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January 21, 2020 | Local, Aerospace

F-35s Are Dead: The Sixth Generation of Fighter Aircraft Is On Its Way

by Kris Osborn

Key point: At this rate, the F-35 won't even see combat before its outmoded.

It is also possible that the new 6th-generation fighter could use advanced, futuristic stealth technology able to enable newer, more capable air defenses. The air defenses of potential adversaries are increasingly using faster computing processing power and are better networked together, more digital, able to detect a wider range of frequencies and able to detect stealthy aircraft at farther distances.

The Air Force has begun experimenting and conceptual planning for a 6th generation fighter aircraft to emerge in coming years as a technological step beyond the F-35, service leaders said.

"We have started experimentation, developmental planning and technology investment," Lt. Gen. Arnold Bunch, Military Deputy, Office of the Assistant Secretary of the Air Force, Acquisition, told Scout Warrior in an interview.

The new aircraft, engineered to succeed the 5th-generation F-35 Joint StrikeFighter and explode onto the scene by the mid 2030s, is now in the earliest stages of conceptual development with the Air Force and Navy. The two services are now working together on early conceptual discussions about the types of technologies and capabilities the aircraft will contain. While the Air Force has not yet identified a platform for the new aircraft. The Air Force characterizes the effort in terms of a future capability called Next-Gen Air Dominance.

While Bunch did not elaborate on the specifics of ongoing early efforts, he did make reference to the Air Superiority 2030 Flight Plan which delineates some key elements of the service's strategy for a future platform.

Fighter jets in 20-years may likely contain the next-generation of stealth technology, electronic warfare, sophisticated computer processing and algorithms, increased autonomy, hypersonic weapons and so-called "smart-skins" where sensors are built into the side of the aircraft itself.

Some of these characteristics may have been on display more than a year ago when Northrop Grumman's SuperBowl AD revealed a flashy first look at its rendering of a new 6th-generation fighter jet.

Northrop is one of a number of major defense industry manufacturers who will bid for a contract to build the new plane - when the time is right. While there are not many details available on this work, it is safe to assume Northrop is advancing concepts, technology and early design work toward this end. Boeing is also in the early phases of development of a 6th-gen design, according to a report in Defense News.

The Navy's new aircraft will, at least in part, replace the existing inventory of F/A-18 Super Hornets which will start to retire by 2035, Navy officials said.

The Navy vision for a future carrier air wing in 2040 and beyond is comprised of the carrier-launched variant of the Joint Strike Fighter, the F-35C, and legacy aircraft such as the EA-18G Growler electronic jamming aircraft.

Also, around this time is when Navy planners envision its 6th generation aircraft to be ready, an aircraft which will likely be engineered for both manned and unmanned missions.

Technologies are rapidly advancing in coatings, electromagnetic spectrum issues, artificial intelligence, maneuvering, superiority in sensing the battlespace, communications and data links, Navy leaders have said.

Navy officials also add that the Navy is likely to develop new carrier-launched unmanned air vehicles in coming years as well. For instance, Northrop's historic X-47B demonstrator aircraft was the first unmanned system to successfully launch and land on the deck of an aircraft carrier.

Analysts have speculated that as 6th generation developers seek to engineer a sixth-generation aircraft, they will likely explore a range of next-generation technologies such as maximum sensor connectivity, super cruise ability and an aircraft with electronically configured “smart skins.”

Super cruise technology would enable the new fighter jet to cruise at supersonic speeds without needing afterburner, analysts have explained. As a result, super cruise brings a substantial tactical advantage because it allows for high-speed maneuvering without needing afterburner, therefore enable much longer on-location mission time. Such a scenario provides a time advantage as the aircraft would likely outlast a rival aircraft likely to run out of fuel earlier. The Air Force F-22 has a version of supercruise technology.

Maximum connectivity would mean massively increased communications and sensor technology such as having an ability to achieve real-time connectivity with satellites, other aircraft and anything that could provide relevant battlefield information.The new aircraft might also seek to develop the ability to fire hypersonic weapons, however such a development would hinge upon successful progress with yet-to-be-proven technologies such as scramjets traveling at hypersonic speeds. Some tests of early renderings of this technology have been tested successfully and yet other attempts have failed.

