France turns to AI for signals analysis in underwater acoustics war

On the same subject

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  October 7, 2019 | International, Aerospace, Naval, Land, C4ISR, Security

  Contract Awards by US Department of Defense - October 04, 2019

  NAVY United Technologies Corp., East Hartford, Connecticut, is awarded a $325,185,212 cost-plus-incentive-fee, fixed-price-incentive-firm contract to provide material and support equipment for depot maintenance facilities, non-recurring sustainment activities, supplies, services and planning for depot activations as well as two F135 full-scale high fidelity mockup engines and four modules for test cells in support of the F-35 Lightning II Program. Work will be performed in Oklahoma City, Oklahoma (43.75%); East Hartford, Connecticut (20%); Windsor, Connecticut (3.5%); Cherry Point, North Carolina (3.25%); Fairbanks, Arkansas (3%); Miramar, Florida (2.25%); Indianapolis, Indiana (1.5%); various locations within the continental United States (2.75%) and various locations outside the continental United States (20%), and is expected to be completed in January 2023. Fiscal 2019 aircraft procurement (Air Force, Marine Corps and Navy), non-Department of Defense (DoD) participant and foreign military sales (FMS) funds in the amount of $309,357,445 will be obligated at time of award, none of which will expire at the end of the current fiscal year. This contract combines purchases for the Air Force ($142,457,377; 44%), Marine Corps ($50,633,162; 16%), Navy ($36,962,858; 11%); non-DoD participants ($86,780,595; 27 %) and FMS ($8,321,220; 2 %). This contract was not competitively procured pursuant to 10 U.S. Code 2304(c)(1). The Naval Air Systems Command, Patuxent River, Maryland, is the contracting activity (N00019-20-C-0005). Lockheed Martin, Rotary and Mission Systems, Baltimore, Maryland, is awarded a $75,742,842 cost-plus-fixed-fee modification to previously-awarded contract (N00024-18-C-2300) to exercise options for the accomplishment of class services for the Littoral Combat Ship (LCS) program. This option exercise is for class services for the LCS program. Lockheed Martin, Rotary and Mission Systems will provide expert design, planning and material support services for LCS-class ship construction. Work will be performed in Hampton, Virginia (31%); Moorestown, New Jersey (27%); Washington, District of Columbia (22%); and Marinette, Wisconsin (20%), and is expected to be completed by October 2020. Fiscal 2015 shipbuilding and conversion (Navy) funding in the amount of $7,138,265 will be obligated at time of award and will not expire at the end of the current fiscal year. The Naval Sea Systems Command, Washington, District of Columbia, is the contracting activity. ARMY BAE Systems Land & Armaments L.P., York, Pennsylvania, was awarded a $48,000,000 modification (P00033) to contract W56HZV-17-C-0001 for long lead material associated with the build of the Self Propelled Howitzer, Carrier-Ammunition Tracked vehicle. Work will be performed in York, Maine, with an estimated completion date of Jan. 31, 2023. Fiscal 2019 other procurement, Army funds in the amount of $48,000,000 were obligated at the time of the award. U.S. Army Contracting Command, Warren, Michigan, is the contracting activity. https://www.defense.gov/Newsroom/Contracts/Contract/Article/1981471/source/GovDelivery/

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  July 28, 2020 | International, C4ISR

