The UH-60M OFTs will support networked training exercises, present various threat environments, and enable aircrews to undertake night-vision goggle training. The UH-60M high-fidelity cockpit moves on a six degree-of-freedom electric motion system, whereas a supplemental motion system simulates vibration associated with helicopter flight.UH-60M aircrews can view out-the-window computer-generated imagery through wide field-of-view and chin window visual displays. Its high-fidelity software simulates the UH-60M's engine, electrical, hydraulic, navigation, and communication systems, as well as aircraft survivability equipment. A physics-based blade element model, electrically driven servo flight control system, and cyclic and collective controls that replicate UH-60M cockpit control also contribute to the high-fidelity training environment.Next-gen fighters"Fifth-generation fighters require a high-density threat environment and increased simulation fidelity to truly challenge a pilot's ability to implement the full capability of aircraft systems," explains Todd Kortbein, vice president of business development for range systems at DRS Training and Control Systems in Fort Walton Beach, Fla.Military and aerospace customers are requesting a combination of live training and "constructive" and "virtual" simulation, Kortbein says. "Constructive simulation allows combat pilots to fly and fight against targets [airborne and ground] that appear real on aircraft seekers and sensors, but in reality are provided by onboard simulations that stimulate appropriate sensors and HUD/cockpit symbology for the pilots to maneuver, fire, and train against." This simulation and training method increases efficiency by providing more intercepts per mission and reduces fuel consumed per combat training mission, he says."In this environment, adversary aircraft are replicated and displayed purely via simulations, giving the warfighter an extremely cost-effective way to train," Kortbein continues. The same virtual simulation technology can be employed in advanced trainer aircraft using multifunction displays; training aircraft don’t require real sensors [e.g., real radars] to perform mission training, thereby saving acquisition costs. "Virtual simulation," he explains, enables real aircraft to fly against pilots that are training in ground-based flight simulators via a data link/ground network. This method enables the pilot in the flight simulator to experience increased training fidelity because he/she is flying against a real maneuvering aircraft.The global positioning system (GPS) enables training anywhere in the world at any time, which leads to the name "rangeless training," Kortbein adds. Advanced airborne processors and digital simulations deliver a high-fidelity simulation performance that closely replicates actual weapon performance. Additionally, 100 players or more can train simultaneously in the same mission without the risk of compromising mission tactics to hostile forces, thanks to advanced data link networks and improved security features.Mil-aero customers are requesting encryption and multiple levels of security (MLS), Kortbein reveals. "Low observable platform technology performance, for example, cannot be easily obtained and analyzed by hostile forces when mission data is encrypted. MLS allows forces to train with friendly/coalition forces without providing 100 percent of their mission parameters to those same forces while they train together (certain parameters can be filtered/withheld from these forces). In this way, combat air forces of the world can train with allies, but not sacrifice all of their tactics/weapon capabilities to their allies."