The NSP-8 is IMSAR’s most powerful radar. It is capable of advanced Synthetic Aperture Radar (SAR), Moving Target Indication (MTI), and Magnitude Change Detection (MCD). When paired with an airborne server, it can even produce SAR Motion Video (SMV). IMSAR adds value to its exceptional engineering with a production time much faster than industry standard. The NSP-8 is designed for durability and thoroughly tested with a Mean Time Before Failure (MTBF) of over 2,000 hours. Additionally, it’s weatherized for optimal performance over land and sea. With this sensor, IMSAR’s users can understand the bigger picture.

Green Optics possess proprietary CVD-based Zinc Sulfide (ZnS) production technology for defense and industrial multi-wavelength optical materials. We have core technological capabilities to manufacture high-quality ZnS products tailored to meet diverse customer requirements. ZnS Material Optical Performance and Processing ZnS materials produced through CVD processes provide high transmittance exceeding 70% in the SWIR wavelength range (8-12 μm). When these materials undergo additional Hot Isostatic Pressing (HIP) treatment, the crystal structure undergoes recrystallization, improving transmission characteristics to achieve over 70% transmittance in the visible (VIS) wavelength range of 0.45-0.8 μm. This process extends the application range of optical materials previously limited to SWIR and LWIR bands, delivering superior optical performance across multi-wavelength regions from VIS to LWIR. Material Specifications: - STD-ZnS (Standard ZnS Material): Manufactured via CVD process, exhibits transmittance exceeding 70% in LWIR wavelengths (8-12 μm) with high physical hardness (Knoop hardness: 210 kgf/mm²). - MS-ZnS (Multispectral ZnS): Converted from STD-ZnS through HIP processing, extends wavelength range into the visible spectrum. While crystal structure recrystallization during this process reduces hardness somewhat (approximately 150 kgf/mm²), it still meets MIL specifications. This dual-processing approach enables comprehensive wavelength coverage while maintaining military-grade durability standards.

GAIN CRITICAL CLARITY WITH SATELLITE TASKING Task ICEYE SAR satellites to access groundbreaking data on any location on Earth – day or night and in any weather. The process is simple and images are usually delivered within 24 to 48 hours of your initial request. ORDERING SAR DATA – MADE SIMPLE We believe access to reliable and timely SAR Earth observation data should be available to all, so we provide access options designed to meet your specific mission needs and collection timeframes. The process begins with defining your area of interest, revisit frequency and other parameters. The first images are usually acquired, downlinked, decoded and processed within 24 hours of the initial request and delivered within 8 hours after that.

Sungjin Techwin develops operating control computers designed for ground and naval defense applications. Engineered for harsh environments, these ruggedized systems provide secure and real-time processing to support RCWS operations, anti-drone defense, and unmanned surface vehicle control. Built to military standards, they offer high reliability under shock, vibration, and temperature extremes while enabling seamless integration with sensors, weapons, and communication networks. By combining durability with scalable architecture, Sungjin’s operating control computers ensure mission effectiveness across diverse modern battlefield domains.

Explore nanoscale structure with clarity, speed, and confidence. Tescan’s STEM solutions are purpose-built for advanced materials research, semiconductor analysis, and detailed nanoscale characterization. With integrated 4D-STEM, precession-assisted diffraction, and synchronized EDS workflows, our instruments deliver actionable insight with unmatched usability—whether you're mapping strain, analyzing phases, or accelerating failure analysis and R&D.

The nose wheel assembly refers to the complete integrated unit consisting of the wheel, tire, axle, bearings, and associated structural components. In some configurations, it also includes steering mechanisms, shock absorbers (oleo strut), and braking systems (for specific aircraft types). The assembly is engineered for durability, precision, and reliability, enabling the aircraft to safely absorb impact forces during landing and provide accurate steering during taxiing.

The focus on buy-to-fly ratios highlights the contributing role that near net shape processing can offer. This has undoubtedly been a driver in increasing this service offering from AMA. As a major contributor in the aircraft manufacturing supply chain, this is a key area of development for AMA and its companies. Customers are increasingly looking to optimise their production processes. This is primarily driven by the need to maximise their own spindle time for core business activities, with AMA therefore undertaking some of the machining processes. It can take many forms, from simple cutting to more intricate processing in which near net shape pieces are supplied. Even in AMA businesses whose business is predominantly transactional (so called ‘spot business’) rather than contractual, the processing element is increasing. Pre-machined kits of parts to individual specifications are becoming more commonplace. In addition to freeing up time for customers and OEMs to focus on more profitable final processing, near net shape processes can improve product quality, reduce variability and enhance component design functionality. As the industry continues to search for ways to lower buy-to-fly ratios and reduce the amount of waste, near net shape processing will have a greater role to play.