  US Army begins experimenting with new network tools

  Andrew Eversden WASHINGTON — The U.S. Army's combat capabilities development team kicked off a monthslong experiment last week to test emerging technologies that could be added into the service's tactical network. The third annual Network Modernization Experiment at Joint Base McGuire-Dix-Lakehurst in New Jersey started July 20 and ends Oct. 2. NetModX provides an opportunity for the Combat Capabilities Development Command's C5ISR Center — or Command, Control, Communication, Computers, Cyber, Intelligence, Surveillance, and Reconnaissance Center — to perform field tests with emerging capabilities that have largely been tested in the lab. Field tests with simulated threat environments, as opposed to lab tests, are important because technologies react in unexpected ways due to realities like different types of trees or terrain. This year's theme for NetModX is mission command and command-post survivability, which means participants will focus on technologies that could be fielded in the Army's Integrated Tactical Network Capability Set '23 and Capability Set '25 — future iterations of network tools that the Army plans to deliver to soldiers every two years. In this year's test, the C5ISR Center is testing communications capabilities that allow for distributed mission command systems across the battlefield “and wider area,” said Michael Brownfield, chief of the future capabilities office at the C5ISR Center. “We've learned by watching our enemies fight, and we know that to survive on the battlefield, No. 1, they can't be able to see us,” Brownfield told C4ISRNET in an interview. “And No. 2, we have to distribute our systems across the battlefield to give them multiple targets and multiple dilemmas in order to survive.” NetModX is also testing network resiliency capabilities that could be delivered as part of Capability Set '23. Preliminary design review for the capability set is scheduled for April next year. To test the effectiveness of the resiliency projects the center developed in the lab, the C5ISR Center created a “state-of-the-art red cell” that attacks the network using enemy's tactics, techniques and procedures, according to Brownfield. The goal is to make sure the technology can withstand electronic attacks and allow for continuous operations in contested environments when in the hands of deployed soldiers. “What resiliency means to us is the network bends, it doesn't break,” Brownfield said. “And the commanders have the information they need and the coordination that they need to fight the battle.” A modular radio frequency system of systems is undergoing tests, and Brownfield says it will “revolutionize” the fight on the battlefield. The system automatically switches between primary, alternate, contingency and emergency, or PACE, radios by sensing if radio frequencies are being jammed. The system then responds by automatically switching radio channels to allow for seamless communications in a contested environment. Currently, “it's kind of hard to switch to alternate comms when the person you're talking to is on their primary, not their alternative comms,” Brownfield said. “And the process is very slow. It's human-driven.” Now, the automatic PACE system senses the environment in milliseconds, he said. At last year's experiment, which focused on network transport capabilities to support precision fires for multidomain operations, the center experimented with radios that could flip to new channels on their own, while launching brute force and other more sophisticated attacks against the radios to see how much stress they could handle before passing data became impossible. This year will be a little different. “This year, we're pairing different radios together and see how they can work to actually change the type of modulation schemes that we use to maneuver in cyberspace around for continuous operations while under enemy attack and under contested electronic warfare conditions,” Brownfield said. One of the top priorities for this year's experiment is allowing for projects leaders to bring their technology into to the field, no matter what stage of development they are in, to be tested in an “operationally relevant environment,” Brownfield said. The team then collects data on how the technology performs and puts it into a database where it can be queried to answer specific performance questions. “So we can ... ask the database questions like, ‘What was my latency with these two radios at this point in time,' and start to understand the true metrics of how the systems performed in the field,” Joshua Fischer, acting chief of systems engineering, architecture, modeling and simulation at the C5ISR Center, told C4ISRNET. He added that those involved are also looking at network throughput. https://www.c4isrnet.com/yahoo-syndication/2020/07/24/us-army-begins-experimenting-with-new-network-tools/

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  July 10, 2020 | International, Aerospace

  General Atomics to conduct test flights of SeaGuardian drone in Japan

  BY BEN SAMPSON ON 9TH JULY 2020 General Atomics Aeronautical Systems is to validate its SeaGuardian unmanned drone for use by Japan's Coast Guard Service in mid-September in a series of test flights. The long endurance Remotely Piloted Aircraft Systems (RPAS) SeaGuardian is a variant of the MQ-9 Reaper drone and features lightning protection, composite materials, and sense and avoid technology. The 79 ft (24 m) wingspan aircraft can fly for up to 40 hours at up to 50,000 ft. The validation flights, which will be conducted in partnership with Asia Air Survey (AAS) are expected to run for approximately two months and will include support from the Japan Maritime Self Defense Force (JMSDF) at its Hachinohe base in Aomori Prefecture. The flights aim to validate the wide-area maritime surveillance capabilities of RPAS for carrying out the Japan Coast Guard's (JCG) missions, such as search and rescue, disaster response, and maritime law enforcement. According to the JCG, the flight validation will be conducted in accordance with “the policy on strengthening maritime security systems,” using drones to perform maritime wide-area surveillance using new technology. “We're pleased to support the JCG's goals of validating SeaGuardian's maritime surveillance performance,” said Linden Blue, CEO of General Atomics Aeronautical Systems. “We know there is a need in Japan and worldwide for affordable, long-endurance airborne surveillance in the maritime domain.” The SeaGuardian system features a multi-mode maritime surface-search radar with inverse synthetic aperture radar (ISAR) imaging mode, an automatic identification system (AIS) receiver, and high definition – full motion video sensor equipped with optical and infrared cameras. This sensor suite enables detection and identification of surface vessels over thousands of square nautical miles. The aircraft's Raytheon-supplied SeaVue surface-search radar system provides automatic tracking of maritime targets and correlation of AIS transmitters with radar tracks. General Atomics Aeronautical Systems' SeaGuardian and SkyGuardian RPAS are designed to operate in all-weather and are built to achieve Type Certification based on STANAG (NATO standard) airworthiness compliance. https://www.aerospacetestinginternational.com/news/defense/general-atomics-to-conduct-test-flights-of-seaguardian-drone-in-japan.html