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To Lower Emissions, the Military Focuses on Increasing Aircraft Efficiency

A KC-46 offloading fuel to a C-17 during a flight test. (Photo courtesy of Boeing)

As the commercial aviation industry increasingly shifts towards new technology to reach sustainability targets, the military is more focused on improving aircraft efficiency to increase sustainability rather than concentrating on reducing greenhouse gas emissions. 

“The mission of the Air Force is to fly, fight and win in the air, in space, and in cyberspace,” Troy Warshel, principal director and chief of staff at the Air Force Operational Energy (SAF/IEN), said during a panel at AIAA’s Propulsion Energy Forum on Aug. 9. “Nowhere in that mission description do you hear anything about energy efficiency or greenhouse gas production because, quite truthfully, our mission is to kill bad guys and break their toys and that’s what our focus has to be.”  

While the Air Force’s mission is not focused on reducing greenhouse gas emissions, Warshel said that the Air Force is “uniquely positioned” to make smart decisions about how it uses energy as the largest consumer of fuel in the federal government and the Department of Defense. He also acknowledges that just because the Air Force’s mission isn’t to be energy efficient does not mean it isn’t interested in it. 

“If one were to say that the Air Force is not interested in fuel efficiency, you probably have your head in the sand,” Warshel said. “I think for us, the other side of the fuel efficiency coin is combat capability, you know, if we can go longer, farther, faster, and accomplish the mission done through efficiency, that increasing combat capability is really what we’re looking for. The shiny edge of that coin is that there’s a greenhouse gas reduction capability.” 

Increasing the efficiency of these aircraft would not have a small impact. Warshel said if the Air Force increased the fuel efficiency of the C-17 fleet by just one percent, it would reduce greenhouse gas emissions by more than if the DoD’s entire fleet of non-tactical vehicles were made electric. 

When increasing energy efficiency, the Air Force is not looking to decrease combat capability by decreasing training. 

“We’re looking at energy efficiency, you know, in the realm of increasing combat capability, part of that is, is a training and education piece,” Warshel said. “We’ve seen some bad behavior in other countries where they were given greenhouse gas emission caps…and they basically parked airplanes or stop training or stop flying. And for us as an Air Force, we don’t think that’s an option, we still have to train, we still have to practice like we’re gonna fight.” 

Warshel said the Air Force is looking into software solutions to help deploy assets in a way that optimizes energy use. For example, where they previously planned a tanker schedule on a whiteboard, they are now enlisting help from Google. 

“Working with those guys, we were able to come up with the program, Jigsaw, that has a significant increase in tanker utilization,” Warshel said. “It decreased the number of tankers required in theater, it decreased planning time from 12 hours to about four hours to come up with a tanker plan, and it saved over $200 million just in reducing airborne assets.” 

There are also small changes that can be made to aircraft today to increase their efficiency. Warshel said a small piece of plastic on a C-17 could end up saving $10 million a year in reduced fuel consumption. 

“If we put a one percent drag reduction on a C-17 by basically gluing a little piece of plastic on the aft end of the aircraft, which we could do for about $3 million for the entire C-17 fleet, we would eventually end up saving $10 million a year in reduced fuel consumption,” Warshel said. “Just by that simple thing alone.” 

Most of the fuel the Air Forces uses goes toward transport aircraft. 

“The [global] commercial fleet was awarded 100 billion gallons in 2019, pre-COVID, the United States, 26 billion gallons, and of that the Air Force, the same year, 2 billion gallons, the Navy 600 million gallons,” Michael Winter, senior fellow for advanced technology at Pratt & Whitney and Raytheon Technologies Corporation, said during the panel. “Jet fuel comprised a little more than 80 percent of the Air Force’s energy budget and…60 percent of the fuel was consumed in transport aircraft.” 

It is important to analyze which aircraft are using the most fuel because the transport aircraft and tanker fleet use commercial engines and the commercial aviation industry is already committing to making its engines more sustainable to reach zero emissions goals. 

“What’s not often realized is that those fleets, the commercial side of the transport tanker fleet, they operate on commercial off-the-shelf engines, they’re not uniquely developed for the military,” Keith Numbers, technical advisor for propulsion of the engineering directorate at the Air Force Life Cycle Management Center, said during the panel. “So with that, I believe we in the Air Force are going to be followers of industry in terms of their commercial developments to reduce fuel burn emissions.” 

However, the military does not update its aircraft as often as the commercial industry does because they keep them in service for long periods of time. This gives them fewer chances to adopt the new technologies that might be coming out of the commercial industry. 

“The force does not operate our fleet to nearly the same extent in terms of flying hours as the commercial industry,” Numbers said. “As such, we tend to operate our engines for a much longer period of time in terms of years and service than the commercial industry typically does. So historically, what that means is our opportunity to refresh technology or those engines is much less often than commercial. So we’re going to be challenged to keep up with industry.” 

This also means that military aircraft that use future commercial engines will have to contend with sustainable aviation fuels (SAF) which many commercial engine developers have already committed to designing their engines around. Current commercial engines are already permitted to operate with a 50 percent blend of SAF and Jet A. 

“We are subject to what commercial industry does with the sustainable fuels in the blending within the Jet A specification,” Numbers said. “That does pose new risks for us.” 

These risks include the special materials within various military aircraft that differ from commercial aircraft. There is also concern about how these fuels will react in very high altitude operations or under cold temperatures. Numbers said the augmenters and afterburners are also a risk with the use of SAF. 

In response to these concerns, the Air Force is drafting an airworthiness advisory for the 50 percent blend. 

