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December 30, 2024 | International, Land

Challenger 3 MBT prototypes 3 and 4 ready for British Army trials - Army Technology

Despite a planned spend of £1.3bn, the Challenger 3 MBTs will only be full operational for a decade before being retired.

https://www.army-technology.com/news/challenger-3-mbt-prototypes-3-and-4-ready-for-british-army-trials/

On the same subject

  • Army to award contract for GPS alternative by end of September

    September 15, 2020 | International, Land, C4ISR

    Army to award contract for GPS alternative by end of September

    Nathan Strout The Global Positioning System of satellites remains the prime source of positioning, navigation and timing for the military, but it's increasingly vulnerable as adversaries develop capabilities that can undermine the signal. Delivering capabilities that allow the war fighter to verify such data or replace it in a degraded or denied environment is a major problem that the Army now wants to solve. Col. Nickolas Kioutas — program manager for position, navigation and timing, Army Program Executive Office Intelligence, Electronic Warfare and Sensors — is leading the Army's efforts to develop anti-jamming and anti-spoofing technology and get it into the hands of war fighters as soon as possible. Kioutas and Director of the Assured PNT Cross-Functional Team Willie Nelson held a media roundtable Oct. 4 announcing the fielding of one such solution: the Mounted Assured Position Navigation and Timing System (MAPS). Kioutas sat with C4ISRNET Oct. 15 at the Association of the U.S. Army's annual conference to discuss MAPS, the Military Encrypted GPS Signal and what he would like to see from industry as he looks for assured PNT solutions. C4ISRNET: Your office recently announced that you fielded MAPS with 62 Stryker vehicles in the Army's 2nd Cavalry Regiment in Germany. What's next in the development of the MAPS program? COL. NICKOLAS KIOUTAS: We've got two generations right now that we're working with. Generation 1 is really an anti-jamming capability that we fielded to 2CR second cavalry unit in Germany just this last month, and we're looking to upgrade now to our Gen. 2 capability, which would add the spoof protection. Right now we're doing prototyping with the Gen. 2 and we're actually going to compete the Gen. 1. Hopefully, it can integrate some spoof protection, but we'll be competing the Gen. 1 against the Gen. 2 to ask, “Hey, is that really the right capability to go forward with,” and field a lot more. Obviously, we just fielded 62. We still have in the pipeline some fielding of Gen. 1 before we make that final decision. And then we'll field either Gen. 2, or we'll decide to go to a Gen. 3 and continue fielding more of the Gen. 1 with upgraded spoof capabilities. C4ISRNET: And what did you learn with the fielding of the Gen. 1 capability? KIOUTAS: It's great to get a chance to do a little bit of something before you have to do a lot of something. You kind of learn some lessons and figure out what did the soldiers really like? What did they have problems with? Where can we make those little tweaks that allow us to do really well when we go to do the much broader army. C4ISRNET: Are there lessons from MAPS that can be applied to DAPS? Where is that program now? KIOUTAS: We are learning from what we're doing. It's really a change in the construct of how we do acquisitions. Instead of having the one huge program that's been perfectly thought out, perfectly tested and built, and then we get it to the field and it's 10 years too late and it's really not what we want, we're doing more iterative learning steps. So, everything that we learn even on the MAPS side — [which] is very similar technology — will apply to the DAPS side. With DAPS we're also developing some prototypes. We've got three vendors right now that we're working with to give us early prototypes, get them to the soldiers, let them touch and play with them, tell us what they like and what they didn't like, and then we'll do an initial capability set. And then we'll decide, hey, was there something that we can do different, better and then upgrade? So, [we're] constantly going to try to do that approach. C4ISRNET: The Air Force is working to develop M-Code, a military-grade GPS code with anti-jamming capabilities. How does the eventual delivery of that impact the development of anti-spoofing capabilities in the here and now? KIOUTAS: M-Code is important. It's a much better capability than the existing Selective Availability Anti-Spoof Model, or SAASM. However, it's not the complete answer, and what I always say is PNT does not equal GPS, because it's not just about GPS capability. It's about layering technologies with each other in order to be able to operate in a denied or degraded environment. C4ISRNET: M-Code delivery may be a ways out, but a limited version called M-Code Early Use is supposed to be available in the near future. How does that interim solution factor into assured-PNT solutions being developed now? KIOUTAS: There's probably two answers to that. One is we are already working with the M-Code to put it into the MAPS Gen. 2, as well as the DAPS system. So, we're going to have M-Code from the get-go. The other thing is, the Army has really got to decide how many M-Code modules are we going to buy between now and say 2028, when we're really going to get the increment 2 M-Code capabilities. So, we've really got to project out how many systems are we going to buy, what are they going to look like, [and] there's three different vendors so which vendor do we need to buy [from]? C4ISRNET: Let's talk about the Army's need for a modular open systems architecture as you develop APNT capabilities. How does that inform your acquisitions strategy? What do you want industry to know? KIOUTAS: For a modular open systems architecture, what we're really going to is [a] change from the previous way we did acquisition. Again, we're not going to do the one megalithic program that is perfectly designed and takes 10 years to build and then it gets to the field too late, we need a modular open systems architecture that allows us to be agile, that allows us to constantly take what industry is developing and integrate it to the solution to pace the threat. We're working with the CMOSS architecture to be able to put a bunch of different cards for our MAPS, maybe Gen. 3 capability. We're also working on a similar approach to the DAPS program. So, again, [we're] always looking for, not what is the best integrated solution, but what are the best individual solutions that we can take from across industry back to breed and integrate together. C4ISRNET: We're speaking at AUSA and around us many companies are showing off their assured PNT solutions. What are some of the APNT solutions you're excited to see from commercial industry? KIOUTAS: That's a good question. I don't really know the answer until we do some more testing. Of course, software-defined things are always great. The problem is there's sometimes problems with security and cybersecurity of those systems. And, so, there's probably a balance between do you really want a lockdown solution, where do you want that lockdown solution and where can you accept some risk and have a little more flexibility in software. https://www.c4isrnet.com/thought-leadership/2019/11/29/the-armys-position-on-next-generation-navigation/

