All units are equipped with a microprocessor-based MPCU controller that manages diagnostics, protection, and optional energy consumption monitoring systems. EAR rectifiers are trusted across ground support zones, hangars, and field operations.

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.

It is designed to be suitable for difficult environments and can be applied to high torque and angle control. Applications are Missile defense, Torpedoes, Anti-drones system, Underwater drones.

EMCORE’s SDI170 IMU is designed as a performance-compatible inertial system that is form, fit, and functional with a legacy RLG-based IMU product, but with superior overall performance, versatility, and a significantly higher MTBF (Mean Time Before Failure) rating over ruggedized environments. The tactical performance of the SDI170 IMU is based on EMCORE’s mature, proven, dependable and accurate quartz MEMS inertial sensor technology in our SDI500 tactical-grade IMU. EMCORE’s quartz technology enables repeatable high-volume production of precisely machined sensor structures combined with the inherent large signal output and thermal stability of quartz materials. 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.

[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.

Input : 24VDC Output : 270VDC N+1 System

Precision Molded LWIR lenses using Chalcogenide glass "High-Volume & Cost Effective Manufacturing" High performance Diffractive-Aspheric LWIR(@8~12μm) lenses Athermalized Fixed Focus: FL 8.1, 15, 18mm / F# 1.0 High Efficiency AR(Anti-Reflective) Coating Technique for LWIR Applications: Thermal Imaging and Thermography

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.