“The Air Force is currently drafting an airworthiness advisory to address, specifically, the alcohol-to-jet form of alternative fuels with blends up to 50 percent,” Numbers aid. “We’ve already done that assessment for blends up to 30 percent, but we’re not sure what the risks are going to be as we preset blending up to 50 percent. That advisory is in a draft right now and should be forthcoming.” 

The Air Force is not the only branch looking to increase energy efficiency. The Navy and Marine Corps are also interested in increasing their efficiencies, Richard Kamin, senior scientific technical manager of energy and fuels at the Naval Air Warfare Center Aircraft Division, said during the panel. 

“Efficiency is the most important thing in our lives because our runway is so small and there’s no divert,” Kamin said. “So really, when you talk to sustainability in Navy and Marine Corps, we’ve been looking at that for a long time. We’ve been working on that issue, we just call our terms of success, a lot different.” 

While the Navy and Marine Corps do not consume as much fuel as the Air Force, their fuel is mostly used by tactical fighters. Kamin said that about 60 percent of their fuel is burned by F-18s and F-35s. 

“We do not have a big heavy transport consumption,” Kamin said. “So our challenge is a little greater, how do we stretch efficiency into those small packages.”  

The Navy and Marine Corps have been working with OEMs to develop new components for tactical aircraft engines to make them more efficient, Kamin said. They also have supported multiple science and technologies programs that are working on this issue. 

“We have demonstrated in a lot of our tactical systems, the capability for technologies that can increase our efficiency from 5 to 8 percent,” Kamin said. “Five to 8 percent of a fighter is huge.” 

They are also working to incorporate more simulator usage. 

“We’ve expanded our virtual training and simulator usage, the most efficient fuel saved is the gallon we never burn,” Kamin said. “That’s 100 percent greenhouse gas emissions savings…Yes, fighters, trainers, everyone has to fly, but what can we move to the simulated world?”

While the military has its own motivations when it comes to sustainability, the industry that supports it is having to contend with new regulations. Winter said that U.S. allies are requiring emissions information on aircraft platforms that they receive from foreign military sales. 

“As far as the importance of sustainability to military, I would submit to you that it’s important right now,” Winter said. “In terms of some of the foreign military campaigns that we are engaged in with our allies and our partners on some of these aircraft platforms, we are being asked for lifecycle analysis specifically focused on scope three, which is the emissions in the use phase, and these are being used as selection criteria for foreign military sales.” 

Winter cites Switzerland’s purchase of the F-35 where their citizens voted on the procurement in a referendum. During this vote, there were many articles in the press that focused on the sustainability of the aircraft.

The UK Ministry of Defence also recently published a rule that suppliers must have net 2050 zero-emissions goals in place to be able to compete in procurements. The company must also provide metrics and milestones to achieve these goals. The U.S. has also joined in this trend when President Biden released an executive order in May that would require companies to publicly disclose greenhouse gas emissions, the financial risk from climate, and science-based reduction targets with metrics and progress determination. 

“This is not a problem that’s going to go away…and so this is a real opportunity for us to partner on with government, public-private partnerships, to make the necessary investments in technology so that we can make progress and we can move forward towards a sustainable future for aviation,” Winter said. 

The post To Lower Emissions, the Military Focuses on Increasing Aircraft Efficiency appeared first on Aviation Today.

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Cathay Pacific Adds 4K IFE Screens to Latest Digital Cabin Upgrades

Cathay Pacific is rolling out 4K wireless IFE on its new A321neos entering service this month. (Panasonic Avionics)

Cathay Pacific Airways has introduced new full cabin 4K ultra-high definition in-flight entertainment (IFE) screens across its new fleet of Airbus A321neo aircraft, the latest in a series of wireless digital and connectivity upgrades that the Hong Kong-based airline has invested in recently.

The new screens, supplied by Panasonic Avionics, feature Bluetooth audio streaming and have been installed with 11.6-inch personal screens for the A321neo’s economy cabins, while business class features 15.6-inch personal screens, according to an Aug. 5 press release.

“We’ve always aimed to provide our passengers a comparable entertainment experience as what they would find at home. With the large screens and 4K ultra-high-definition viewing experience, passengers may enjoy our curated premium 4K content with their personal Bluetooth wireless headphones. We are determined to continuously elevate our passengers’ travel experience, and today, we are marking a milestone with our new A321neo fleet,” Vivian Lo, Cathay Pacific’s general manager of customer experience and design said in the release.

4K delivers four times the resolution of a 1080p (HD) TV, according to a September 2019 Avionics International article analyzing early adoption of the technology, and Cathay has become the latest in a number of Asia Pacific-based airlines to introduce the higher resolution screens that have expanded in popularity on premium consumer products. Although others in the region, such as All Nippon Airways’ fleet of Boeing 777-300ER, have limited its deployment to business class cabins or a select number of aircraft within their fleet.

(Panasonic Avionics)

Introduction of 4K IFE screens on their A321neo fleet is the latest digital cabin experience technology investment by Cathay Pacific, which is also transitioning to the Panasonic Avionics next-generation extreme high throughput satellite (XTS) in-flight connectivity (IFC) service that is being deployed in the Asia Pacific region. The first XTS satellite went live in February.

Cathay is also started rolling out a new in-flight Wi-Fi portal supplied by Deutsche Telekom designed to streamline in-flight Wi-Fi login, payment system, and sign-on process for passengers under a deal announced in October 2020. The portal is enabled by a software development kit being added to their A350, 777, and A330 fleet.

“Cathay Pacific has been a strategic and highly valued airline customer of Panasonic Avionics for many years. We are thrilled to help them take their passenger experience to the next level with the introduction of 4K content using our NEXT IFE system,” Ken Sain, Chief Executive Officer of Panasonic Avionics said in a statement.

