30 juin 2020 | International, Aérospatial

La gendarmerie acquiert dix Airbus Helicopters H160

Les forces aériennes gendarmerie (FAG) acquerront dix hélicoptères H160 et deviendront ainsi les premiers opérateurs étatiques de l'appareil, après les marins français, qui utiliseront quatre H160 loués.

Air & Cosmos du 29 juin 2020

Sur le même sujet

  • What the Army’s TITAN program means to multidomain operations

    11 juin 2020 | International, C4ISR

    What the Army’s TITAN program means to multidomain operations

    Nathan Strout For a little more than one year, Brig. Gen. Rob Collins served as the program executive officer for Intelligence, Electronic Warfare and Sensors (IEW&S), where he was responsible for ensuring the soldier can detect, recognize and identify the enemy. Collins' vast portfolio included airborne and terrestrial sensors, position, navigation and timing devices, biometric solutions, and the TITAN ground station program, which will take data from aerial, terrestrial and space sensors to distribute essential data to shooters. The officer has a long career working in this arena: he previously served as project manager for the Army's Distributed Common Ground System and before that as product manager for the Warfighter Information Network-Tactical (WIN-T) Increments 2 and 3. On June 1, Collins officially took over as the new head of the Army's Program Executive Office – Command, Control and Communications (Tactical) where he will oversee the Army's network modernization efforts and work with the network cross functional team at Army Futures Command. In May, during his final days at PEO IEW&S, Collins talked to C4ISRNET's Nathan Strout about his approach to acquisitions, how the Army fits into Joint All Domain Command and Control, and the legacy he'll leave at the program office. This interview has been edited for clarity and length. C4ISRNET: How has your office helped the Department of Defense's shape its approach to Joint All Domain Command and Control? COLLINS: Enhancing deep sense and linking sensor to shooter is fundamental to our Army multi-domain operations concept, and really, the future of large-scale ground combat operations. And specifically for our PEO, we've been active partners in JADC2 efforts, working closely with our network (cross functional team) and our PEO C3T partners and the Assured Position Navigation and Timing cross functional-team in particular and the ISR task force at large, which is led by the G2. We're working on integrated architectures, multi-functional sensors that are integrated within the network for both [data] transport and mission command, and really solutions that are tailored to meet the unique requirements of our Army ground force. And when I say that, [I meant that they are] really at scale and they can meet the mobility requirements of our ground force. We operate at a scale and at an expeditionary mobile fashion which makes the Army a little bit unique. I'll tell you the collaborations that we've embarked upon with the [program officers] really assisted in some common design principles and components to assist in interoperability and really enabling sensor to shooter. Most recently within the PEO, we really helped the Army with some deep sensing ground stations — TITAN circuits if you will — that participated in some sensor to shooter threads in a training exercise [outside the continental United States]. So that really informed our approach. Across the PEO moving forward we've identified a lot of collaborative areas for experimentation demonstrations, tech maturity and really focused in on sensor integration and really data — how do we share data best across the battlefield? C4ISRNET: From the outside, it seems like TITAN will be an essential piece to the entire JADC2 concept, especially for the Army. How are you approaching redundancy and survivability to that system? COLLINS: TITAN is certainly a significant focus area in the modernization effort. It's a key component for our deep sense capability and really being scalable and expeditionary as an intelligence ground station and supporting commanders across the multi-domain operations battlefield framework. And we're really looking at TITAN to be kind of a LEGO approach that can be tailored based on the echelon it supports. And yes, one of the tenets is that it's going to leverage a multi-layered approach, a robust set of nodes from space, from high-altitude aerial to terrestrial sensors and assist with target nominations and link fires, command and control, informed by all the multi-disciplines of intelligence. And really as it connects all these various feeds, hundreds of thousands of intelligence feeds, it's going to employ artificial intelligence and machine learning to rapidly synthesize that information into meaningful info at the speed of battle —sometimes what we say is time can almost become a weapon in and by itself. Part of the analysis is taking a look at primary and alternate communications, what we call PACE, as part of the design, and I'll tell you TITAN is going to consist of a number of assured communications capabilities designed in the PACE plan, from Beyond Line-of-Sight communications, common tactical network components, direct downlinks, software-defined radios, and other IT and non-IP options that really span the gambit of the security domain. So we understand the criticality of PACE and it's one of these that we'll work closely with our network and APNT CFT partners as we continue to refine and define the concept. C4ISRNET: Speaking more broadly, a key function of JADC2 is being able to network with the other services and pull in their information to your shooters. When you look to the other services, what are the platforms, networks, or developments that you're excited to see feed into TITAN and other Army systems? COLLINS: We're always looking for opportunities to leverage national and other mission partner information, and that can span a number of sense capabilities, certainly within space. We certainly watch all things that are going on within low Earth orbit, capabilities that will provide a lot of opportunity. Across the joint force there are a number of areas — certainly within the Air Force — that have the ability to do deep sense with aerial platforms at altitude, so we watch that closely. And I would just tell you, even in the commercial arena even as far as the geospatial information there is a lot of collect capability. TITAN is really adopting an open systems architecture kind of baked in from the beginning [where it can take data from multiple sources], whether it's a [science and technology] effort — which could come from the Army or another agency — for intelligence warning capability or detect/assess/decide-type capability, or if it's leveraging a mission or national partner capability as I mentioned for deep sense, or really even adopting a commercial capability like geospatial collect or adopting a high performance data platform. C4ISRNET: Leaders at the Space Development Agency frequently note that the Army is the biggest customers for data collected from space. Can you speak a little bit about how you're looking at their architecture and tying into their transport layer? COLLINS: At least on the ISR side, we work closely with many of our partners as we look at opportunities to be able to leverage investments that they're making into the space sense capability, and certainly some of