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  October 2, 2019 | International, Aerospace

  Boeing Awarded $2.6 Billion for Fifth KC-46A Tanker Production Lot

  EVERETT, Wash., October 1, 2019 – The U.S. Air Force today awarded Boeing [NYSE: BA] a $2.6 billion contract for 15 KC-46A tanker aircraft, spares, support equipment, spare engines and wing air refueling pod kits. With this fifth production lot, Boeing now is on contract for 67 KC-46 tankers. Boeing received its first two production lots, for 7 and 12 aircraft, in August 2016. The third lot, for 15 aircraft, was awarded in January 2017; the fourth lot for 18 aircraft in September 2018. “We're honored to build the Air Force's next-generation tanker and appreciate the importance of this program for our nation,” said Jamie Burgess, Boeing KC-46A tanker vice president and program manager. “This has been a milestone year for KC-46 and a big reason for that is our great partnership with the Air Force. We expect to accomplish great things together in the years to come.” Boeing plans to build 179 of the 767-based refueling aircraft for the Air Force to replace its legacy tanker fleet. The company delivered the first tankers to the Air Force in January 2019. Boeing received its initial contract in 2011 to design and develop the Air Force's newest tanker aircraft. The KC-46A is a multirole tanker that can refuel allied and coalition military aircraft compatible with international aerial refueling procedures and can carry passengers, cargo and patients. Boeing is assembling KC-46 aircraft at its Everett, Wash., facility and recently started production of the first KC-46 for Japan. For more information on Defense, Space & Security, visit www.boeing.com. Follow us on Twitter: @BoeingDefense and @BoeingSpace. Caution Concerning Forward-Looking Statements Certain statements in this release may be "forward-looking" within the meaning of the Private Securities Litigation Reform Act of 1995. Words such as "expects," "intends," "plans," "projects," "believes," "estimates," "anticipates," and similar expressions are used to identify these forward-looking statements. Examples of forward-looking statements include statements relating to our future plans, business prospects, financial condition and operating results, as well as any other statement that does not directly relate to any historical or current fact. Forward-looking statements are based on our current expectations and assumptions, which may not prove to be accurate. These statements are not guarantees and are subject to risks, uncertainties, and changes in circumstances that are difficult to predict. Actual outcomes and results may differ materially from these forward-looking statements. As a result, these statements speak only as of the date they are made and we undertake no obligation to update or revise any forward-looking statement, except as required by federal securities laws. Specific factors that could cause actual results to differ materially from forward-looking statements include, but are not limited to, the effect of economic conditions in the United States and globally, general industry conditions as they may impact us or our customers, and our reliance on our commercial customers, our U.S. government customers, our suppliers and the worldwide market, as well as the other important factors disclosed previously and from time to time in our filings with the Securities and Exchange Commission. # # # Contact: Kym Vandlac Defense, Space & Security Office: +1 425-266-5365 Mobile: +1 425-210-7851 kymberly.y.vandlac@boeing.com https://boeing.mediaroom.com/2019-10-01-Boeing-Awarded-2-6-Billion-for-Fifth-KC-46A-Tanker-Production-Lot

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  July 9, 2019 | International, Aerospace

