The Glenair next-generation STAR-PAN NG ecosystem incorporates a range of new capabilities in direct response to requests from JTACs, special operations forces, mission commanders, and other military specialists. Design innovations in STAR-PAN NG have resulted in higher current-carrying capabilities, greater versatility in power input support, and real-time plug-and-play USB device integration. The STAR-PAN NG hub and cable series offers a number of interface improvements and circuit board innovation.

Its compact and robust design, coupled with a choice of analog, digital, and digital RS-232 outputs, makes the DSP-3000 the most versatile fiber optic gyro available and an ideal solution for guidance and stabilization, low-cost IMUs, integrated GPS/INS, and AHRS. Highlights EMCORE’s mature all-fiber optical circuit for exceptionally low noise (ARW) EMCORE’s proprietary E•Core polarization-maintaining fiber Robust, modular design housed in a package roughly the same size as a deck of playing cards Technology Details DSP Technology EMCORE’s DSP electronics improve FOG performance in critical areas such as scale factor and bias vs. temperature, scale factor linearity, and maximum input rate. EMCORE’s exclusive DSP design is covered by multiple patents* and overcomes the limitations of analog signal processing, eliminating temperature-sensitive drift and rotation errors. *This product is covered by one or more patents, including U.S. Patent #6,429,939, “DSP Signal Processing for Open Loop Fiber Optic Sensors.” Feature Options Two Versatile Variants If you need a compact FOG with a powerful high-speed RS-422 interface with 1000 Hz asynchronous output, consider the DSP-3100 FOG. If you require a true RS-422 interface and a 1000 Hz synchronous output in a durable, shielded package, take a look at the DSP-3400.

It is an UAV recovery system that lands a fixed-wing UAV even in mountainous terrain where there is no sufficient runway for landing. The UAV is damping through a net mounted on the vehicle and lands on an air-cushion mat. It has the advantage of being easy to deploy in places where vehicles can enter and exit. But the type of the aircraft capable of stable landing is limited.

The SBC6511 Rugged Single Board Computer(SBC) from Abaco Systems features the new high performance, highly integrated Intel® Xeon® E processor (‘Coffee Lake Refresh’). Powered by Intel® Xeon® W processors, offering robust computational power. • Supports up to 64 GB DDR4 SDRAM with ECC and up to 256 GB (or in some variants up to 480 GB) NVMe SSD storage • Offers high-throughput networking: Dual 40 GbE data-plane (KR4 “fat pipes”) • Features the Xilinx® Zynq® UltraScale+™ MPSoC FPGA (ZU7EG) for enhanced security

Active phased array fire control radar (AESA) for aircraft A fire control multi-function radar (MFR) that can simultaneously detect, identify, and track multiple targets, including in the air and on the ground, and has SAR and NCTR functions. Aircraft (fighter)-mounted AESA radar is a core sensor for fighter jets to perform day/night/all-weather multiple missions. It operates in multiple modes such as air-to-air/air-to-ground/air-to-sea/support mode, and acquires ground images and air/ground in electronic warfare situations. It is essential mission equipment for fighter jets that detects/tracks multiple targets and supports guided missile guidance and gun shooting.

Our commercial aerospace AGSE products are relied upon by aviation companies around the world to keep their aircraft serviced and flying. The test and servicing equipment we engineer and distribute are key to the success of commercial aviation.

In collaboration with Hanwha Systems, we developed and optimized a Transformer-based AI model for ship and aircraft detection on embedded platforms. Targeting NVIDIA Jetson Orin AGX, the project utilized the MSAR (640×640) dataset along with large-scale training databases built from public sources. The RT-DETR model, currently under review, was optimized through hardware-friendly design, Int8 quantization, and specialized inference acceleration. As a result, the solution achieved up to 5x faster inference speed while maintaining accuracy, reaching 20% of NVIDIA TensorRT performance. This demonstrates the ability to deliver reliable, real-time detection capabilities in resource-constrained embedded environments, enabling next-generation defense and surveillance applications.

A next-generation Advanced Air Mobility (AAM) aircraft currently under development, designed with a separable upper platform and lower mission module structure. The interchangeable lower modules can be configured for passenger transport, cargo delivery, or reconnaissance missions, offering exceptional operational flexibility across various applications. As a large-scale platform, it embodies the future of modular air mobility, enabling rapid mission conversion, efficient maintenance, and cost-effective operation for both urban and regional air mobility sectors.