the things we have to be conscious of are the responsiveness to our tactical command. If they have intelligence requirements [we need to be able] to provide those back so we can get the persistent stare or the on demand access that we need for the tactical war fight. We certainly are also aware as we push that information down, some of the impacts that it may have on the Army networks that often operate on disconnected, intermittent, limited bandwidth environments, so to the extent that we can do processing as far forward at the point of collect and sense so we can only distribute the information that's absolutely necessary, we're working those concepts to do that. And that's where the artificial intelligence and machine learning comes into play. C4ISRNET: How have acquisitions changed over the last few years? From the outside we've seen a lot more usage of Other Transaction Authorities across the Department. What is your thinking on OTAs and other acquisition vehicles? COLLINS: We have really adapted our acquisitions — now more than ever — using more agile and more tailored acquisition approaches. Each endeavor, each capability that we go to pursue, often has a unique set of circumstances such as the technology maturity, the types of requirements, the types of things that we need to integrate—even our intellectual property approaches. Now more than ever, we've got multiple pathways on the acquisition approach that we can pursue: tailoring traditional, pursuing mid-tier, there's now software pathways, and there's always quick reaction and engineering change proposals to existing programs. So there's a number of different approaches, and I would tell you, too, our ability to involve soldiers in the operational feedback and operational perspective in the process is also kind of new and something that we've really underscored as part of the process. That starts not only from the requirements process, but how we include them in our source selection to assessing soldiers' hands-on kit and providing that feedback. OTA is just another tool that we have at our disposal. Certainly, if we need to do a little bit more maturation of prototypes prior to finalizing requirements, the OTA does offer an opportunity to more quickly pursue those prototypes in advance of transitioning into a more traditional FAR-type approach. I think there's a lot of flexibility and we're starting to do our critical thinking to decide how we approach each acquisition, because each acquisition and capability is unique. I'll tell you the other thing that we're really doing too is—where appropriate—exercising a DevOps or DevSecOps type of approach, and really that's where you bring material developer, combat developer, user, interoperability certifier, tester, and even to the extent the accrediter for those approaches, and they're all collectively together so you do things in parallel and you can dramatically speed up the process. Those are a number of things that we are really using at our disposal to move both more rapidly but also more efficiently and effectively. C4ISRNET: How do you incorporate smaller, nontraditional vendors that can bring in solutions? How do you bring more people into the fold, especially in tech hubs like Silicon Valley? COLLINS: We've got a lot of footprints in a lot of these technical hubs ... I would tell you that we've also done a tremendous amount of industry outreach even within the portfolio. I think in my tenure, in about a year I've probably done close to almost 200 industry engagements, and that spans from small, medium and large. And we're continuously trying to encourage and build relationships beyond just the traditionals. It is probably one of the advantages of the OTA that we've got, to be able to attract non-traditionals. I think there's other opportunities that we've got within Small Business Innovative Research-type initiatives that we've pursued, and then also CRADAs, the Cooperative Research and Development (Agreements). So we kind of span the gamut of that and I'll tell you we've got a pretty healthy teaming relationship between us and the [cross functional teams] to be able to get out there and attract that type of non-traditionals that really have a lot of the innovative and forward thinking ideas that we want to bring into our Army. C4ISRNET: We know a lot of the programs at places like PEO IEW&S take years to develop, with multiple PEOs overseeing and influencing different platforms. As you finish out your tenure, what are the milestones, programs you're proud of? COLLINS: First and foremost, I'll depart extremely proud of the people and the mission that the PEO IEW&S portfolio has accomplished and continues to accomplish. I'll tell you one of the unique things about our portfolio is about 50 percent of our programs support overseas operations, and so we do a significant amount of investment of things that are going on abroad. Much of our Army is deployed and so for that I'm extremely proud. I'll tell you the other thing — I think we have established a healthy culture that is ready, that is resilient and adaptive to change. And I think that has certainly been one thing that I'll be proud of, that I think will be a lasting legacy within the organization. We kind of walked in focused on a couple basic attributes. First and foremost, people and leadership was one. Two, exercising acquisition discipline. Three, integrating our kits so it can collectively operate and inform on the battlefield. And then four, really working with our partners and stakeholders. I think in each one of those areas we've made tremendous progress and really established a lot of momentum. Some of the major programmatics moving forward ... the Terrestrial Layer System, I think we've made some good progress there. Missile Defense and Space Systems set the conditions for our future aerial deep sense capability and really tightened kind of the major deep collect and nesting in with a lot of collecting in space and with our national mission partners. And then all of that data coming down to the foundational component are probably some of the big areas where we've established a lot of positive, irreversible momentum that will allow us to move forward on our Army modernization front. C4ISRNET: And as you move over to PEO C3T, what are you excited to tackle there and what lessons will you bring with you from PEO IEW&S? COLLINS: Well, I must admit that I am a signal officer and so I am excited to return to my roots as a network professional. And so I do find very much the network (to be) an exciting endeavor, and so I'm looking forward to getting back and contributing with the team. And I think what I would certainly take with me is that ... I have a better appreciation of the types of information, the types of data, the types of intelligence ... that need to traverse our networks, the type of demands that it puts on the network, the types of speed of service and quality of service and performance that are required to support those users of the network. So I think that's one of the key things that I'll take with me as I get ready to move over and be part of the C3T team, which I'm very excited (about). I've been very thankful for the experience here at the IEW&S team— a phenomenal group of professionals — and I'm excited to continue my Army mission. https://www.c4isrnet.com/battlefield-tech/it-networks/2020/06/09/what-the-armys-titan-program-means-to-multidomain-operations/

