Key Features - Frequency Range: 8.5 - 10GHz - RX Noise Figure: 3.0dB - RX Small Signal Gain: 21 dB - TX Small Signal Gain: 27dB - TX High Pout: 39dBm - TX High PAE: 37% Chip size: 2.9x2.5x0.1mm  

ㅇKey Features - Low Dielectric Permittivity / Low Weight / Low Cost - Possible Customization - Operating Temperature : -40℃∼ +900℃ - Random Vibration : 6.1Grms , 20 Hz to 2000 Hz, 3 axis - Shock : 20 G (Minimum Peak) Sawtooth , 3 axis - Altitude : Up to 160,000 ft (0.929 mbar) ㅇQuality and Certification - MIL-STD-810G

Phased Array Multi Function Antenna including Radome

Yuan Thor platform serves as the computational core for autonomous systems. Powered by NVIDIA® Jetson Thor™ (128GB LPDDR5X, 2560 CUDA cores, 96 Tensor cores), it delivers up to 2070 FP4 TFLOPS of AI performance for real-time sensor fusion, data analytics, and edge decision-making. Thor supports 16× MIPI CSI-2 cameras, audio in/out, CAN Bus, UART, I²C, SPI, and GPIO, enabling precise, low-latency responses for robotics, industrial automation, and autonomous vehicles.

Weibel’s Doppler 3D tracking radars are designed for precise measurements of free-flying objects such as projectiles, artillery rounds, and rockets. The systems are highly effective for detailed debris tracking, range safety tests, missile tests, and space launches. Weibel’s tracking radars are phased array X-band CW, MFCW and FMCW radar systems consisting of state of the art phased array Doppler radar antennas, high performance pedestals, real-time multi-object tracking processors and state of the art waveform generators, all controlled from the operator console.

Brazing is bonding two or more pieces of metal by means of flowing a filler metal between the joint interfaces at a temperature below the melting point of the base metal. The filler metal, upon cooling to the solid state, forms a strong metallic bond throughout the joined area. Through Dip-Brazing, RF Systems manufacture 1. Brazed Antennas 2. Brazed Waveguides 3. Brazed Divider / Combiner

The L-band 8-channel filter bank receiver module is equipped with eight internal filter bank channels, enabling improved reception performance by isolating specific sub-bands within the receive frequency range. A 100W limiter at the input stage protects the receiver from high-power signals, and the module offers a low noise figure of 3.0 dB or less. The input P1dB for the receiver is -20 dBm, and the module features a built-in path self-test function.

Our LiDAR uses a custom-designed laser that separates 1064 nm and 532 nm wavelengths from a single source, with two dedicated receivers capturing each set of data independently. Inside the system, the linear laser beam is refracted at a 10-degree angle through a prism to enable circular scanning. An RF module is also integrated for real-time equipment status monitoring. From circuit board design to component selection, every part of this system was developed in-house by multiple institutions. As a result, we have successfully eliminated reliance on foreign technology.