Cathay’s first 4K-equipped A321neo entered commercial passenger-carrying service on Aug. 4. The airline will have a total of 16 A321neos in its fleet by the end of 2023.

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Vista Global Sees Demand for Private Flying Surge Above Pre-Pandemic Levels in First Half of 2021

Vista Global – the parent company of VistaJet and XO – experienced record growth during the first six months of 2021, selling over 8,000 new annual subscription hours, an increase of 67 percent over 2020 and a 41 percent increase over the same period in 2019, according to an Aug. 9 press release.

The Group’s on-demand services also performed strongly during the period, with a year-on-year growth of 67 percent across all regions, and 55 percent compared to 2019. Demand for XO Deposit Members was also up 82 percent compared to the same period in 2020.

Regionally, the Middle East saw an increase of 153 percent in-flight hours operated by Vista, with North America and Europe registering 76 percent and 41 percent respectively.

“It has been an exceptional start to 2021 for Vista and we are making groundbreaking progress in all corners of the world in enhancing our position as the global pioneer within the business aviation industry,” Thomas Flohr, Vista’s Founder and Chairman said in the release. “Vista has seen a record first half of the year across all metrics and is seeing huge demand for our subscription and On-Demand based offerings. The surge in demand demonstrates how private aviation is the critical mobility solution, as sudden local restrictions continue to cause uncertainty for commercial fliers.”

Fleet expansion and interior modifications continued for the VistaJet and XO brands during the first half of 2021 as well. VistaJet added four new Global 7500s, while XO added 15 new aircraft. The total Vista fleet now includes 180 aircraft and access to a network of 2,100 “alliance jets,” according to the Dubai-based company.

Progress also occurred on Vista’s integration of Red Wing Aviation, Apollo Jets, and Talon Air into its portfolio to expand its North American footprint.

The private jet operator’s in-flight connectivity (IFC) upgrades to LuxStream across its global fleet of jets also continued during the first half of the year. Vista Global expects to add LuxStream to 45 total aircraft this year.

“Our momentum is strong and we are extremely confident about the future as we continue our global expansion in the second half of 2021 and beyond,” Flohr said.

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Volansi Demonstrates Fully Autonomous Drone Delivery with Navy and Coast Guard

Volansi’s VOLY 10 drone completing an autonomous delivery during a demonstration with the Navy. (Volansi)

The Silicon Valley-based drone delivery company Volansi completed the first-ever completely autonomous maritime drone delivery demonstration with the Navy and Coast Guard on July 18 near Key West, Florida, Will Roper, Volansi CEO, told Avionics International

The demonstrations, which were publicly disclosed on Aug. 2, consisted of three flights of the company’s VOLY 10 and 20 Series unmanned aircraft and were completed 20 nautical miles offshore. Two of the flights used the VOLY 10 aircraft which is 7 feet long with a 9-foot wingspan and a 10-pound maximum payload weight.

During the exercise, the VOLY 10 had a 5-pound payload and completed a 15 nautical mile trip from a Navy ship to the Coast Guard Cutter William Trump and back to the naval ship. The drone did not land on the cutter to simulate a situation where a landing was impossible. 

“The Coast Guard didn’t want us to actually land on the ship because it’s a very small ship and they wanted to see if we were able to come very low, hover over the ship, and drop the package,” Roper said. “So control our descent, hit a close distance but like just above the height of a human, so you know you wouldn’t hit the person, but you weren’t dropping the payload from too high and they cared about that thinking of like maybe a shift in distress like a yacht or something that there wouldn’t be clearance to land on.” 

The VOLY 10 was able to take off from the helicopter pad of the naval ship and used a mission computer to plan its trip.  In the mission computer, the operator can tell the drone where to take off and land from, to hover, or to find a target area autonomously. Roper said they can train someone to operate the mission computer in about 20 minutes. Once the mission is planned on the computer, “it’s as easy as hitting go.” 

“We’re literally one click drone delivery or one-click drone intelligence, and the drone does all the rest,” Roper said. “It takes itself off, it senses the wind conditions, it moves away from the ship, it transitions from vertical flight–our drones take off vertically and then they fly linearly like a traditional airplane–it transitions and flies the route that you asked it to fly, it finds the target ship, it brings itself in, hones in on it using its own internal sensors, and in our case, does the kiss and go drop off of the payload and then returns to the original ship. There’s not a single drone operator involved, in fact, you can cut comms to our mission tablet and the mission will still complete.”   

Volansi’s drones can land by using GPS or sensors on the aircraft. 

“It would not be wise of us to require GPS to land on things and so we are also able to find targets to land on, or platforms to land on, and land on them using sensors that are integrated into the aircraft,” Roper said. “Thus far, we’ve done cameras and [Light Detection and Ranging] (LIDAR) and we’re investing in other sensor technology as well.” 

The VOLY 20, which is Volansi’s larger drone with a 15-foot wingspan and 30-pound maximum payload weight, began its flight at the same naval ship and delivered its package to the Gotcha, a Coast Guard Panga, that was one nautical mile away. The VOLY 20 then landed back on the naval ship. 

Roper emphasized that autonomy is really the important part of this demonstration, not the drone itself. 

“The autonomy is the puppeteer the drone is the puppet, but it’s our puppeteers that are amazing and in our case, the puppeteer is software, its algorithms and sensing,” Roper said. “We don’t have anyone that’s making the decisions, but we have very reliable algorithms that do it.” 

This autonomy is especially important in the context of the Navy because of the lack of space on ships. These drones do not require a team to operate like other solutions. 