  • Naval Ship Management awarded contract to sustain Australian LHDs

    7 décembre 2018 | International, Naval

    Naval Ship Management awarded contract to sustain Australian LHDs

    The Australian Defence Force (ADF) has awarded Naval Ship Management (NSM) Australia, a 50/50 joint venture between engineering group UGL and Babcock, an AUD1.5 billion (USD1.1 billion) contract to support and sustain the Royal Australian Navy's (RAN's) two 26,800-tonne Canberra-class landing helicopter dock ships (LHDs) and their 12 associated amphibious landing craft for up to 15 years. The contract is for an initial five years, with the expectation of two further five-year extensions, Babcock announced in a 3 December statement, adding that its share for the first five years amounts to AUD250 million. The joint venture, which won the partnering agreement with the ADF in a competitive process, will begin to sustain and support these vessels in July 2019. Full article: https://www.janes.com/article/84973/naval-ship-management-awarded-contract-to-sustain-australian-lhds

  • USAF Errantly Reveals Research On ICBM-Range Hypersonic Glide Vehicle

    19 août 2020 | International, Terrestre

    USAF Errantly Reveals Research On ICBM-Range Hypersonic Glide Vehicle

    Steve Trimble The U.S. Air Force agency that manages the service's nuclear arsenal has started researching enabling technology for an intercontinental-range, hypersonic glide vehicle (HGV), according to a document that was published briefly in error on a public website. Although the document shows a U.S. nuclear weapons agency is researching HGV technology, senior Pentagon officials say there has been no change to a policy that “strictly” limits the emerging class of hypersonic gliders and cruise missiles to non-nuclear warheads. A request for information (RFI) published on Aug. 12 by the Air Force Nuclear Weapons Center asks companies to submit ideas across seven categories of potential upgrades for intercontinental ballistic missiles (ICBMs) designed with a “modular open architecture.” The Air Force often describes the future Ground Based Strategic Deterrent ICBM as featuring a “modular systems architecture,” in contrast with the aging Minuteman III, which does not. Among the seven items on the upgrade list, the Air Force called for a new “thermal protection system that can support [a] hypersonic glide to ICBM ranges,” according to the RFI, which is no longer publicly available on the government's procurement website. The RFI appears to have disclosed information that was not meant by the Air Force's nuclear weapons buyers to be made public. Each of the seven items listed in the RFI's “scope of effort” for ICBM upgrades included a prefix designation of “U/FOUO,” a military marking for information that is unclassified, but for official-use only. Although not technically a classified secret, information marked as “FOUO” usually is withheld from the public. The RFI was removed from beta.sam.gov on Aug. 17 after Aviation Week inquired about the document with the Air Force and the Office of the Secretary of Defense (OSD). The Defense Department (DOD) has three different operational prototypes for HGVs in development now: the Air Force's AGM-183A Air-Launched Rapid Response Weapon, the Army's Long Range Hypersonic Weapon and the Navy's Intermediate Range Conventional Prompt Strike. Once fired from an aircraft, ground-launcher or submarine, all three are designed to strike targets with conventional warheads at intermediate range, which is defined as 1,500-3,000 nm by the official DOD Dictionary of Military and Associated Terms. But the Pentagon has no acknowledged plan to develop an HGV with a range beyond 3,000 nm and maintains a policy that “strictly” prohibits arming any such weapon—regardless of range—with nuclear warheads. The two-most senior staffers leading the hypersonic weapons portfolio reiterated that policy during a press conference on March 2. “Our entire hypersonic portfolio is based on delivering conventional warheads,” said Mike White, assistant director of defense research and engineering for hypersonic weapons. “Right,” agreed Mark Lewis, the director of defense research and engineering for modernization programs. “Strictly conventional.” The Pentagon has not changed the policy since March 2, said Lt. Col. Robert Carver, a spokesman for Lewis' office. “DOD is not developing