  Enhancing Unmanned Operations in Extreme Conditions with the Power of Two-Stroke

  Peter Lietz, Head of International Business Development for Hirth Engines, explains why engine manufacturers must raise the endurance bar for unmanned aerial vehicles (UAVs) to advance capabilities in extreme weather conditions. Drones have become a popular choice for various exploits, from hobbyist aerial photography to large organisations such as Amazon exploring the future of delivery services. In the same vein, governments, militaries and research groups are exploring the use of UAVs to enable highly effective monitoring of unforgiving terrains without risking manned aircraft or land-based patrols. The need for unmanned aerial systems to navigate harsh environments is vital for the maritime, military and commercial sectors. Providing reliable and to the minute information on the status of, and threats to, environments like the Arctic is crucial as governments prepare to take action against significant issues such as climate change and increases in populations. UAVs will play a crucial role in this future considering the need for operators to monitor harsh environments and difficult to reach terrains, especially rotary UAVs. Reaching inhospitable locations can present a variety of logistical challenges, not least of which is the cost of sending land-based patrols or manned aircraft often from navy ships or other maritime vessels. This is where UAVs can enable operators to safely monitor terrains in a cost-effective and efficient way to better understand complex habitats. Carrying out monitoring exercises in areas such as the Artic where there is a real risk to life can be a major challenge. Through the use of well-engineered rotary UAVs, organisations are able to perform a variety of tasks with ease. The responsibility to advance the endurance capabilities of UAVs falls on engine manufacturers. For this reason, we must continue to innovate to increase performance. Over the last few years, rotary UAVs have grown in complexity, not only in terms of the platforms themselves but also the robustness and performance of the engines they run on. As the operational requirements for UAVs grows, engine manufacturers must continually innovate to improve power-to-weight ratios, reduce emissions, and accelerate capabilities in harsh environments. For a long time, fixed-wing UAVs were considered the optimal choice for endurance and speed over their rotary counterparts. However, this is changing rapidly thanks to enhancements in engine design. Rotary UAVs are now becoming a platform of choice due to their reduced logistical footprint and the ability to take off and land in a confined or limited space, especially in maritime environments such as on-board navy ships and coastguard cutters for example. The requirement for rotary UAVs to operate in extreme temperatures such as the cold of the Arctic or the severe heat of warmer climates is essential for operators. This is where two-stroke propulsion engines play a vital role. Two-stroke applications present rotary UAV manufacturers with a range of benefits, including ease of maintenance due to less moving parts and the ability to operate on heavy fuels which are a must for corrosive marine environments. Alongside this, two-stroke powered rotary UAVs are often capable of flying missions with a full payload in extreme conditions for more than five hours without overhaul. With this as a backdrop, it is vital for UAV and engine manufacturers to accelerate the development of propulsion systems capable of operating in extreme locations around the globe. As the industry moves towards hybrid and electric propulsion new challenges will arise and it is crucial that OEMs raise the bar to power the next generation of UAVs. In order to advance the endurance and capabilities of rotary UAVs, engine manufactures must look to innovate the propulsion technology used. Electric is an increasingly popular option for commercial drones. However, electric comes with its own challenges and limitations, such as operational endurance and increased weight of the electrical motors. Considering the performance of batteries in extreme temperatures in comparison to their fuel-based counterparts, there is a long way to go before pure electric UAVs will be capable of flying extended missions in harsh terrains. Hybrid applications that utilise both a combustion engine and electric propulsion systems will provide a bridge toward the future of pure electric flight. A clear advantage for hybrid applications is improving power to weight ratios to enable increased payload capacities. Hybrid UAV applications can be used in various functions, such as: electrically powered take-off and landing with conventional engines powering horizontal flight; or powering flight using only electrical motors whilst the combustion engine acts solely as a generator. In addition, safety is a key purpose behind the pursuit of hybrid applications. For UAV manufacturers, having the ability to convert to an electric battery should the combustion engine fail could make all the difference in enabling a safe landing. Operating UAVs in extreme weather conditions reduces the chances of potential health and safety issues associated with deploying staff or manned systems into harsh environments. In addition, a further key benefit of using UAVs is enabling the deployment of cost-effective systems that perform safely in extreme locations. Ultimately, developing UAVs that can fly farther and for longer in harsh environments will require engine manufacturers to consider alternative fuel and power systems such as heavy fuel two-stroke applications. Heavy fuel is widely considered a must in the maritime industry when dealing with complex environments due to its resistance to extreme temperatures. At Hirth, pairing a robust heavy fuel combustion engine with electrical propulsion is something we are pursuing to advance the future capabilities of unmanned systems and bridge the gap to pure electric flight. For further information about Hirth's portfolio of engines, visit: http://hirthengines.com/ About Hirth Hirth Engines GmbH, based near Stuttgart, with global sales operated from Vienna, has a long pedigree in the development of propulsion systems, stretching back to The innovative company was founded by German aviation pioneer and World War I ace Helmuth Hirth, a student of US inventor Thomas Edison, and collaborator with the Wright Brothers and Zeppelin. The company has set its sights on consolidating its leading role in the development of two-stroke engines for a range of diverse sectors including:  Unmanned and manned light and experimental aircraft (fixed wing and helicopters)  Hovercraft Next generation R&D will focus on hybrid engines, based on the company's winning formula of providing easy to maintain power to weight ratio propulsion technology across civilian and military applications. https://dronescrunch.com/enhancing-unmanned-operations-in-extreme-conditions-with-the-power-of-two-stroke/

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  October 22, 2020 | International, Naval

  US and UK navies prepare to sign agreement to merge future tech work

  David B. Larter and Andrew Chuter WASHINGTON – The U.S. Navy and British Royal Navy are preparing to more closely align their futures in a whole host of warfare areas, the U.S. chief of naval operations announced Tuesday. The U.S. Navy's chief of naval operations and First Sea Lord Adm. Tony Radakin intend to “sign a future integrated warfighting statement of intent that sets a cooperative vision for interchangeablty,” CNO Adm. Mike Gilday announced at the virtual Atlantic Future Forum, being held on board the RN's new aircraft carrier Queen Elizabeth. “We will synchronize pioneering capabilities, strengthen operating concepts and focus our collective efforts to deliver combined sea power together. By organizing our cooperation on carrier strike, underwater superiority, navy and marine integration and doubling down on future war fighting like unmanned and artificial intelligence, we will remain on the leading edge of great power competition.” It is unclear what the specifics of the statement of intent will be, but the U.S. and Royal navies have been focusing heavily in recent years on aligning its capabilities to be useful to each other in combined maritime operations. The message from both navies is that this will continue into the future. Throughout the Royal Navy's effort to get the Queen Elizabeth ready for deployment, the U.S. Navy and Marine Corps have been working closely with the service, training British pilots on the F-35B and getting the ship certified to operate them. The Marine Corps' Fighter Attack Squadron 211 embarked on Queen Elizabeth earlier this month during the ship's group exercise ahead of a deployment next year. The Marines will also mix in with Royal Air Force F-35Bs during the QE's 2021 deployment. In remarks at the forum, Radkin echoed Gilday's remarks, saying the two forces needed to continue to work to align efforts. “Throughout our careers we have had a drive for interoperability with allies,” Radkin said. "But increasingly it feels to us that bar has to be raised. ... The obvious example is the U.S. Marine jets on board the QE carrier. That is an obvious example of interchangeability. “So, we are trying to drive a new standard. Partly to drive all of us to strengthen our interoperability but to go even higher and recognize that interchangeability is going to be an even stronger feature in the future.” Radkin said the services would focus on four areas to grow this “interchangeability”: undersea warfare; carrier operations; aligning the efforts of the U.S. Marine Corps and Navy to become a cohesive fighting unit; and on advanced warfighting programs such as artificial intelligence and cyber. The United Kingdom is in the middle of an integrated defense review, initiated after Boris Johnson was elected prime minster. It was interrupted during the onset of the COVID-19 outbreak but appears to be running again. The review could have sweeping impacts on the British defense budget, but it is unclear where the budget ax will fall. When the review was announced, however, the government promised a “radical reassessment” of Britain's place in the world. https://www.defensenews.com/naval/2020/10/20/the-us-and-uk-navies-prepare-to-sign-agreement-to-merge-their-tech-futures/