“For a ship that only has a finite number of bunk spaces…to ask there to be eight bunks available for a drone operation team, or in some cases, 25 for some of the Navy’s systems, that’s prohibitive,” Roper said. “So that tells you that certain ships cannot run logistics or ISR because you can’t support the drone team. Well, we just enabled that ship to have drone power. It’s one-click drone power enabled by autonomy. It’s the autonomy that’s the hero.” 

While autonomy is not a new concept to the military, nothing they do is fully autonomous, Roper said. 

“There’s a degree of autonomy in almost everything the military has but nothing that is truly autonomous,” Roper said. “There are people operating everything…So the demonstration we did is more autonomy than I’ve seen in 10 years of supporting military development.” 

Roper said autonomy has to be demystified from some of the worries previously expressed by the Defense Department. 

“I lived through all the AI stuff in the Department,” Roper said. “I’ve lived through the worries about autonomy, equating to this general artificial intelligence and not knowing what systems will do. I think the self-driving car industry has helped quite a bit to demystify that autonomous means that there’s not a person involved, it doesn’t mean something’s behaving in an erratic way or way that can’t be understood.” 

Volansi was able to get the Navy and Coast Guard to participate in this demonstration by just explaining how its system works, Roper said. 

“We’ve been able to get the Navy and the Coast Guard to let us land on their ships and it’s because we can explain how our system works in a way that you don’t have to be a…computer scientists to understand and that’s helping us with commercial customers as well,” Roper said. “If the military accepts something, it goes a long way to convincing commercial customers it’s safe to operate, which is another reason why I believe working with the military is a smart business strategy for this company.” 

Because Volansi intends for its drones to be used in harsh environments, such as the ones the military operates in, they need to be ruggedized. During the demonstration, Volansi’s drones had to contend with 20 miles per hour wind gusts and rain squalls, Roper said. 

“We’ve picked customers are going to want reliability repeatability and us not to take a knee because the conditions are bad,” Roper said. “The military operates in tough conditions, we have to do it too. If we’re going to be the work truck of drones, then we’ve got to be ready to operate in the wind, rain, mud, and not say I’d rather sit inside and have a cup of tea and deliver your Uber Eats on another day, that’s just not the market that we’re going after.” 

Roper said Volansi is also working to increase its payload capacity and range. 

While drone logistics are not as flashy as other uses for drones, they will save lives, Roper said. 

“I would love to make the world’s best boring drones, you know, meaning logistics and surveillance,” Roper said. “The drone flight characteristics are never supposed to be the stars of the show, it’s the things you carry that save lives, that save missions. It’s the pictures you take, the data you collect that save lives, those are the heroes.” 

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PODCAST: Sentient Jet CEO Talks International Expansion and the Jet Card’s Digital Transformation

Sentient Jet CEO Andrew Collins is this week’s guest on the Connected Aircraft Podcast.

On this episode of the Connected Aircraft Podcast, Andrew Collins, CEO of Sentient Jet joins as the guest to discuss the company’s recent international expansion, a surge in new private jet passengers, and how their Jet Card is performing in the digital age of chartered travel.

Sentient Jet, a subsidiary of Directional Aviation, is well known within the private jet charter market for pioneering the jet card, which is purchased by customers with all-inclusive hourly rates. In May, Sentient expanded its jet card program beyond the U.S., offering jet card owners trips between New York and London, with more European destinations available from their new London office as well.

Collins also gives some perspective on the importance of in-flight Wi-Fi on flights booked by Sentient.

Have suggestions or topics we should focus on in the next episode? Email the host, Woodrow Bellamy at wbellamy@accessintel.com, or drop him a line on Twitter @WbellamyIIIAC.

Listen to this episode below, or check it out on iTunes or Google Play If you like the show, subscribe on your favorite podcast app to get new episodes as soon as they’re released.

 

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Collins Aerospace Developing Generational Leap in Flight Control Processing Power for Perigon

Collins Aerospace is developing a next-generation flight control computer, Perigon, initially for military rotorcraft, with an eye toward other aircraft types as well. (Collins Aerospace)

The use of multicore processors, an input/output (I/O) card, and high-speed backplane are among the main elements giving Collins Aerospace the ability to establish 20 times the processing power of its existing flight control computers into Perigon, officials for the aircraft systems manufacturer told Avionics International during a recent interview.

Perigon is the next-generation flight control computer being developed by Collins, after first being launched by the company as a “next-gen vehicle management computer” at the 2018 Farnborough International Air Show. Darryl Woods, general manager of the flight control systems division of Collins Aerospace, told Avionics that Perigon’s initial development is for the rotorcraft market, but its embedded processing architecture could be scaled and adapted to a variety of aircraft across different segments including commercial airliners and military fixed-wing jets.

“In the past, flight controls, especially in the fixed-wing market, have used single processors for non-safety critical applications and dual processors for safety-critical fly-by-wire applications. These processors are typically single-core, or they may be multicore, but we turn off all the cores except for one—and they typically run at a speed of less than 1 GHz relative to what we’re doing with Perigon, where we’re above 1 GHz. Perigon has three dissimilar multicore processors and all three of those run higher than 1 GHz,” Woods said.

Computing performance expansion enabled by multicore processors is the result of linking multiple central processing unit (CPU) cores that share the tasks necessary to run an application into a single unit. This allows for the sharing of tasks and resources such as cache memory that would usually be separated out among multiple computers, to be run using the multiple cores of the singular processing unit.

