[Cutting by water jet] Micro water jet cutting: The micro water jet enables a refined process to be carried out in precision cutting. This high-precision technology reduces the jet diameter by a factor of 5 and makes water jet cutting more precise by a factor of 10. The micro water jet achieves a cutting accuracy of +/- 0.01 mm and a positioning accuracy of ±0.005 mm. The proven advantages of the cold cutting process remain unchanged. In the pure water process, the cutting width was reduced to 0.2 mm in the abrasive process for hard materials such as nickel-based alloys and titanium. The new technology controls the cutting process and manipulates the cutting path depending on the contour and speed enabling a highly precise cut. Standard waterjet cutting: Water jet cutting is highly efficient and at the same time less severe than other cutting techniques. Low process forces and thermal loads prevent bending or melting. We can cut filigree delicate contours from practically all nickel alloys and titanium alloys. Using our standard process we can cut a range of shapes and dimensions according to customer requirements and drawings and achieve tolerances of +/- 0.1 mm or +/- 0.2 mm.

Side shells, wing shells and fuselage structures are made of CFK, GFK, aluminium or organic sheets and get connected during production. Sealants are used to seal the connection surfaces. These are usually two-component polysulphides, which have to be applied in different geometries. Typical applications are: Fillet sealings, oversealings, interface sealings and seal caps. Due to their properties, polysulfides require very low pressure and shear handling. The compressibility of the fillers contained in the medium requires a high level of expertise and a coherent overall system from material removal to application. With manual application, long production times and high material ejection have a negative influence on the complete process. Complex quality standards are required due to the risk of human error. With the in-house developments of the vipro-DUOMIX from ViscoTec, this process can be depicted fully automatically. The individual nozzle design is also adapted to each application. The result is a controlled dosage in compliance with the specifications and at the same time the highest repeat accuracy.

The SDI170 IMU is designed for demanding, mission-critical, rugged environments and ideal for continuous use applications with no wear-out components, highly linear accelerometer performance and longer life compared to competing alternatives. It is constructed with EMCORE’s latest generation quartz gyros, quartz accelerometers, and high-speed signal processing to achieve outstanding precision performance. The solid-state quartz sensors and hermetically sealed IMU construction provide reliable MTBF and a 20-year operating and storage life. Continuous Built-in Test (BIT), configurable communications protocols, electromagnetic interference (EMI) protection and flexible input power compatibility make the SDI170 IMU easy to use in a wide range of higher-order integrated commercial and defense system applications.

REDCOM Laboratories, Inc. is a U.S. company that specializes in the development of advanced strategic, operational, and tactical communication solutions with a focus on interoperability, flexibility, and ease of use. REDCOM has a long history of successful deployments at the highest levels of government, in telephone networks around the globe, and in leading Department of Defense (DoD) communications programs for the Army, Air Force, Marines, and Navy.

LLC-4000 is a cutting-edge 4K low-latency video encoder/decoder purpose-built for tactical operations, reconnaissance, and situational awareness in demanding environments. It delivers reliable real-time video transmission over narrow-bandwidth satellite links and tactical radio systems, enabling uninterrupted communication during critical missions. Engineered with a compact form factor and advanced compression technology, the LLC-4000 is well-suited for remote and mobile deployments where bandwidth is limited. Proven in operational use, the system has been successfully deployed by units of the Japan Ground Self-Defence Force, including amphibious rapid deployment and communications brigades, supporting a wide range of military field operations.

An electric motor that supplies power to the actuator for opening and closing the KF-21 canopy.

The Haigh-Farr family of rugged Blade antennas is available in frequencies ranging from UHF to upper C-band. Since 1972, our blade antennas have a demonstrated reliability of use in high-performance airborne applications. In addition, they are used extensively in ground-based vehicles such as race cars, trucks, tanks, and motorcycles, to name a few. 60XX & 61XX Series: Our 60XX & 61XX Series blade antennas have quasi-uniform null-free hemispherical gain patterns and may be provided in either straight or rounded blade configurations. 60XX and 61XX Series blade antennas are available in standard and high powered versions. With sufficient airflow, our standard blades handle an average power of 25 - 30W CW and our High Powered blades can handle an average power of 80W CW. These blade antennas share a common footprint with varying height. Multiband: Haigh-Farr Multiband blade antennas utilize identical materials and construction as our 60XX & 61XX series blade antennas with additional bandwidth. UHF: Haigh-Farr UHF blade antennas provide coverage down to 380 MHz and up to 470 MHz in two unique form factors. Our 6300-X series of blade antennas utilize identical materials and construction as our 60XX & 61XX series blade antennas in the larger blade structure required at UHF-band. Our P/N’s 16230-XXX and 16400-XXX are low profile, mechanically robust designs that can be custom tuned to meet discrete UHF frequencies, with an option to add thermal protection for high temperature environments.

The Ku-band Amplifier Module is a low-power amplifier designed to amplify the LO (Local Oscillator) frequency in the Ku-band. It provides a gain of at least 17 dB and an output level of 13 dBm or higher. The module includes a built-in monitoring function for output signal detection.