Retour aux nouvelles

2 décembre 2019 | International, C4ISR, Sécurité

How the Defense Digital Service revamped Army cyber training

Earlier this year, the Defense Digital Service — the Pentagon's cadre of coders and hackers performing a short stint in government — finished the second phase of a pilot program to streamline cyber training for the Army.

The Army wanted to streamline two phases of cyber training: the Joint Cyber Analytics Course, or JCAC, which takes 27 weeks in Pensacola, Florida, and provides basic cyber training for joint forces that have no prior experience in cyber; and the more tactical training that happens at Fort Gordon in Georgia. Combined, the two phases take a minimum of 36 weeks.

To accomplish this, the Defense Digital Service, working with the Army Cyber Center of Excellence and a private vendor, built a course to conduct training in three months — everything a cyberwarrior needed to know from JCAC, said Clair Koroma, a bureaucracy hacker at DDS.

Phase two — which combines tactics involving hardware, offensive and defensive cyber, and networking — takes seven months. It excluded the classified course, Koroma added.

At this point, she said, DDS has transitioned all of its materials to the Cyber School, which will pick up the third phase of the pilot training, though DDS will still be available for assistance.

“The plan is that eventually the 17Cs, [who execute offensive and defensive cyberspace operations], will come to Fort Gordon on inception and do their entry and mid-level training at Gordon. They will run this as the course for those soldiers,” she said.

Koroma said success of the pilot will be measured from the operational world — evaluating the skill sets of the soldiers that graduate from the pilot program and comparing them to prior classes. Thus far, she added, no graduates from the pilot program have been overwhelmed in operations.

Students during the second pilot were also evaluated by senior leaders within the Army cyber community and commands where they might be assigned during their final project and presentation. Students needed to identify issues on the network and conduct an outbrief to these leaders.

“Senior leaders then got an opportunity to ask them questions,” Koroma said. “Every single person who was in that presentation said that they were impressed by the delivery of the students and the quality of the presentation that the students gave.”

In fact, Koroma said, there are two students she's aware of whose orders were changed at the conclusion of training because leaders who attended the presentation wanted them on their team.

https://www.fifthdomain.com/dod/army/2019/11/29/how-defense-digital-service-revamped-army-cyber-training/

Sur le même sujet

  • DARPA: Architecting a New Breed of High Performance Computing for Virtual Training Environments

    13 février 2019 | International, Autre défense

    DARPA: Architecting a New Breed of High Performance Computing for Virtual Training Environments

    The testing, evaluation and training of future military systems will increasingly take place in virtual environments due to rising costs and system complexity as well as the limited availability of military ranges. Virtual simulators are already used to augment real-world training for modern fighter aircraft pilots, and they hold significant promise for addressing the rigorous demands of testing and training AI-enabled technologies. Current simulated environments, however, rely on conventional computing that is incapable of generating the computational throughput and speed to accurately replicate real-world interactions, model the scale of physical test ranges or meet the technical requirements of more complex systems. “Virtual environments could significantly aid the military by creating the ability to test and train advanced radio frequency (RF) technologies 24/7/365 with high-fidelity models of complex sensor systems, like radar and communications,” said Paul Tilghman, program manager in DARPA's Microsystems Technology Office (MTO). “However, existing computing technologies are unable to accurately model the scale, waveform interactions or bandwidth demands required to replicate real-world RF environments.” To address current computing limitations impeding the development of virtual test environments, DARPA created the Digital RF Battlespace Emulator (DBRE) program. DRBE seeks to create a new breed of High Performance Computing (HPC) – dubbed “Real Time HPC” or RT-HPC – that will effectively balance computational throughput with extreme low latency capable of generating the high-fidelity emulation of RF environments. DRBE will demonstrate the use of RT-HPC by creating the world's first largescale virtual RF test range. The range will aim to deliver the scale, fidelity and complexity needed to match how complex sensor systems are employed today, providing a valuable development and testing environment for the Department of Defense (DoD). “While DRBE's primary research goal is to develop real time HPC that can be used to replicate the interactions of numerous RF systems in a closed environment, this is not the only application for this new class of computing. RT-HPC could have implications for a number of military and commercial capabilities beyond virtual environments – from time-sensitive, big-data exploitation to scientific research and discovery,” said Tilghman. To support the creation of RT-HPC and the DRBE RF test range, the program will focus on two primary research areas. One area will explore designing and developing novel computing architectures and domain-specific hardware accelerators that can meet the real-time computational requirements of RT-HPC. Existing HPCs rely on general-purpose computing devices, which either prioritize high computational throughput while sacrificing latency (i.e., Graphics Processing Units (GPUs)), or have very low latency with correspondingly low computational throughput (i.e., Field Programmable Gate Arrays (FPGAs)). DRBE seeks to overcome the limitations of both by creating a new breed of HPC hardware that combines the GPU's and FPGA's best traits. The second research area will focus on the development of tools, specifications and interfaces, and other system requirements to support the integration of the RT-HPC system and the creation of the virtual RF test range. These components will help design and control the various test scenarios that could be run within the range, enable the DRBE's RT-HPC to interface with external systems for testing, facilitate the resource allocation needed to support multiple experiments, and beyond. DRBE is part of the second phase of DARPA's Electronics Resurgence Initiative (ERI) – a five-year, upwards of $1.5 billion investment in the future of domestic, U.S. government and defense electronics systems. As a part of ERI Phase II, DARPA is creating new connections between ERI programs and demonstrating the resulting technologies in defense applications. DRBE is helping to fulfill this mission by bringing the benefits of domain specific processing architectures to defense systems. DARPA will hold a Proposers Day on February 13, 2019 from 9:00am to 5:00pm (EST) at 4075 Wilson Boulevard, Suite 300 Arlington, Virginia 22203, to provide more information about DRBE and answer questions from potential proposers. For details on the event, including registration requirements, please visit: http://www.cvent.com/events/darpa-mto-drbe-proposers-day/event-summary-69f231cef8814aa799cd60588b5dc9cf.aspx A forthcoming Broad Agency Announcement will fully describe the program structure and objectives. https://www.darpa.mil/news-events/2019-02-11

