TESCAN SOLARIS is a fully automated sample prep platform optimized for advanced devices with sub-10 nm features. It integrates the Triglav™ SEM, AutoTEM Pro™ software, and OptiLift™ nanomanipulator to enable hands-free, repeatable lamella prep in planar, inverted, or top-down geometries.

HF Kit is a fully integrated high-frequency (HF) communications package built around the proven Rolatube mast technology and the PTS Raven sloping wire antenna. Designed to meet the demands of tactical, emergency, and field-based operations, this system enables long-range HF communications in a compact, lightweight format. The core of the kit is Rolatube’s 5m composite mast—made from a patented rollable material that provides excellent rigidity when deployed but can be rolled into a compact form for transport. This mast supports the deployment of the Raven antenna, a versatile and field-tested solution for HF communication, ensuring coverage across a wide range of frequencies. Whether used by military units, first responders, or remote industrial teams, the System 75: 5m HF Kit offers plug-and-play simplicity, quick setup, and reliable signal performance in the most demanding environments. Its portability and ease of use make it an ideal choice for teams requiring effective HF capability without the burden of traditional bulky infrastructure.

SSPA 기술을 접목한 고효율 선박용 레이다 및 공항감시용 레이다 시스템 국산화 개발을 통해 다양한 레이다 제품의 RF 핵심기술을 독자적으로 확보하였습니다.

The member companies of GIFAS employ 195,000 people in their aerospace activities in France. These figures do not include temporary workers or the total number of suppliers and subcontractors; this field is estimated to be responsible for 350,000 jobs in France. Our sector is constantly in demand.

High-power laser weapons targeting objects at 0.5 ~ 4.0km distances require optical components with sub-nm wavefront error precision. Our Company has successfully developed aspherical polishing and high-power laser coating technologies for Ø300 ~ 550mm optical components through defense project experiences. measurement technology 1) Laser Induced Damage Threshold(LIDT) - The evaluation to confirm the durability of optical components is called LIDT (Laser-Induced Damage Threshold), which is defined as "the maximum amount of laser radiation incident on an optical component when the expected probability of damage is zero" (ISO 21254). In other words, it represents the maximum intensity or power of laser that an optical component can withstand, making it a critical requirement in laser weapon systems. - Our company has established LIDT measurement technology and in-house facilities developed in accordance with ISO 21254 standards. When compared with LIDT test results from domestic and international companies during laser weapon system development, we have demonstrated measurement technology and accuracy that meets or exceeds industry standards. While overseas companies require more than one month for verification processes, our company can immediately provide reliable data through our LIDT system. 2) Cavity Ring Down Spectroscopy(CRDS) - When the reflectivity is 99.997%, this may not present significant issues in low-power laser applications. However, in high-power laser components, even the 0.05% of light that passes through the optical mirror can cause problems in vulnerable parts of the system, including rear optical instruments, bonded lenses, and control cables. Therefore, measurement and evaluation methods for high-reflectivity optical mirrors are extremely important. - Currently, the transmittance and reflectance of optical components are generally measured using spectrophotometers, but measuring reflectance levels of 99.5% or higher is not possible with this method. CRDS (Cavity Ring-Down Spectroscopy) technology is required to achieve measurement resolution beyond that of spectrophotometers, and our company has established this system to measure the reflectance of various optical components. This is a critically important technology for responding to high-power laser weapon system development requirements.

Heat engine that converts combustion energy into mechanical energy. It consists of a compressor, combustion chamber, and turbine, and is widely used in aircraft propulsion.

This KF-21 fighter jet model is produced using advanced SLA (Stereolithography) additive manufacturing technology, providing both intricate detail and structural precision. Manufactured with industrial-grade ABS material, the model benefits from our fleet of six SLA machines, ensuring consistent quality and scalability for various production demands. Our in-house post-processing team delivers a wide range of finishing options, including custom color applications tailored to client specifications. Our company’s origins are rooted in expert prototype fabrication, and we have since evolved into a leader in additive manufacturing technologies. We support OEM production and prototype mock-up projects for diverse clients, building a reputation for technical excellence and collaborative development. The KF-21 model highlights our capabilities in precision model making, turning innovative designs into high-quality finished products.

We bring all our skills and expertise to bear in product development and in-service support in order to meet our customers' needs: 3D drawings and design Aeroelasticity Thermal, CFD analysis Static and dynamic analysis Electrical/hydraulic/mechanical system design Cost-optimized design, cost-benefit analysis Parametric experiment design Optimization techniques and algorithms Multiphysics modeling Concessions management: control plan, extension of concession, design engineering office, concession justification, impact analysis (FMECA, process/design change, etc.), definition of a repair program, updating of certifications Flight physics Configuration management Design, calculation and modeling Composite or metallic parts