nuclear-capable hypersonic weapons,” Carver said in an email. “There are common technology needs between the nuclear enterprise and hypersonic systems. Particularly in the area of high-temperature materials, we typically collaborate on the development of advanced dual-use materials technology. I will reiterate that our entire hypersonic program portfolio continues to be based on delivering conventional effects only.” Although the DOD upholds the conventional-only policy for hypersonic gliders and scramjet-powered cruise missiles, the source of the RFI raises questions, said James Acton, co-director of the Nuclear Policy Program at the Carnegie Endowment for International Peace. “The fact that [this RFI] is coming from the nuclear weapons center, it makes it sound an awful lot like this would at least be nuclear-armed or conceivably dual-capable,” Acton said. Although the RFI confirms research is underway, the DOD still has no acknowledged plan to proceed from basic research into the acquisition phase of an ICBM-range hypersonic glider, whether carrying a conventional or nuclear warhead. If the thermal-protection system technology is limited to research only, the RFI by the Air Force's nuclear weapons organization may not violate the DOD policy, which may apply only to fielded weapons. “DOD does a lot of research on a lot of different things and the vast majority of these programs never turn into an acquisition,” Acton said. “It could turn into something, but sophisticated observers recognize that it may not.” The DOD's conventional-only policy for maneuvering hypersonic weapons stands apart from other countries in the field. Russia, for example, has deployed the nuclear-armed Avangard HGV on the SS-19 ICBM. In February, the head of U.S. Northern Command, Gen. Terrence O'Shaughnessy, said in written testimony submitted to Congress that “China is testing a [nuclear-armed] intercontinental-range hypersonic glide vehicle, which is designed to fly at high speeds and low altitudes, complicating our ability to provide precise warning.” The DOD never has had an announced weapons development program for a conventional- or nuclear-armed, intercontinental-range HGV, but has experimented with air-launched gliders. The Hypersonic Test Vehicle-2 program by the DARPA attempted to demonstrate a range of 4,170 nm, but each experimental glider in two tests staged in 2010 and 2011 failed about 9 min. into a planned 30-min. hypersonic glide. The leading edges of an intercontinental-range HGV could be exposed to temperatures as high as 7,000K (6,726C) on reentry, then endure a prolonged glide phase compared to an intermediate-range system, said Christopher Combs, who researches hypersonic aerodynamics as an assistant professor at the University of Texas-San Antonio. “The bottom line is it's just crazy temperatures,” Combs said. “They're still not dealing with space shuttle or Apollo [capsule] temperatures, but it's still really hot.” The rescinded RFI, meanwhile, also may provide a rare glimpse into the Air Force's plans for the new ICBM developed under the Ground Based Strategic Deterrent (GBSD) program. Apart from the thermal-protection system for a hypersonic glider, the scope of effort in the RFI sought industry input on a variety of topics, including: • Fusing data from lower-fidelity, onboard sensors to improve guidance, navigation and control. • New navigation aids to correct inertial measurement unit drift on long-time-of-flight missions. • A lighter, smaller and more efficient “future fuze,” which also could “accept inputs from external subsystems.” • Radiation-hardening techniques for advanced microelectronics, such as a system on a chip or system in a package. • Improved computer hardware and software, including artificial intelligence algorithms. • A more secure architecture and better security sensors for ICBM ground facilities. The Air Force plans to award the contract to Northrop Grumman by the end of the month to launch the engineering and manufacturing development contract for the GBSD program. Northrop remained the sole bidder for the program to deliver more than 600 new ICBMs to the Air Force after a Boeing-led team withdrew from the competition last year. https://aviationweek.com/defense-space/missile-defense-weapons/usaf-errantly-reveals-research-icbm-range-hypersonic-glide

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