  • How Much Does It Cost To Insure A Russian-Made Stealth Drone?

    8 juin 2020 | International, Aérospatial

    How Much Does It Cost To Insure A Russian-Made Stealth Drone?

    David Axe The Russian defense ministry has insured its new stealth drone and its control station for 1.4 billion rubles. That's $20 million. And it's probably worth every ruble. The S-70 Hunter-B, a jet-powered flying-wing drone, perhaps is the most significant new warplane to emerge in Russia since the Su-57 stealth fighter that first flew in 2010 and now is in low-rate production. The Hunter-B first appeared in January 2019 on the ground at an airfield in Novosibirsk in southern Russia. It flew for the first time on Aug. 3, 2019. The Sukhoi-designed drone zoomed over the airfield for more than 20 minutes at a maximum altitude of around 2,000 feet, according to TASS, the state news organization that also reported the value of the robot's insurance. It's easy to dismiss the Hunter-B as a developmental dead-end, owing to Russia's poor track record when it comes to fielding unmanned aerial vehicles and the satellite infrastructure that helps controllers on the ground direct a UAV's flight. But the likelihood of Hunter-B eventually entering front-line service with the Russian air force is "big," said Tom Cooper, an author and independent expert on Russian military. "The Russian military is running multiple UAV-related projects," Cooper said. "Thus the emergence of this project is perfectly normal." "At this point, it is going to be the heaviest and fastest UAV [in Russian service] if and when fielded,” said Samuel Bendett, an analyst with the Center for a New American Security in Washington, D.C. Bendett estimated the Hunter-B's weight at around 20 tons and its top speed at more than 600 miles per hour. The drone is in the same class as a manned lighter fighter. The Russian air force reportedly is considering assigning Hunter-Bs as robotic wingmen for Su-57 pilots, extending the coverage of an Su-57 flight's sensors and adding to the manned pilots' firepower. On Sept. 27, the sole Hunter-B prototype flew in formation with an Su-57. The U.S., Japanese and Australian air forces are developing their own wingman drones. But Sukhoi has its work cut out for it completing the Hunter-B. “A a host of aerodynamic, electronic and high-tech issues need to be worked out,” Bendett said. And to be stealthy, the drone needs a new engine layout. In its current configuration, the Hunter-B's AL-31F motor projects from the rear of the airframe, creating a major source of radar reflectivity. Sukhoi has tinkered with a new version of Hunter-B that buries that engine deep inside the airframe, in the same way that Western firms do with their own stealth drones. As the high-stakes development continues, Sukhoi at least can take comfort that its drone is fully insured. https://www.forbes.com/sites/davidaxe/2020/06/05/how-much-does-it-cost-to-insure-your-russian-made-stealth-drone/#5a88c68023aa

  • U.S.A.F. Research Lab Plans to Use Reusable Rockets as Intercontinental Cargo Carriers

    8 juin 2021 | International, Aérospatial

    U.S.A.F. Research Lab Plans to Use Reusable Rockets as Intercontinental Cargo Carriers

    U.S.A.F. Research Lab Plans to Use Reusable Rockets as Intercontinental Cargo Carriers

Toutes les nouvelles