SIG MMG 338 Program Series

Archive for the ‘Research’ Category

SOFWERX – Security at the Edge Virtual Collaboration Event

Thursday, March 10th, 2022

SOFWERX, in collaboration with SOF Acquisition, Technology, and Logistics (SOF AT&L) Science and Technology (S&T) Directorate Network and Data Management Capability Focus Area (NDM CFA), will host a series of events starting 5 April 2022, to identify technologies with automated capabilities that provide edge device endpoint security, cloud security to protect data at the edge, and network edge security within SOF operational environments.

In austere environments, edge computing devices provide the ability to handle processing on the device or local server and transmit only the relevant data by eliminating latency, which is essential for SOF Operators. Unfortunately, edge computing devices are designed to prioritize functionality and connectivity over security. This makes SOF Operators’ edge computing devices extremely vulnerable to sophisticated nation state threat actors’ cyber attacks. Edge computing devices can take essentially any form and endpoints are everywhere due to the proliferation of Internet of Things (IoT) devices. The SOF Operator needs to ensure they are making decisions based on trusted data and have protections against zero day attacks. The need for protection against advanced persistent threats (APTs), nation state sponsored cyber attacks, data integrity capabilities, and overall zero trust solutions for the main three components of edge computing devices are critical for the current and future SOF operational environments.

RSVP NLT 29 March 11:59 PM ET.

Find further details at events.sofwerx.org/security

Rheinmetall Italia Signs Memorandum of Understanding with MBDA Italia to Cooperate in Air Defence

Wednesday, March 9th, 2022

MBDA Italia and Rheinmetall Italia have signed a memorandum of understanding to explore possibilities for collaborating in the area of air defence including disruptive technologies and in the national and European defence funds domain.


During a two-year timeframe, the two companies will study ways of working together with the ultimate aim of developing joint business opportunities in Italy and the international marketplace. MBDA Italia and Rheinmetall Italia will create joint working groups tasked with identifying possibilities for joint technological development and business opportunities.

MBDA Italia is part of MBDA, the only European defence group capable of designing and producing missiles and missile systems that correspond to the full range of current and future operational needs of the three armed forces (land, sea and air).

Rheinmetall Italia is one of Europe’s foremost suppliers of air defence and radar technology. Rheinmetall’s centre of excellence in this high-tech domain, the company has over fifty years’ experience in the design, development and manufacture of air surveillance and tracking radars. Production focuses on short- and very short-range air defence systems.

SOFWERX – Innovation Foundry Event

Monday, March 7th, 2022

SOFWERX, in collaboration with USSOCOM’s Directorate of Science and Technology (S&T), will host the tenth Innovation Foundry (IF10) Event 03-05 May 2022. S&T Futures seeks to bring together U.S. and International Special Operations Forces (SOF), Industry, Academia, Government and futurists in an exploration design thinking facilitated event to assist USSOCOM in decomposing future scenarios and missions to develop concepts for future SOF operator skillsets and traits in a 2040 timeframe. The theme of IF10 is “Future SOF Teams: Diversity of Skillsets and Traits.”

IF10 participants will explore the impact of future missions, operating environments, and social and technological changes to SOF Operators, the people who are the core of the SOF enterprise.

To ground the discussion, IF10 participants will use a fictional mission scenario that reflects the complex interplays of social, technological, political, and cultural factors as they might play out in 2040 to explore the human dimensions of the challenge, the skillsets and traits needed for SOF operators in 2040 and beyond.

U.S. Citizens Only

Submit NLT 27 March 11:59 PM ET. Visit events.sofwerx.org/if10 for details.

Simplified Human/Machine Interfaces Top List of Critical DOD Technologies

Thursday, February 17th, 2022

WASHINGTON — A modern-day cell phone packs quite a wallop when it comes to computing technology and capability. But most cell phones barely come with a “quick start guide,” let alone an instruction manual that spells out how to use all the features.

Cell phone companies have mastered the interface between humans and technology, making their use entirely intuitive and rendering thick instruction manuals a thing of the past.

The same thing should be happening for weapons systems used by servicemembers, Heidi Shyu, who serves as the undersecretary of defense for research and engineering, said. During a virtual discussion today with the Potomac Officers Club near Washington, D.C., she said intuitive, easy-to-use human/machine interfaces is something that’s a priority for her and the Defense Department.

“When I [served as an executive for the] Army before, one of the experiences I learned is with a lot of our weapons system, you really have to have a manual and go through weeks of training, if not months and years to be proficient, which is ridiculous,” she said. “[Weapons systems] ought to be designed with the appropriate ease-of-use human/machine interface, so it will become much more intuitive.”

As the Defense Department’s chief technology officer, Shyu said she’s interested in developing better ways to simplify the way service members use the technology they are given in order to reduce the training burden and learning curve.

“I really would like to see how we can change our weapons systems’ human/machine interface to be a lot more intuitive, to ease the amount of training that’s required,” she said.

For most service members, combat means use of a weapon such as a rifle, an aircraft that can drop a bomb or launch a missile, or a ship or tank that fires a large gun that requires a round to be loaded. All of these kinetic weapons systems fire solid projectiles which need to be carried along with warfighters, and which may eventually run out. But a new generation of weapons systems, which uses directed energy rather than expendable ammunition or ordnance, is on the horizon, Shyu said.

“In the area of directed energy, we’re … finally at the cusp of developing laser technology,” she said. “After 30 years, we’re finally getting to the point of fielding the prototypes. So I’m thrilled. Army and Navy are [both] fielding laser systems. I’m really happy to see that. We’re also developing high-power microwave systems as well.”

The Optical Dazzling Interdictor, Navy program, or ODIN for short, is a nonlethal weapons system used to confuse and perhaps render harmless an enemy drone — rather than shooting it down.