  • DARPA head resigns, moving on to industry

    December 17, 2019 | International, Aerospace, Naval, Land, C4ISR, Security

    DARPA head resigns, moving on to industry

    By: Jill Aitoro WASHINGTON — Steven Walker, the 21st director of the Defense Advanced Research Projects Agency (DARPA), today announced his resignation, effective Jan.10, 2020, Defense News has learned. Walker will move on to a position in industry, though a DARPA spokesman did not reveal where. DARPA deputy director Peter Highnam, a former director of research at the National Geospatial-Intelligence Agency, will assume the role of acting director until a permanent director is appointed. Highnam is also a former director of the Intelligence Advanced Research Projects Activity (IARPA). DARPA is responsible for driving development of emerging technologies for use by the military. Walker and Vint Cerf, inventor of the Internet, spoke to Defense News about that role in March, and how DARPA can support engagement with the tech community. Among the key efforts launched under Walker's tenure at DARPA was development and fielding of the Long-Range Anti-Ship Missile, which was accomplished in half the time of a normal development program, DARPA noted in an email. Walker also reinvigorated the agency's hypersonic weapons and space efforts, with major programs in boost-glide and air-breathing missile development and distributed low Earth orbit satellite constellations. Also noted by the agency: Under Walker's leadership, DARPA launched the three-year, $1.5 billion Electronics Resurgence Initiative (ERI) as well the five-year $2 billion AI Next program. Walker also “made pivotal investments in the realm of engineered biology, resulting in several breakthroughs, chief among them a program that has helped reduce Ebola fatality rates by more than 70 percent,” the email stated. Walker succeeded Arati Prabhakar, who left the Agency in January 2017. https://www.defensenews.com/breaking-news/2019/12/17/darpa-head-resigns-moving-on-to-industry

  • Wing installation at Turkish drone maker signals progress on indigenous unmanned tech