However, in the past, avionics suppliers have not been able to take full advantage of multicore processors due to the interference challenges that arise because the use of multiple processing cores within any computer system can change the way the system shares resources such as memory or code on an on-demand basis. Those challenges were recently proven to be surmountable though, with CMC Electronics’ debut of the first civil certified avionics multicore computer, the PU-3000, earlier this year.

According to Woods, Perigon uses a small I/O card that executes I/O-related tasks and algorithms. This allows the multicore processors to primarily focus on running application-related tasks and algorithms. Perigon is also being designed to incorporate a high-speed VPX backplane to support the increase in processing power.

“The power computational density of the latest processors utilized in the Perigon has improved significantly from previous generations,” Woods said. “As the airlines and operators continue to demand more sophisticated function modes of flight controls like autopilot, autonomy or enhanced collision avoidance, the algorithms are getting much more complex and they need to be real-time. And there can’t be very much delay in the real-time data transfer. Some older technologies may provide real-time, but there could be a hundred milliseconds delay in getting that data, whereas with Perigon we’re talking much faster than that.”

Two of the key embedded suppliers working with Collins on the development of Perigon include Lynx Software Technologies and AdaCore. The LYNX MOSA.ic avionics software framework—a software framework that allows system architects to subdivide systems into small independent stacks—will serve as the “foundation” for Perigon’s development according to Lynx.

Collins also selected AdaCore’s QGen code generation for Simulink®/Stateflow® models and their new TQL-1 Enterprise Qualification Package for model-based engineering development of Perigon. AdaCore describes QGen as the first “qualifiable code generator for a safe subset of the Simulink®/Stateflow® modeling languages.

“The QGen code generator is being qualified by AdaCore and its partner Verocel at DO-178C Tool Qualification Level 1 (TQL-1), which is the highest level of qualification recognized by the FAA. QGen with TQL-1 allows developers to use the generated code without any manual review, streamlining the critical-system development and verification process. In addition, QGen includes an interactive model-level debugger, displaying the model together with the generated source code to provide a uniquely productive bridge between control engineering and software engineering,” AdaCore said in a July 20 press release.

Over the next year, Woods is leading a team of engineers developing Perigon in an aircraft-level simulation lab at their facility in Windsor Locks, Connecticut. Some of the main engineering work at this stage focuses on evaluating the processing speeds, application integration, and how multicore processor setup handles flight logic.

Kim Kinsley, vice president and general manager, environmental and airframe control systems for Collins Aerospace, told Avionics that the initial focus for Perigon’s development will be around supporting military rotorcraft applications. Perigon could however be adapted to civilian rotorcraft and other types of aircraft in the future though.

“Our experience is far deeper on the military side of the rotorcraft market, and we’ve been able to expand the capabilities of our systems as our customers develop new needs. In the military environment, we see future demands around managing pilot workload and figuring out how that helps them with their mission. There are also some new areas that we’re hearing about like aerial firefighting. If you think about aerial firefighting and the types of capabilities those systems need to perform, the ability to leverage a system like Perigon, especially in a degraded visual environment. There are some opportunistic adjacencies we’re seeing for Perigon, but a lot of our initial focus is more on the military side,” Kinsley said.

Collins expects Perigon to be ready for qualification testing by the end of 2022.

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DHL Express Adds 12 Electric Aircraft to Fleet with New Purchase

Eviation is expected to deliver the 12 Alice aircraft to DHL in 2024. (DHL)

DHL has purchased 12 electric aircraft from Eviation which will operate on all routes currently serviced by piston and turbine aircraft, the company announced in an Aug. 3 press release. 

 “We firmly believe in a future with zero-emission logistics,” John Pearson, CEO of DHL Express, said in a statement. “Therefore, our investments always follow the objective of improving our carbon footprint. On our way to clean logistics operations, the electrification of every transport mode plays a crucial role and will significantly contribute to our overall sustainability goal of zero emissions. Founded in 1969, DHL Express has been known as a pioneer in the aviation industry for decades. We have found the perfect partner with Eviation as they share our purpose, and together we will take off into a new era of sustainable aviation.”

Eviation’s electric aircraft, the Alice eCargo plane, will have a payload of 2,600 lbs. And a range of 815 kilometers, according to the release. The aircraft will require 30 minutes or less to recharge during flights. It also has fewer parts than traditional aircraft which will reduce maintenance costs and improve reliability. 

Eviation’s Alice aircraft could be used on feeder routes. (DHL)

“From day one, we set an audacious goal to transform the aviation industry and create a new era with electric aircraft,” Eviation CEO Omer Bar-Yohay said in a statement. “Partnering with companies like DHL who are the leaders in sustainable e-cargo transportation is a testament that the electric era is upon us. This announcement is a significant milestone on our quest to transform the future of flight across the globe.”

Eviation is expected to deliver the 12 Alice aircraft to DHL in 2024, according to the release. 

“The next time you order an on-demand package, check if it was delivered with a zero-emission aircraft like DHL will be doing,” Eviation Executive Chairman Roei Ganzarski said in a statement. “With on-demand shopping and deliveries on a constant rise, Alice is enabling DHL to establish a clean, quiet and low-cost operation that will open up greater opportunities for more communities.”

DHL has set sustainability goals that include investing 7 billion euros in efforts that reduce CO2 emissions by 2023, according to the release. The company has also committed to zero emissions by 2050. 

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Sustainable Aviation Fuels Aren’t Sustainable, Not Yet at Least

Neste is creating SAF from used cooking oils. (Neste)

Sustainable aviation fuels (SAF) are attractive to the aviation industry because they provide a large reduction of greenhouse gas emissions with little changes to current technology. SAF is a drop-in solution meaning current aircraft can use a 50 percent blend of SAF and Jet A with no modifications. It can also provide up to an 80 percent reduction in emissions compared to jet fuel. Because of these benefits, many companies have cited SAF as a major part of their strategy to get to net-zero emissions. 

