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.

The Bombardier Challenger 650 aircraft is the standout medium-sized platform for several mission types. Governments, militaries and operators around the world choose it for its endurance, ample electrical power, industry leading dispatch and operational reliability and widest-in-class cabin. The Challenger 650 aircraft is highly prized for a variety of missions, including Intelligence, Surveillance and Reconnaissance (ISR), maritime patrol and medevac.

DeTect specializes in advanced radar and other sensor technologies. The company is the leader in bird radar technologies for real-time aircraft bird strike avoidance, and industrial bird control with over 1100 of its MERLIN bird radars delivered to the US, Canada, Europe, Africa and Asia. DeTect’s MERLIN Bird Detection Radar (BDR) system, introduced in 2003, is the first production model bird strike radar system and is the most advanced and widely used technology available for aircraft-bird strike risk management providing for real-time detection, tracking and alerting of hazardous bird and drone activity at commercial airports, military airfields, and military training and bombing ranges. The bird radar is proven, operational technology with systems installed worldwide for aviation safety and environmental applications. The radar has a documented record in reducing bird strikes, increasing safety, and reducing aircraft damage at both military and commercial airfields MERLIN is also the only bird radar system to have been evaluated and certified for real-time, tactical flight safety use by the US government (NASA and the US Air Force) and is the only bird radar approved for and in use at a commercial airport control tower under national flight safety standards. The system is a full True3D™ radar and has the highest update rate of any BDR system (4+ times per second). MERLIN can optionally be delivered as a dual-function bird and drone detection radar (BDR-DDR), risk alerting and interdiction system. The counter-UAS DDR upgrade can be added to a MERLIN BDR at any time as an upgrade that includes the drone classification software and radiofrequency (RF) detectors to detect RF and WiFi controlled drones and locate their operators

Modular and scalable, our Ground Combat Indoor Trainer’s (GC IDT) multiple configurations cover a rich variety of weaponry, including realistic small arms, support and anti-tank weapons. Highly realistic and durable replica weapons, a lifelike virtual weapons simulator and incredible accuracy combine to further enhance your troops.

This is the UAV launchers capable of launching the fixed-wing UAVs even on mountainous terrain, field, ships without sufficient runways to take off. It is designed to be the most powerful and easy to operate to take off the fixed-wing type UAVs of various specifications(Take-off weight, Take-off speed, and allowable G-force) into the air. It provides an interface that standardizes the shuttle for any type of unmanned aviation vehicle, and is easy to mount and to avoid take-off interference. A specially designed and manufactured hydraulic actuator is used to fully cope with the take-off weight of the aircraft, and a proprietary accumulator to allow a wide range of launch speed control. And multiple pulleys are equipped to ensure acceleration performance.

The growing digitalization of defense operations, calls for communication systems that support much higher capacity and speed than traditional ones at the operative level. Teams demand rapidly deployable and flexible communication systems that can easily adapt to the changing needs of forward operations. By integrating commercial networking technologies, the Nokia Banshee deployable Radio brings an answer to this challenge. Delivering maximum 5G throughput and extended range through multiple frequencies and power options, it empowers troops to operate securely over a private dual 5G/LTE bands network.

Model-Based Systems Engineering (MBSE) is a methodology that integrates design, analysis, and verification activities throughout the system lifecycle using architecture models. By modeling requirements, functions, structure, and behavior, MBSE supports consistent and informed decision-making. Ansys SAM (System Architecture Modeler) supports the latest system modeling language, SysML v2, and enables both graphical and textual modeling, real-time collaboration, and model management. Ansys ModelCenter integrates various engineering tools and builds automated workflows, enabling what-if simulations and trade studies. By connecting architecture models with simulation models, it supports consistent design analysis and requirements validation using a single source of truth (ASoT).

Inserts are used in the aerospace industry in lightweight sandwich panels and are then bonded. The panels can then be screwed or various components can be fastened. However, the manual process has several disadvantages: Enormous expenditure of time for the manual filling of several thousand inserts, high material waste due to relaxation of the material, and high material costs through the use of cartridges. ViscoTec can map the filling process automatically. The dispensing process is absolutely precise. A significant amount of material can thus be saved. In addition, material can be supplied from large containers, which in turn lowers purchase prices. Another important advantage: As a rule, no new specifications have to be made since no changes are made to the actual process.