    October 26, 2018 | International, Aerospace

    Wing installation at Turkish drone maker signals progress on indigenous unmanned tech

    By: Burak Ege Bekdil ANKARA, Turkey — A privately owned Turkish drone specialist has installed the wings on its unmanned fighter jet currently in development. Selçuk Bayraktar, the chief technology officer at Baykar Makina, announced the progress on the Uçan Balık/Akıncı program (Flying Fish/Raider in Turkish). Bayraktar shared photos of the Akıncı on social media after the assembly of the aircraft's wings. “It [the program] is progressing as scheduled,” Bayraktar said. Turkey's vice president, Fuat Oktay, visited the Baykar Makina production unit to inspect the Akıncı. Bayraktar believes the platform's development foreshadows a more advanced version of itself down the road. “We are hoping to have our first unmanned fighter aircraft by 2023. We are also hoping to fly our first unmanned aerial vehicle that can carry up to 1.5 tons of payload for strategic missions in 2019,” Bayraktar said. Baykar is Turkey's leading privately owned drone specialist. It has supplied 58 unarmed and armed drones to the Turkish military that are mainly deployed in areas (southeastern Turkey, northern Syria and northern Iraq) where the country is fighting Kurdish militants. Fifteen Baykar drones are simultaneously on duty for counterterror missions. The company wants to raise that number to 50. Baykar's TB-2, a drone that comes in both armed and unarmed versions, is mainly deployed in Turkey's southeast to combat Kurdish militants. The armed version uses the MAM-L and MAM-C, two miniature smart munitions developed and produced by state-controlled missile-maker Roketsan. Industry sources say Turkey's industry also is developing BSI-101, a signals intelligence system, for the TB-2 to end the country's dependence on American-made SIGINT systems for drones. The TB-2 can fly at a maximum altitude of 24,000 feet for up to 30 hours. Its communications range is 150 kilometers. The aircraft can carry up to 55 kilograms of payload. “We (the world) are decades away from fully unmanned fighter aircraft. But for countries like Turkey that fight asymmetrical warfare, the gear built between full unmanned fighters and today's armed drones will be crucial,” a senior defense procurement official said. Increasing asymmetrical threats on both sides of Turkey's Syrian and Iraqi borders have urged the country's military and procurement and industry officials to boost existing drone programs and launch new ones. The Akıncı is the latest version of a family of drones Turkey thinks could best fight insurgency at home and abroad. In June, Turkish officials said a contract had been signed for the development and production of the 4.5-ton Akıncı. The first deliveries are scheduled for 2020. The Akıncı features an altitude of 40,000 feet and a payload capacity of 1,350 kilograms, which it can carry for up to 24 hours. The aircraft is powered by two turboprop engines, each generating 550 horsepower. The engine is under development by Tusas Engine Industries, or TEI, a state-controlled engine maker of the PD170. TEI has been working on the PD170 since December 2012 when it signed a development contract with SSM (now SSB), the country's procurement agency,. The 2.1-liter, turbo-diesel PD170 can produce 170 horsepower at 20,000 feet, and 130 horsepower at 30,000 feet. It can generate power at a maximum altitude of 40,000 feet. The PD170 was designed for the Anka, Turkey's first indigenous medium-altitude, long-endurance drone. The Akıncı has a 20 meter wingspan, and is 12.5 meters long and 4.1 meters high. It can be equipped with indigenously developed satellite communications technology; a common aperture targeting system FLIR; a wide area surveillance system; electronic and signals intelligence systems; an electronic support measure pod; a collision avoidance system; a multirole active electronically scanned array air radar; and a synthetic aperture/ground moving target indicator radar. The Akıncı can be armed with a wide range of air-to-ground munitions including MAM-L, MAM-C, CIRIT, Mk81 and Mk82 general-purpose bombs, smart munitions (such as HGK, KGK and LGK) with various guidance kits, and SOM air-launched cruise missiles. https://www.defensenews.com/unmanned/2018/10/25/wing-installation-at-turkish-drone-maker-signals-progress-on-indigenous-unmanned-tech

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