The Air Force Chief Scientist, Dr. Geoffrey Zacharias, has told Scout Warrior that the US anticipates having hypersonic weapons by the 2020s, hypersonic drones by the 2030s and recoverable hypersonic drone aircraft by the 2040s. There is little doubt that hypersonic technology, whether it be weaponry or propulsion, or both, will figure prominently into future aircraft designs.

Smart aircraft skins would involve dispersing certain technologies or sensors across the fuselage and further integrating them into the aircraft itself, using next-generation computer algorithms to organize and display information for the pilot. We see some of this already in the F-35; the aircraft sensor fusion uses advanced computer technology to collect, organize and display combat relevant information from a variety of otherwise disparate sensors onto a single screen for pilots. In addition, Northrop's Distributed Aperture System is engineered to provide F-35 pilots with a 360-degree view of the battlespace. Cameras on the DAS are engineered into parts of the F-35 fuselage itself to reduce drag and lower the aircraft's radar signature.

Smart skins with distributed electronics means that instead of having systems mounted on the aircraft, you would have apertures integrated on the skin of the aircraft, analysts have said.

This could reduce drag, increase speed and maneuverability while increasing the technological ability of the sensors.

It is also possible that the new 6th-generation fighter could use advanced, futuristic stealth technology able to enable newer, more capable air defenses. The air defenses of potential adversaries are increasingly using faster computing processing power and are better networked together, more digital, able to detect a wider range of frequencies and able to detect stealthy aircraft at farther distances.

The new 6th-generation fighter will also likely fire lasers and have the ability to launch offensive electronic attacks.

https://nationalinterest.org/blog/buzz/f-35s-are-dead-sixth-generation-fighter-aircraft-its-way-114901

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  • What does a DAR do?

    May 31, 2019 | Local, Aerospace, Security

    What does a DAR do?

