The GCS is an all-in-one portable Ground Control System designed to command swarm UAVs in diverse field environments such as military operations or outdoor performance venues. Depending on the operator’s mission environment and purpose, three type options are offered: HardCase, Shelter, and Tablet. The HardCase GCS is optimized for outdoor operations, featuring a 1,000 cd/m² high-brightness touch monitor with anti-glare and anti-fingerprint (AG + AF) coatings for enhanced usability. Dual monitors are equipped as standard for multi-UAV control, with the option to expand to additional displays. It integrates a high-capacity internal battery, 220 VAC power output, real-time system monitoring, and an automatic cooling system, enabling stable operation without additional setup in any environment. Furthermore, multiple interface ports—including USB, USB-C, and HDMI—provide broad compatibility with diverse devices.

This miniaturized system allows, depending on the desired configuration, to move very precisely between 1 and 3 sets of lenses over a stroke of several centimeters. The design has been optimized to ensure perfect alignment of the lenses and to minimize their tilt throughout the movement. This optomechanical system mainly consists of high-precision standard MPS and FAULHABER modules, such as brushless or stepper motors, ground ball screws with double nuts and linear ball bearings. It is particularly recommended for focusing a laser over a long distance, for example for the guidance of unmanned flying objects or for communication between flying objects. The number of lens sets, lens size and stroke can be configured at will.

Discover the superior technology and reliability of the SBC3513L, crafted to provide unparalleled performance and security for critical applications. • Powered by Intel® Xeon® W processors, offering robust computational power. • Extensive I/O options including Ethernet, USB, and DisplayPort for versatile connectivity. • Supports Time Sensitive Networking (TSN) for precise and reliable network communication.

Orbit’s TT&C ground stations antenna must function flawlessly in order to provide a narrow beam width link in one-time single opportunity, flight test event. Add this factor to the turbulent weather that is often present at the ground station locations, and you are looking at a formidable hurdle. Orbit provides fixed, transportable, and portable antenna systems that feature auto-track, RSSI-track and GPS track tracking modes, unsurpassed tracking accuracy and durability to deliver the stable connection required for dependable data throughput. Our stabilized T&T antenna systems work in extreme temperature conditions (-40°C to 55°C) and in rough weather, for example, at base stations that are close to the ocean or on high mountain ranges.

A cost-effective and reliable EO/IR solution designed for unmanned platforms, combining compact design with strong performance. The system integrates QVGA/VGA-class infrared sensors and 2–20 megapixel EO cameras, providing versatile options to meet different operational requirements. o Infrared (IR) Sensor: QVGA/VGA resolution, optimized for detection and recognition in short-to-mid range surveillance o Electro-Optical (EO) Module: 2MP–20MP visible light cameras with high-resolution imaging, adaptable to multiple mission profiles o Design Philosophy: Lightweight, compact, and robust for integration into unmanned aerial vehicles (UAVs), unmanned surface vehicles (USVs), and ground robotics o Key Value: Balances price competitiveness, system reliability, and modular scalability for mass deployment

Electric motor used to drive the joint (WT axis) of the Explosive Ordnance Disposal (EOD) Robot.

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  

The SCVPX-SSGM (Synchronous Signal Generation Module) generates synchronization signals to coordinate the operation and timing of various radar system components. It can generate synchronization signals using an internal clock, receive an external clock, or regenerate synchronization signals from external sources to maintain precise timing cycles. A device driver program is required for configuration and operation, and the Linux driver can be downloaded from Seedcore’s product page. Drivers for other operating systems can be developed upon request. This module is deployed in the L-SAM multi-function radar system, providing precise timing synchronization across mission-critical subsystems.