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 FOR-10T/R supports Base configurations (including 10 Taps) and enables long-distance transmission of image signals via optical fiber, along with RS232 control signals and CC1~4 trigger signals. These signals are transmitted to the PC. This product supports transmission distances of up to 2 km, and by replacing the optical module, even longer distances can be achieved.  Fully supports the Camera Link interface (Area/Line Scan).  Supports Base (including 10 Taps) configurations (CC1~4, RS232, 10 Ports (Taps), LVAL, DVAL, FVAL).  Supports pixel frequency from 20 to 85 MHz.  Maximum transmission distance: 2000 m.  Enables lossless transmission.  Supports all external full-duplex RS232 communication speeds on a single port.  Features a locking DC power jack (Molex).  Camera link Connector Type : SDR connector.

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.

Manpack RF Jammer Systems provide protection to personnel against remote-controlled explosives. These systems create a protective shield through RF broadcasting and neutralize threats activated by radio, wireless telephones and wireless remote-controlled devices. Backpack-type RF Jammer Systems can be carried easily on the back and with the push-pull apparatus. Continuous broadband operation Programmable Structure Self-test capability DDS technology Control from hand terminal Module selection Malfunction warning VSWR warning Personnel protection through RF-proof textiles

Developed as Korea’s first hydrogen-and-battery hybrid propulsion system, this next-generation eco-friendly aircraft uses electric batteries for take-off and hydrogen fuel cells for cruise flight, achieving a new standard in sustainable aviation. Recognized as a world-first intellectual property, this model also became the first hydrogen hybrid Advanced Air Mobility (AAM) aircraft in Korea to receive Special Airworthiness Certification from the Ministry of Land, Infrastructure and Transport in 2024.

A VGA (640×480) LWIR (8–12 µm) uncooled micro-bolometer module with 12 µm pixel pitch and NETD ≤ 50 mK, paired with an F1.0, 10.7 mm EFL lens delivering H42° / V31.5° / D52.5° FOV. It streams at 30 Hz in either UVC (USB-C, 5 V) or GMSL1 (FAKRA, 12 V), with power consumption < 1.9 W. The compact, lightweight housing (30×30×58.9 mm for UVC; 30×30×70.9 mm with FAKRA for GMSL1; IP65; −40 °C to 85 °C) makes it well-suited for autonomous vehicles, UAVs, and security systems, providing reliable day/night thermal perception of pedestrians, animals, and objects in adverse weather.

Based on GaN, Si RF, and GaAs processes, Advance RF provides integrated solutions from chip design to modules and systems. We supply high-performance, highly reliable RF products for wireless infrastructure, satellite communications, automotive electronics, industrial measurement, and aerospace. Advance RF's product line consists of GaN, GaAs, and Si RF-based products, and in various configurations, covers a wide frequency band from DC to 100 GHz. Advance RF provides high-performance RF solutions optimized for a variety of applications, and its broad product portfolio allows for flexible design responses to customer needs. We have a rapid development cycle and stable mass production capabilities that enable rapid response to new sampling. Based on our own assembly plant, we maintain a development and mass production system capable of handling all aspects of customization, modularization, and reliability testing in-house.

Manpack RF Jammer Systems provide protection to personnel against remote-controlled explosives. These systems create a protective shield through RF broadcasting and neutralize threats activated by radio, wireless telephones and wireless remote-controlled devices. Backpack-type RF Jammer Systems can be carried easily on the back and with the push-pull apparatus. Continuous broadband operation Programmable Structure Self-test capability DDS technology Control from hand terminal Module selection Malfunction warning VSWR warning Personnel protection through RF-proof textiles