    Michael Petsche Helicopters are pretty awesome devices. Even when you understand the physics of how they work, it's still a wonder that the combination of whirling bits and pieces can result in flight. These magnificent machines put out fires, string powerlines, erect towers, pluck people in distress from mountains, and save countless lives. But here's the thing: a brand new, factory-spec helicopter right off the production line can't do any of those things. Flip through the pages of any issue of Vertical, and in almost every photo, the aircraft has been fitted with some type of special equipment. A firefighting machine will have a cargo hook for the bucket, a bubble window, an external torque gauge, pulse lights and a mirror. A search-and-rescue aircraft will have a hoist. Air ambulances are filled with lifesaving equipment. And very little of that stuff comes directly from the airframe original equipment manufacturers (OEMs). Instead, this equipment is in place thanks to supplemental type certificates (STCs). As the name implies, an STC is required for an installation that supplements the original aircraft type certificate. It needs to meet all of the same requirements as the aircraft that it's installed upon. Therefore, it must undergo the same kind of testing, analysis, and scrutiny that the aircraft does. How do regulatory authorities ensure that supplementary equipment meets the same standards as the aircraft they're designed to augment? Through people like me. I am a Transport Canada Design Approval Representative (DAR), also known as a delegate. A DAR does not actually work for Transport Canada, but is delegated to act on its behalf to make findings of compliance in a particular field of specialty — such as structures, avionics, or as a flight test pilot. To secure an STC, not only must a modification meet the same standards as the original aircraft, but it has to be shown not to degrade the safety of the aircraft. Let's take the firefighting helicopter as an example. The bubble window needs to be strong enough to withstand the aerodynamic loads in flight. In order to verify this, a structural test can be done on a test rig. However, the bubble window protrudes from the aircraft, resulting in extra drag. It could adversely affect how the aircraft behaves, or reduce climb performance, or have an effect on the pitot-static system. These are the sorts of issues that flight testing is meant to uncover. Similarly, if someone wants to upgrade an old GPS system to the latest and greatest model, testing must be done to ensure that there is no electrical interference between the new unit and any other existing systems on the aircraft. A big part of the STC process is determining just how you can prove that a modification meets the regulations. Does it need to be tested or is a stress analysis enough? Or is it a combination of the two — or another method entirely? And on top of that, which regulations are applicable? And furthermore, which version of the regulations needs to be applied? The rules for the Airbus H125, for example, are not the same as for the Bell 429. It's the role of the DAR (with concurrence from the regulator, in my case Transport Canada) to make these kinds of determinations. While the STC process is technically uniform, the scope can vary widely from one project to another. Changing a seat cushion or changing an engine type can both be STCs. The execution of a project can take many forms, and is dependent on a huge number of factors, including the DAR, the project scope, the resources available, and the end user. In my current role, I work largely on my own. The process typically begins with me submitting an application to open the project with Transport Canada. I prepare the documents and drawings, and witness and document any required testing. Then I compile it all and submit it to Transport Canada. Through all this, I will rely heavily on the end user to provide their insight and expertise — and their facilities. After all, it's their aircraft, and they are the ones who will ultimately be installing, using, and maintaining the STC kit — so it has to make sense to them. Whenever possible, I will have documents and drawings reviewed by the maintenance team to make sure that theory and reality align. Becoming a delegate How does someone become a delegate? In Canada, it begins with an educational requirement. You must have an engineering degree, or have, in the opinion of Transport Canada, equivalent experience. In other words, if someone has many years of applicable experience, they can be eligible to be a delegate, even if they do not have an engineering degree. A prospective delegate must also successfully complete the Aircraft Certification Specialty Course. This is a two-week intensive course that covers the ins and outs of aircraft certification: type certification, STCs, Change Product Rule and so on. And yes, there are exams! Next is a one-year working relationship with Transport Canada. The process for becoming a delegate is not uniform, with the one-year timeline more of a guideline than a rule. In my case, it took less than 12 months. Prior to beginning my process, I had the good fortune of working for a talented delegate for many years. He taught me how it “should be done.” I was given the opportunity to fly at 170 knots indicated airspeed in AStars pointed at the ground during flight tests; I snapped bolts while piling steel plates onto structures during structural tests; and I wrote numerous supporting reports for many kinds of STCs for many different aircraft types. My mentor is a (sometimes maddeningly) meticulous guy. Everything we did was thorough and correct. So, by the time I was presenting my own work to Transport Canada, it was evident that I already had a pretty firm grasp on the process. As a result, my delegation was granted before a full year. During the period while I was building my relationship with Transport Canada, my friends would ask if I had to accomplish certain specified milestones or achieve specific “levels.” The short answer is: not really. In fact, it's about building trust. It's almost counter-intuitive that in an industry with such strict regulations, granting delegation to someone is, to a large degree, based on a “warm, fuzzy feeling.” Ultimately, Transport Canada must have confidence in the delegate. Let's face it, we are in a business with tight schedules and high price tags. There can be a lot of pressure, financial or otherwise, to meet deadlines — and things can go wrong. Parts can fail under ultimate loading during a structural test. That cursed Velcro can fail the flammability test. And when these things happen, it can be the delegate that incurs the wrath of the angry operator who really needs to get his aircraft flying. Transport Canada must have the confidence that not only does the delegate have the technical knowledge and ability, but that they have the intestinal fortitude to stand firm under what can sometimes be difficult circumstances. There's the somewhat cynical axiom that the only way for an aircraft to be 100 percent safe is to never let it fly. I have heard many tales of woe and misery about people's dealings with Transport Canada and how the regulator was being “unreasonable” about X, Y, or Z. I'm of the opinion that these instances often stem from poor communication — on both sides. This is another area where the DAR can help. The DAR often acts as a liaison (or translator) between the operator and Transport Canada. Operators don't necessarily spend that much time studying design regulations. And similarly, Transport Canada engineers may not be fully familiar with the day-to-day challenges and obligations of aircraft operations. As a DAR, I speak the same language as Transport Canada. But I also spend a great deal of time in hangars, so I am also fluent in “aircraft operator.” This level of bilingualism can alleviate misunderstandings. And with a little strategic communication, everyone involved can be satisfied a lot sooner. Not surprisingly, communication and open dialogue between the DAR and the regulator is just as crucial. It has been my experience that Transport Canada wants to help get projects completed. They are aviation geeks, just like the rest of us, and they want to “Git ‘er done.” Because I have developed a solid relationship with Transport Canada, if ever I find myself struggling with something, I can call them and ask for guidance. Obviously it's not their job to fix the issue for me, but they are there to help. Whether they point me at an Advisory Circular that I wasn't aware of, or they draw from their own experience, 99 times out of 100, talking it through with them yields a solution very quickly. We all want to keep aircraft flying — safely. And we all have our different roles to play. As a DAR, I enjoy being the go-between for the regulatory world and the operational world. The challenge of getting them to work and play nicely together can be pretty fun — and a big part of accomplishing that goal requires earned trust and open communication. https://www.verticalmag.com/features/what-does-a-dar-do/