Alaska Air Group GEO Ben Minicucci spoke in a June 30 Washington Post Live event about the company’s strategy to get to net zero emissions by 2040 and cited SAF as the most impactful solution in their plan. 

“…A big one, is sustainable aviation fuels,” Minicucci said. “This is probably the biggest enabler to get to 2040. There is a lot of work being done with the government on a SAF blender’s tax benefit and there’s a lot being done with industry to increase the amount of sustainable aviation fuel. So this will be a huge one, something that we all have to work out because it will have the largest impact.”

While the aviation industry has found an environmentally sustainable technology in SAF, the technology to produce it is not yet economically sustainable. SAF currently costs four times as much as conventional jet fuel and it makes up less than one percent of fuel available in the market. 

“Right now, the cost of sustainable aviation fuel on its own without any incentives, if you will, would cost maybe four or five times that of existing petroleum fuels and that’s not sustainable for the industry,” Sheila Dillard, the director of the bioenergy technologies office at the Department of Energy’s Office of energy efficiency and renewable energy, told Aviation Today

Experts in the aviation industry say that there is no one solution to increasing the supply of SAF, but a combination of policy incentives, capital investments, and time is necessary for these fuels to be an effective sustainable solution for the industry. 

Paul Stein, chief technology officer at Rolls-Royce PLC, compared the need for the development of SAF to the current COVID-19 vaccination production during a panel discussion at the remotely hosted Farnborough International Airshow Connect on July 14.

“Just have a look at the current vaccination crisis around the world and just how much the world has re-industrialized to produce billions of doses of vaccine,” Stein said. “It’s that sort of spirit that’s going to be required to get the scale into sustainable aviation fuels, and I think it’s entirely possible.”

Some in the industry are looking towards governments and policy programs to increase SAF. Naveed Hussain, chief technology officer and vice president and general manager at Boeing Research & Technology, said that to accelerate the scale of SAF available, there need to be incentive programs. 

“That’s going to involve a number of different elements, certainly things like incentive programs to make SAF economically competitive with Jet A for airlines and economically attractive relative to transport fuels for fuel producers, access to capital to enable the development of these new production capacities by the incumbents and also the startup fuel producers, and stable and predictable government policies to reduce the risk and enable a government support mechanisms to de-risk this capital,” Hussain said during the Farnborough International Airshow Connect on July 14. 

California has adopted the Low Carbon Fuel Standard (LCFS) which works to reduce greenhouse gas emissions by setting annual carbon intensity (CI) standards which reduce overtime for gasoline, diesel, and the fuels that replace them. The LCFS gives credits to fuels with low CIs and deficits for high CIs. Dillard cited this policy for encouraging the production of SAF. 

“Currently there is a policy of California, the LCFS, and that has enabled some initial deployment of the fats, oils, and grease technology pathways that are out there today because they’re getting an incentive for the CO2 reduction,” Dillard said. “That’s really helpful in overcoming that barrier, right, of that risk. We’re able to test those technologies there, we’re able to look at how that’s working, and it helps drive our research strategy.” 

There is legislation in Congress that could provide a similar blender’s tax credit for SAF nationwide. The Sustainable Skies Act would establish a $1.50 per gallon tax credit for SAF that reduces emissions by 50 percent. 

The Department of Energy has a $250 million budget allocated to research, development, and demonstration activities related to finding new pathways to create SAF, Dillard said. The pathways describe how SAF is produced. There are currently eight different pathways certified to produce SAF. 

Some companies like Neste—a Finland-based oil refining and marketing company—are using old cooking oils to make SAF through a process called hydro-treated esters and fatty acid (HEFA) that uses hydrogen to turn the oils into SAF, Pratik Chandhoke, technical services manager of renewable aviation at Neste, told Aviation Today

“Our SAF is produced from sustainable feedstock waste residues such as used cooking oil and animal fat, and then actually goes through a very, very involved process of getting it processed and certified,” Chandhoke said. “Generally, it’s very similar to jet fuel processing. This same kind of technology; it’s hydroprocessing, removing the oxygen component then further processing it to hydrocarbons. So very similar to an oil refinery. The only difference is that the feedstock is not from non-fossil sources.”

The Department of Energy and USDA have found that the nation could produce one billion tons of sustainable biomass feedstock from these used cooking oils, Dillard said. 

“We in the Department of Energy, working closely with USDA, developed a billion tonnes report, which is really 15 years of resource assessment and understanding the science behind the biomass feedstocks, and what we have done is identified that the nation could produce one billion tons of sustainable biomass feedstock pretty much without interrupting the existing markets for food feed, fiber, and any other possible uses of that biomass,” Dillard said. “So this would be the additional biomass that could be produced, simply for energy production.” 

However, these feedstocks will not be enough to sustain the amount of SAF the aviation industry will need to meet its goals while following sustainable practices. This is why the Department of Energy and private industry are researching other pathways to develop SAF. SkyNRG Americas is creating SAF from garbage, John Plaza, CEO of SkyNRG told Aviation Today. Plaza said that they take municipal solid waste in landfills and capture the methane that is emitted to create SAF. 

“SkyNRG America’s focus is really on garbage and the related sort of components of garbage,” Plaza said. “So we focus on municipal solid waste that ends up in a landfill…a near term opportunity we think is most interesting is to take the landfill gas, the methane that is emitted, collected, and either flared or used for making electricity or other things, to convert that into sustainable aviation fuel.”

