Digital mission engineering tools connect every stage of the engineering product lifecycle, from initial design to operation. They enable reality-based 3D simulation across multi-domain environments such as air, space, land, and sea by incorporating high-resolution terrain, satellite orbits, RF and radar systems, and sensor environments to accurately replicate real mission conditions. With accurate dynamics-based physical models at the core, these tools provide quantitative analysis of relative positioning between systems, changes in altitude and attitude, line-of-sight availability, and communication link status. Users can predict and evaluate mission elements such as sensor operations, communication links, platform maneuvers, and orbit optimization through scenario-based simulations.

◾ Drive Motor : Electric motor installed in the Explosive Ordnance Disposal (EOD) Robot to supply power for driving. ◾ Flipper Motor : Electric motor that supplies power for driving the flipper of the Explosive Ordnance Disposal (EOD) Robot.

The EPNR2000 is a backpack-style, portable base station integrating CU-DU-RU, with a 5G Core and application (IP-PTT) server built in. All 5G network elements are combined into a single unit, allowing it to operate as a standalone base station (IOPS), making it an ideal system for providing communication in areas inaccessible by vehicle, such as disaster sites or military operations.

The Bombardier Global 6500 aircraft is the go-to choice for the most demanding specialized missions around the world. Governments, militaries and operators choose this aircraft for its ideal combination of performance, reliability and flexibility, and because it is highly adaptable to outer mold line (OML) manipulation. The Global 6500 aircraft has class-leading power for mission equipment, over 18 hours of endurance, advantageous maintenance intervals and ample cabin space for workstations, patient transport and mission equipment.

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 high-reliability DC-DC onverters brings SynQor’s field proven high-efficiency synchronous rectifier technology to the Military/Aerospace industry. SynQor’s innovative QorSeal® packaging approach ensures survivability in the most hostile environments. Compatible with the industry standard format, these converters operate at a fixed frequency, have no opto-isolators, and follow conservative component derating guidelines.

To reduce aircraft development lead-time, Safran Engineering Services is specialized in quick design and engineering in full autonomy. Teams provide global loads for ground and flight maneuvers, follows the evolution of weight and center of gravity for aircraft components and support sales campaigns with weight & balance evaluation.

Supports non-destructive inspection of aircraft composite skin structures and is composed of a piezoelectric layer sensor, data acquisition equipment, and damage analysis software. Utilizes piezoelectric sensors to generate Lamb-wave and acquire signals, collecting data to accurately detect and assess composite damage. Visualizes inspection results on display such as damage location, size and index. - POD Accuracy: 1 inch 90% or more - POD Precision : Position error within 30 mm - 64 channels / 230 path reference detection time within 10 minutes - Sensor : Resonance resistance less than 400kΩ - Sensor : MIL-STD-810G - Sensor : RTCA DO-160 Section 23.0 - DAQ : x128 Piezoelectric sensor interface