11 octobre 2023 | International, Aérospatial, Sécurité

Belgium agrees to send F-16s to Ukraine, but not before 2025

Such a decision will need to be confirmed by the country’s next government following elections in May.

https://www.defensenews.com/air/2023/10/11/belgium-agrees-to-send-f-16s-to-ukraine-but-not-before-2025/

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  • SAIC Wins $49.5M U.S. Navy Contract for Saudi C4ISR Upgrades, Refurbishment

    13 octobre 2020 | International, Naval, C4ISR

    SAIC Wins $49.5M U.S. Navy Contract for Saudi C4ISR Upgrades, Refurbishment

    Seapower Staff MCLEAN, Va. — The U.S. Navy awarded Science Applications International Corp. a $49.5 million single-award task order to continue to provide the Royal Saudi Naval Forces support services for command, control, communications, computers, and intelligence, surveillance and reconnaissance (C4ISR) upgrade and refurbishment, the company said in an Oct. 12 release. The work will take place in the Kingdom of Saudi Arabia. Under the cost-plus fixed-fee task order, awarded as part of the SeaPort-NxG contract, SAIC will leverage repeatable solutions such as engineering, design and integration, integrated product support and sustainment capabilities on critical networks. These networks fulfill the Naval Information Warfare Systems Command's requirement for Program Executive Office C4I International Integration Program Office (PMW 740) Royal Saudi Naval Forces (RSNF) In-Kingdom of Saudi Arabia (KSA) Support Services. “For more than 40 years, SAIC has supported the Navy's mission to help maintain the Royal Saudi Naval Forces' C4ISR capability modernization, engineering and logistics,” said Jim Scanlon, SAIC executive vice president and general manager of the Defense Systems Group. “As a leader in technology integration, SAIC is excited to continue its assistance to the Navy as it continues to build this strategic partnership with the Kingdom of Saudi Arabia.” SAIC will deliver solutions and services to include program management, systems engineering and integration, maintenance engineering, and integrated logistics for the modernization and refurbishment of RSNF systems. These services are enabled by SAIC's legacy of support to RSNF, and SAIC's investments in digital engineering and end-to-end logistics and supply chain solutions. The prime contract has a five-year base period of performance. https://seapowermagazine.org/saic-wins-49-5m-u-s-navy-contract-for-saudi-c4isr-upgrades-refurbishment/

  • Viasat to supply Britain’s future frigate with satellite communications tech

    3 novembre 2020 | International, Naval, C4ISR

    Viasat to supply Britain’s future frigate with satellite communications tech

    By: Andrew Chuter LONDON — Progress toward boosting the British Royal Navy's frigate numbers with a new class of ship continues to advance, with the Babcock International-led consortium contracted to build the warships adding on satellite communication supplier Viasat to its list of subcontractors. A deal to supply ultrahigh-frequency satellite communications for five general-purpose frigates being built for the Royal Navy has gone to Viasat UK, the company announced Nov 3. Viasat is based in the U.S. and was ranked No. 69 on Defense News' latest list of the top 100 defense companies around the world. Ultrahigh-frequency SATCOM is a mission-critical capability that will provide the Type 31 with beyond-line-of-sight, secure, integrated voice and data services. The deal is the latest in a sequence of contract awards by Babcock over the last few months. This time last year, the Ministry of Defence hired the firm to design and build a British version of the Danish Iver Huitfeldt-class warship. About 75 percent of the Type 31 subcontracts have now been awarded, and Babcock remains confident the program is on schedule despite problems presented by the coronavirus pandemic. The Viasat deal follows a recent announcement from BAE Systems that it had come to an agreement with Babcock to deliver two Bofors 40 Mk4 and one Bofors 57 Mk3 multipurpose gun systems per ship. BAE said its Karlskoga facility in Sweden will deliver the weapons in 2023 and 2024. All of the major supply chain contracts on Type 31 have been decided, including the Thales Tacticos-based combat management system; MTU main engines and diesel generators; Renk main reduction gearboxes; MAN Energy Solutions propellers and propeller shaft lines; and Raytheon Anschutz's warship-integrated navigation and bridge system. Babcock and its partners BMT, Fraser Nash, OMT and Thales — collectively known as Babcock Team 31 — are to start construction of the first 6,000-ton warship next year, with 2027 set as the year it's to enter service. A covered construction hall capable of holding two Type 31s is progressing at Babcock's Rosyth shipyard in Scotland, where the Royal Navy's two 65,000-ton Queen Elizabeth-class aircraft carriers were recently completed. All five of the new frigates are due to have been completed — at an average cost of £250 million (U.S. $324 million) per ship — by 2028 to replace aging Type 23 frigates. Babcock announced in August that it had weeks earlier successfully completed the preliminary design review of the entire ship. BAE is also building Britain's Type 26 anti-submarine warfare frigate. The company has a contract for the first three warships, with the Royal Navy having an eventual requirement for eight vessels. As for Viasat UK, the SATCOM contract is the second defense deal it has secured in the last few days. Last week the company announced that, along with CDW UK, it had been awarded a two-year technical innovation contract for command, control and communication support for a program known as Lelantos. The agile experimentation initiative is to empower the headquarters of NATO's Allied Rapid Reaction Corps in Gloucester, England, with superior decision-making, cross-domain integration and fast maneuver in a conflict. https://www.defensenews.com/industry/2020/11/03/viasat-to-supply-britains-future-frigate-with-satellite-communications-tech