Plaza said that using methane in this way could result in five billion gallons of SAF. That type of potential lead Boeing to partner with SkyNRG in an effort to accelerate SAF development globally. Alaska Airlines is a partner as well.

“The analysis from the Department of Energy, the EPA, and others who analyze this biogenic methane [says] if we were to capture 20 percent of what’s being emitted today, we could produce about five billion gallons of sustainable aviation fuel,” Plaza said. 

The problem is that to produce and distribute all of this SAF, there needs to be infrastructure. 

“Well, like any industrial fuel refining facility, there’s the need to find the right location to build it, the feedstocks need to be secured, the engineering and permitting process can be arduous and lengthy,” Plaza said. “This isn’t any different for any other facility if you think about the petroleum refinery industry, we face a lot less challenging than that industry, but it’s still a new refinery so that that’s a complex process.” 

Neste has been able to convert some of its conventional refineries to process SAF. Chris Cooper, VP of Renewable Aviation at Neste, said that the company has been able to accomplish this at refineries in Rotterdam and Finland. 

“In the form of proof of concept, Neste has accomplished it…We’re using a conventional refinery, we retooled the conventional refinery, we use common transportation and logistics such as pipelines, marine transportation, and even road transportation, where applicable,” Cooper said. “We also use infrastructure such as terminals or blending facilities that we need and common pipelines.” 

While policy support and investments are pushing along the development of SAF, there is no magic solution that can make SAF appear in the market. 

“We need to build capacity and that takes time,” Plaza said. “It’s not something that happens quickly, it’s a sophisticated process technology. There are long development cycles for these big industrial facilities.” 

The goal that the airline industry has set for itself is two billion gallons of SAF by 2030. There will be a lot of factors that go into meeting this timeline so it is hard to predict if its attainable, Dillard said. 

“We hope to bring more of these technologies closer to commercialization, which will accelerate the timeline,” Dillard said. “So I would say that we have a full approach looking between now, 2030 and 2050 when we really need to meet President Biden’s aggressive decarbonization goals, and we believe we can fully decarbonize the aviation sector in that timeframe. Sustainable aviation fuel plays a very important role in that, it’s not the only technology that’s working to decarbonize aviation, but it is a critical technology.” 

The post Sustainable Aviation Fuels Aren’t Sustainable, Not Yet at Least appeared first on Aviation Today.

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Anuvu to Expand In-flight Connectivity Service with New MicroGEO Satellites

Anuvu (formerly Global Eagle Entertainment) is expanding with new microGEO satellites. (Anuvu)

Two months after Global Eagle rebranded as Anuvu, the mobile connectivity and passenger experience provider is working on the launch of the Anuvu Constellation under a new partnership with microGEO high throughput satellite manufacturer Astranis.

Under the new partnership, Anuvu plans to launch a total of eight microGEO satellites, with the first two on track for early 2023. Astranis describes its satellites as microGEO because unlike traditional heavy geosynchronous equatorial orbit (GEO) satellites, they’re one meter cubed, weigh less than 400kg, and can be built in months rather than the traditional years-long development cycle required for new satellites.

Mike Pigott, Anuvu’s executive vice president, told Avionics International that he sees the partnership introducing a disruptive and more agile method of providing in-flight connectivity (IFC) service to airlines.

“We think this is a complete revolution and a game-changer in the IFC space. Our new partner Astranis has developed a satellite platform that is capable of rapidly being customized to an application, rapidly being built and rapidly being launched into service,” Pigott said. “So instead of the traditional five-year cycle of deterring whether we should build a satellite and what should go on that satellite, we can do all of that in 24 months and get a satellite that’s focused on our mobility applications.”

According to a July 27 press release, the first two satellites being developed for the Anuvu constellation will primarily serve their aviation and maritime operators in North America and the Caribbean. Anuvu is using the new partnership to add the microGEO satellites onto its existing constellation of the five fully-leased GEO satellites that it operates today.

Pigott sees the Astranis partnership as the most sensible next step for Anuvu, a company that under its former Global Eagle Entertainment brand has never actually developed or operated its own satellite network, choosing instead to purchase payloads on satellites and manage them in orbit. The network management system that they have developed will allow them to easily integrate the new smaller Astranis satellites into their existing operation.

The timing of the first two microGEO satellites coming online in 2023 is ideal for Global Eagle as well, as the company will also look to take advantage of Telesat’s Lightspeed Low-Earth Orbit (LEO) constellation. Telesat expects its LEO constellation—initially featuring up to 298 Ka-band satellites—to be ready to begin commercial services by the second half of 2023.

“The Anuvu constellation is our addition of micro GEO on top of our GEO assets. We still plan on using legacy heavy GEO satellites, micro GEO supplements, and then we’ve done a lot of testing with Telesat’s Lightspeed LEO constellations. We’re one of the pioneers with that, we did the first LEO to GEO handover tests with one of our antennas on our testbed aircraft. The reason we’re able to do that fundamentally is that when we entered the GEO market, we entered it with third-party satellites and built a network management system that is easily able to add capacity from a diverse set of satellites as new generations become available,” Pigott said.

As Anuvu moves toward the launch of the new constellation, Pigott said the company will continue to compete within the airline IFEC business while serving its existing base of Global Eagle airlines. Airlines using older and newer generations of Anuvu’s existing satellite IFC include Southwest Airlines, Icelandair, Turkish Airlines, Air France, and flydubai among others. According to Pigott, all of Anuvu’s existing in-service equipment supports in-flight streaming and bandwidth-intensive IFC applications, although the company leaves the decision up to the airline on whether or not to enable that feature for passengers. Pigott, who worked for Anuvu under the former Global Eagle Entertainment brand throughout its filing for Chapter 11 bankruptcy and emergence from that filing earlier this year, said the partnership with Astranis will also help them meet a shift in airlines wanting increased flexibility in the IFC business models they use.