  • Military to build $65M facility at Hartlen Point to test new warship systems | CBC News

    June 11, 2021 | Local, Naval

    Military to build $65M facility at Hartlen Point to test new warship systems | CBC News

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  • Naval and army monuments installed at DND HQ but date for CF-18 installation unknown

    September 23, 2020 | Local, Aerospace, Naval, Land

    Naval and army monuments installed at DND HQ but date for CF-18 installation unknown

    David Pugliese National Defence has installed the first pieces of equipment as monuments at the new headquarters on Carling Avenue in Ottawa. A Leopard C2 tank and the bow of the former destroyer HMCS Iroquois (see below) were installed in late March as part of the monuments project costing more than $1 million. The Royal Canadian Air Force will provide a CF-18 fighter jet for display at the headquarters. “The installation date of the CF-18 is still being determined,” Canadian Forces spokesman Maj. Scott Spurr noted in an email. Each service was allowed to select its monument as representative of its branch. The original cost of the monuments project was $400,000 but that increased as more equipment displays were added. In addition, a second monument grouping consisting of a Light Armoured Vehicle-3, a Sea King helicopter and a historical naval piece, which has yet to be determined, will be installed. Construction is expected to start on the initiative by the spring of 2021. A third monument, a First World War Nieuport aircraft, will be displayed from the ceiling over the lobby of one of the main buildings at the defence headquarters. An artillery gun, selected by the Canadian Army, will also be on display along with a Standard Missile 2 from the Royal Canadian Navy. The gun will symbolize involvement in the first Boer war 120 years ago while the missile will demonstrate technology advancements since then, according to the DND and Canadian Forces. The installation of the monuments is part of the Department of National Defence's “branding strategy” for the Carling Avenue headquarters. “The National Defence Headquarters will be a physical expression of the Defence Team; a representation of Canada's military history and the future strength of Canada's Defence Team establishment,” noted a branding document obtained by this newspaper through the Access to Information law. In 2015, the plan was to have the monuments only consist of a Leopard tank, a CF-5 fighter jet and a then unknown navy monument. The criteria was that “the monuments characterize offensive and defensive weapons capability,” according to the documents. The original budget was $400,000 but that amount has been increased as additional equipment was selected for display. The CF-5 jet was dumped in exchange for a more modern CF-18, which will be installed on a concrete pedestal. Previously the location was referred to as the “Carling Campus” but now that has been officially changed to NDHQ Carling. The branding strategy noted that the selected name is “a brand that is generic in nature but inclusive of our heritage and traditions, representing and respecting the great diversity of our work forces and its branches of service.” The federal government spent $800 million on acquiring and outfitting the former Nortel complex for the DND's needs. It has argued that it will see substantial savings from consolidating many of the department's employees into one site. The defence campus consists of about 28 hectares once owned by Nortel and 120 hectares leased from the National Capital Commission. The DND will also continue to operate its downtown Ottawa headquarters at 101 Colonel By as well as some other office locations in Ottawa and Gatineau https://www.thechronicleherald.ca/news/canada/naval-and-army-monuments-installed-at-dnd-hq-but-date-for-cf-18-installation-unknown-500245/

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