  • For the US Navy, the future of shipbuilding (and warfare) is in the power plant

    14 janvier 2021 | International, Naval

    For the US Navy, the future of shipbuilding (and warfare) is in the power plant

    By: David B. Larter WASHINGTON — The U.S. Navy wants to buy a next-generation large surface combatant by the end of the 2030s, but its not being built for a new kind of sensor or weapon system. The newly dubbed DDG(X) is being built for power. The Navy has, of course, built ships around advancements in engineering systems before: Nuclear power or steam engines, for example, have led to big leaps in naval design. But the large surface combatant is being built around a significant challenge. Weapons systems of the future such as high-powered electronic warfare systems, laser weapons, and high-powered radars and sensors will put an uneven and sometimes even unpredictable load on a ship's power system. That's pushing the Navy toward an integrated power system, says Rear Adm. Paul Schlise. “We're going to incorporate an Integrated Power System that has the ability to power up the weapons and sensors of the future,” Schlise said during the Surface Navy Association's virtual annual symposium. “[That's] the key to the realm here. It's DDG-1000-like, in some respects in that it'll have that integrated power system, but the most important thing is including the space, weight, power and cooling — reestablishing those margins to incorporate future systems that are not yet mature. “There's a lot of promise in some of those systems, but that integrated power system is the key to incorporating those feature systems that we're looking at, that we think are going to be part of that class of ship.” What is an integrated power system? Mark Vandroff, a former senior director of the National Security Council and a retired Navy captain who was the program manager for the Navy's new DDG Flight III program, said it's a major break from the kind of system used on Arleigh Burke-class destroyers. “A major advantage of a ship with an integrated power system is that the power generated by any of the ship's engines can be used for either propulsion or electricity, rather than having engines solely dedicated to one or another.” On today's destroyer, and on the Ticonderoga-class cruisers, the ship has separate systems that power the twin propulsion shafts, which turn the ship's propeller and generators that work exclusively to power the ship. An integrated power system, similar to what is on the Zumwalt-class destroyers, uses all the ship's engines to make electricity that turns the propellers and powers the weapons and sensors. The integrated power system on Zumwalt is a new layout that uses advanced induction motors to produce up to 78 megawatts of electrical power, far more than any previous destroyer or cruiser. But the issue with the large surface combatant is a little more complicated than just producing a ton of power. What energy weapons or advanced electronics systems do is put a huge tax on the electrical system of a ship, often requiring more power than the ship is able to produce at one time. So while the integrated power system isn't new, the kinds of demands these new systems will place on the power grid meant to run everything is a new kind of challenge, said Matthew Collette, associate professor of naval architecture and marine engineering at the University of Michigan. Therefore, the Navy must figure out how to best store energy so it can be available to meet unpredictable demands. “The issue is, this is different than integrated electric propulsion, which we've had on cruise ships and offshore supply vessels for two decades at this point, and it works really well,” Collette said. “But on those ships, all the electrical loads are pretty well behaved: They rise and fall slowly, and there's no issues with the stability of the electrical system. “High-powered radars, high-powered electronic warfare, certainly rail guns, the lesser extent lasers — they all ask for power really quickly, faster than a mechanical generator can suddenly produce it. So now you have to think about whether [you] use batteries or flywheels or capacitors or other techniques to get the energy available on the timescale that the load needs.” It's not an insurmountable problem, and it is one the Navy has used elsewhere. The electromagnetic launch system on the Ford-class, which has had its share of technical problems, operates off a flywheel energy storage system. But the new power system already has Congress nervous, and lawmakers are pressuring the Navy to build a land-based engineering site to test out the power and propulsion system before getting too deep into the design work for the ship. Collette said that's a sensible approach, and that on the timeline the Navy is discussing, the technology should be sufficiently advanced to support the new class. “There's been a ton of work done on this, and I think it's certainly something that in the timeframe of a large surface combatant, I would expect would work,” he said. https://www.defensenews.com/digital-show-dailies/surface-navy-association/2021/01/13/for-the-us-navy-the-future-of-shipbuilding-and-warfare-is-in-the-power-plant

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