By supplying the highest level of products and services based on careful quality control management, our products have been recognized by various customers.

Given the risks to U.S. armed forces personnel and other assets, shielding defense community computers, comm systems, and electronic platforms with outdated "Defense in Depth" cyber security is less than optimal. Today, state-sponsored and other cyber attacks can often bypass traditional security defenses, remain undetected for weeks or months, and be hard to track once noticed.

CI Systems사의 는 I-레벨 광학 테스트 및 실험실 테스트를 수행하는 데 이상적인 장비입니다. 소형이기 때문에 휴대 가능하며, 컴퓨터화되어있어 차량에 설치할 수 있습니다. 열화상 장비 및 가시광 센서에 대한 종합적인 테스트를 현장에서 할 수 있어 D-레벨 시설 없이도 테스트를 효율적으로 수행할 수 있습니다. 콜리메이터, 방사선원(블랙바디, 가시광 광원), 타깃 휠(수동 또는 전동)로 구성되며, CI Systems의 CTE 소프트웨어와 연동 시 간편하고 객관적이며 반복성을 극대화한 테스트가 가능합니다. 환경 변화에도 높은 정확도를 유지하며, 환경 챔버 테스트, 생산 라인 테스트, 현장 테스트 등 다양한 환경에서 활용할 수 있습니다. The CI Systems ILET (Intermediate-Level Electro-Optical Tester) family of test systems is ideally suited for performing I-level optical tests and laboratory testing. Portable, compact and computerized, ILET testers can be installed on a vehicle, bringing comprehensive testing of thermal imagers and visible light sensors to the field, reducing the need of D-Level facilities. The basic ILET configuration includes a collimator, a radiation source (blackbody and/or visible light source) and a target wheel (manual or motorized). The ILET is easy to use when interfaced with CI Systems’ CTE software (optional), minimizing testing turnaround time and maximizing testing objectivity and repeatability. The testers retain their accuracy over a wide range of ambient temperatures. Thanks to the ILET’s outstanding features and versatility, it is useful in a variety of applications such as testing in environmental chambers, testing on production lines and testing in the field..

Global Wideband Connectivity for Mission Success Honeywell’s JetWave MCX satellite communications system delivers the world’s most advanced high-speed SATCOM capabilities needed for the most demanding mission profiles. It enables global in-flight broadband data connectivity on nearly any Ka-band network – including Inmarsat’s Global Xpress (GX) network, Wideband Global SATCOM (WGS), and other commercial and military Ka-band networks – making it truly network-agnostic for the most extensive global coverage. Built on proven, high-speed JetWave technology, JetWave MCX utilizes a wider frequency band (29-31 GHz Tx and 19.2-21.2 GHz Rx), offering access to commercial and military Ka-bands globally. And the dual polarity configuration provides increased bandwidth in high-traffic areas while meeting high-data uplink requirements that military and government operators require. JetWave MCX is designed with “future-proofing” in mind, exceeding current connectivity requirements while enabling expanded customer connectivity needs in the future. For the unique requirements of military and government operators, JetWave MCX can enable a wide variety of mission-critical applications, such as en-route mission communications, real-time weather, in-flight video conferencing, large file transfer, in-flight mission planning and briefings, ISR video transmission, and secure communications. We offer specialized data packages for ISR missions, making use of the increased upload speed capabilities. Single-IP address network-switching capabilities enable seamless connectivity for users globally, while access to resilient modem waveforms offers additional security and jam-resistance in hostile environments. JetWave MCX’s high-bandwidth capabilities can transform the aircraft into an “airborne communications node” by receiving data simultaneously from multiple sources – such as UAVs or ground forces – then processing and amalgamating the data for airborne Command and Control or for transmission to ground control. No matter the mission profile, JetWave MCX offers the resiliency, bandwidth, and network-agnostic capabilities needed to enable mission success.

Model-Based Systems Engineering (MBSE) is a methodology that integrates design, analysis, and verification activities throughout the system lifecycle using architecture models. By modeling requirements, functions, structure, and behavior, MBSE supports consistent and informed decision-making. Ansys SAM (System Architecture Modeler) supports the latest system modeling language, SysML v2, and enables both graphical and textual modeling, real-time collaboration, and model management. Ansys ModelCenter integrates various engineering tools and builds automated workflows, enabling what-if simulations and trade studies. By connecting architecture models with simulation models, it supports consistent design analysis and requirements validation using a single source of truth (ASoT).

Designed to meet US army specifications 360 degree soft armor protection Single-handed 4-wire cutaway Antibacterial/FR treated padded spacer mesh system Semi-rigid, lace-adjustable, external MOLLE cummerbund PALS webbing for MOLLE attachment Zipper for MV Assaulter's Zip-On Back Panels Increased structural integrity and reduced rear deformation Compatible with our entire accessories line Soft armor included Composition Material : 500D Cordura® + ARAMID / PV® Size : Small : 8.5" x 11.5" Plate Pocket Medium : 9.3" x 12.3" Plate Pocket Large : 10" x 13" Plate Pocket XLarge : 10.9" x 13.8" Plate Pocket Colors MC (MultiCam) BMC (Black MultiCam) BK (Black) RG (Ranger Green) CYT (Coyote Brown)

Wing shells, side shells and fuselage sections are usually made of carbon fibre composites and glued together during the production process. With many components, a groove or an open edge remains after the bonding process, which must be filled or sealed. A modified two-component epoxy resin is often mixed and then applied manually. This often entails long production times and complex quality controls. Equally high material costs due to the processing of materials from cartridges. ViscoTec defies short pot life and materials that are difficult to handle: Thanks to a coherent overall system from material removal to material application, this process can be automated. The two components are taken separately from cartridges, hobbocks or drums and fed via hose lines to a two-component dosing system. Only at the very end of the process they are mixed in a static mixing tube and applied to the substrate (e.g. via a nozzle). The process is controlled and monitored by pressure sensors.