“I’d say we are seeing in a post COVID world, the exact things that we think we excel at, and that’s additional flexibility. We’re seeing airlines want additional flexibility, not just for truly dramatic situations like COVID, but just general business market changes,” Pigott said. “I think the airlines around the world are recognizing that customer demand is only going up and they need some way to meet that customer demand on a business model that doesn’t break their budget. We have a variety of business models we use with airlines, such as flat pricing, session pricing, consumption pricing and we usually can find an ideal path based on the economic situation of the airline and the type of customer experience they want to enable.”

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Boeing Demos MQ-25 MUM-T Capabilities Without Ground Control Comms

The Boeing MQ-25 T1 test asset transfers fuel to a U.S. Navy F/A-18 Super Hornet on June 4, marking the first time in history that an unmanned aircraft has refueled another aircraft. The MQ-25 Stingray will assume the carrier-based tanking role currently performed by F/A-18s, allowing for better use of the combat strike fighters and helping extend the range of the carrier air wing. (Photo: Kevin Flynn)

In a new demonstration from Boeing testing advanced manned-unmanned teaming (MUM-T) capabilities, the Navy’s MQ-25 Stingray unmanned aerial refueler communicated with other manned aircraft without the need for an air vehicle operator on the ground. 

The demonstration occurred in a virtual environment with the MQ-25 communicating with the E-2D Advanced Hawkeye airborne command and control aircraft and the F/A-18 Super Hornet. The Office of Naval Research sponsored the demonstration and Northrop Grumman provided its E-2D simulator to work alongside Boeing’s F/A-18 and MQ-25 simulations.  

“Right now, MQ-25, it’s tied to the AVO, the air vehicle operator, almost 24/7,” Don “BD” Gaddis, MQ-25 Advanced Design at Boeing, told reporters on August 3 at the Navy League’s 2021 Sea Air Space expo. “It’s an autonomous vehicle but it flies a mission plan, right? And so if the mission plan has to change, well, then you communicate that change with the air vehicle operator, right. So what happens when those communication links are either degraded, denied, or prohibited by policy?” 

MUM-T is “central” to the MQ-25 because of the ranges that the aircraft is going to be flying at, Gaddis said. 

Dave Bujold, MQ-25 program director, told reporters that this demonstration is an acknowledgment that it is not acceptable for communications problems to prevent a mission from achieving its goals. 

“We want that airplane to be robust and capable when it goes to war,” Bujold said. “So we already know that there will be times that the carrier will decide it wants to shut its radios down and move and our airplane can’t just say I have to go home, that’s not okay. So we know that, the Navy’s told us that, and we’re working on that. The concept of working with the E-2 and working with a striker, like the F-18, cooperatively is building blocks that allow us to say, okay, when that next set of requirements comes down to be more warfighter capable, we’ll have that.” 

Boeing used existing Link 16 data to enable communication between the platforms and demonstrated 16 use cases during the exercise. The use cases included the E-2D acting as the air wing tanker king while the MQ-25 refueled the F/A-18. 

“What we mean by use cases is, okay, what happens if, in the mission plan, you’re going to take a certain range and a certain orbit from the carrier but because of tactical reasons you have to change the orbit station, right,” Gaddis said. “So how does the manned aircraft communicate that to the unmanned aircraft.” 

The use cases tested included the F/A-18 and E-2D changing the tanker’s orbit station, slight path, or aerial refueling store payload. 

There was also only minimal changes to the F/A-18 cockpit display and there were no software changes required for the E-2D, Gaddis said, emphasizing that this was true for the tanking mission but might change as other mission scenarios are tested. 

“One of the big things is, can we can we put together concepts and appointments with existing data links to meet all these particular objectives and do these use cases, and we found that, much to our surprise, for E-2, there’s not any software changes required for E-2 on some of the early manned unmanned teaming,” Gaddis said. “Now, I have to also emphasize that we’re talking about the tanking mission, right, so that’s our initial mission.”  

The autonomy software plays an important role in this kind of teaming because the system not only has to receive the Link 16 message, but then it has to convert the message into autonomy behaviors, Gaddis said. 

“The MQ-25 needs to understand that, hey, I’m not on the mission plan right now that I was pre-programmed to do, and, oh, by the way, I’m not talking to the AVO, I am actually talking to an E-2 to an F-18,” Gaddis. “So the MQ-25 has to transition between all those autonomous states and so that’s the software packages that we need to put together.” 

While this demonstration used Link 16, Gaddis said they are looking to transition to IP-based data links with a demonstration happening later this year. Boeing will also move these demonstrations to labs in 2022 and hopes to begin flight tests in 2023. 

Boeing will also be developing the capability to write the autonomy software and reuse it within other unmanned systems. 

“What Boeing needs to do is we need to be able to write the autonomy software and reuse the software for other unmanned systems,” Gaddis said. “A lot of those things that we’re doing can get into crossover into battle management, and a lot of this software can be used for manned aircraft. So the idea of writing the autonomy and being able to reuse it for other manned and other unmanned airplanes, not necessarily in queue, is key to moving forward swiftly with both manned unmanned capabilities.” 

Something that Boeing is not trying to do is create a proprietary data link. 

“Our objective is not to grow up a new proprietary setting, in fact, it’s the opposite,” Bujold said. “We expected autonomy will work best when we’re not tied to a whole bunch of proprietary setups.” 

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