding defense environments. This chassis housing is deployed in Korea’s key air defense radar systems, including the L-SAM, M-SAM, and LAMD programs, supporting mission-critical radar signal processing architectures.