The ODIN system is already installed on multiple Arleigh Burke-class guided-missile destroyers within the Navy’s fleet, and there are plans to install additional systems as well.

The Army is also developing several directed energy systems. One of those is the Directed Energy Maneuver-Short Range Air Defense, or DE M-SHORAD system, which involves a 50kW-class laser to protect divisions and brigade combat teams from unmanned aerial systems, rotary-wing aircraft, and threats from rockets, artillery and mortars.

The department is also interested in the development of advanced materials, Shyu said.

“I’m certainly interested in materials that can handle higher heat, higher temperature, next-generation hypersonic materials,” she said. “I’m interested in material that’s stronger, but lighter weight. It certainly can help us reduce the logistics burden; and also materials that can have higher efficiency — materials that can potentially change properties. [There are] a lot of different areas within advanced materials we need to continue to push the research in.”

The department is also doing its part to bring the manufacture of microelectronics back to the U.S. to improve supply chain reliability, Shyu said.

“You guys have all heard about the situation that we’re in with the supply chain, where 70% of our chips are coming from Asia,” she said. “That poses a supply chain risk. You can see there’s a lot of interest on the Hill in terms of helping out the microelectronics foundries to try to onshore some of the capabilities.”

Shyu said the Defense Department is working closely with the Department of Commerce and with foundry companies to make that happen.

“We also work very closely with intelligence communities to make sure we understand all the needs and figure out how we can leverage commercial processes which can evolve at a much faster rate than just the defense-unique foundry,” she said.

Finally, Shyu said, the department is interested in having the U.S. take the lead on the development of 5G technologies — and the advancement of the next-generation of radio communications as well.

“I call it the ‘next G’,” she said. “Namely, beyond 5G. What I don’t want to happen is for us to take our eyes off the ball and play catch-up. I’m interested in making sure we’re developing technologies on 6G and 7G, so we, the U.S., can shape the standards, as opposed to some other country shaping the standard and us playing catch-up.”

By C. Todd Lopez

SOFWERX – Optical Character Recognition (OCR) Translation Collaboration Event

Friday, February 4th, 2022

SOFWERX, in collaboration with USSOCOM Science and Technology (S&T) Joint Acquisition Task Force (JATF), will host a series of events to identify solutions for optical character recognition text to text translation technology from Industry, Academia, Laboratories, and other interested organizations. The desired end state is to understand the current capabilities and determine if those solutions are compatible with ongoing translation efforts.

The Phase I collaboration event kicks off on 16 March 2022 with other events to follow.

RSVP NLT 02 March 2022 11:59 PM ET to participate.

Details at events.sofwerx.org/optical

Consortium Partnered with Army Research Lab Completes 10-year Program to Advance Armor Materials

Friday, February 4th, 2022

ABERDEEN PROVING GROUND, Md. — The Materials in Extreme Dynamic Environments Collaborative Research Alliance, or MEDE CRA, culminated its 10-year program with a virtual capstone event, co-hosted by the U.S. Army Combat Capabilities Development Command, known as DEVCOM, Army Research Laboratory and Johns Hopkins University.

More than 180 people participated in the event, including principal investigators, students from consortium universities, Army researchers and industry partners. Representatives from U.S. Army Futures Command, Office of the Assistant Secretary of the Army for Acquisition, Logistics, and Technology, Office of Naval Research, National Ground Intelligence Center, National Science Foundation, Department of Energy and other DEVCOM subordinate organizations participated as well.

The alliance is a basic research program led by Johns Hopkins University, which includes a consortium of 25 university and research partners located in 13 states and three foreign countries. MEDE has developed a materials-by-design strategy, which has resulted in innovative protection materials and computational design codes for armor applications. These new concepts will support the Soldier Lethality and Next Generation Combat Vehicle modernization priorities. According to DEVCOM ARL Director Dr. Patrick Baker, MEDE successfully achieved its mission by focusing on the three key elements of a basic research program: relevance, team, and science.

Maj. Gen. Edmond “Miles” Brown, DEVCOM commanding general, highlighted the capstone with a keynote address. He described a multinational force that was attacked while on patrol during a deployment to Afghanistan. The body armor they wore provided the necessary protection to survive the attack and make it back home safely. Additionally, Brown described the evolution of body armor from the time he entered the U.S. Army to present day, and the importance of basic research programs like the MEDE CRA.

Sen. Ben Cardin and Sen. Christopher Van Hollen of Maryland expressed their congratulations to the MEDE CRA. Cardin noted that MEDE has graduated 76 Ph.D. students and transitioned 55 postdoctoral fellows. More than 200 undergraduates participated in research activities; 62 of whom were from HBCUs and minority serving institutions. This highlights the program’s real dedication to inclusivity and diversity, he said. Van Hollen added that MEDE will help save American lives and keep troops safer for years to come.

Officials said a hallmark of the MEDE CRA is its impact on workforce development. Including the university faculty, students, postdoctoral fellows, and DEVCOM ARL researchers, over 600 individuals have been involved in the MEDE research. These individuals include high school and undergraduate student apprentices sponsored through DEVCOM’s Army Educational Outreach Program, and the Army Research Office’s partnered research initiative for HBCUs and minority serving institutions. The MEDE CRA ensured these valuable opportunities were incorporated into the core research program.

Prof. Lori Graham-Brady of Johns Hopkins and Dr. Sikhanda Satapathy, DEVCOM ARL, presented the numerous accomplishments of the MEDE CRA. According to Satapathy, the goal of the program was to look at the materials or different material classes at different scales, starting from the atomistic scale to the application scale. To achieve this, the MEDE program developed a rigorous mechanism-driven materials-by-design strategy that resulted in new magnesium alloys, boron carbide, and glass-epoxy composites.

In each material, MEDE was able to achieve a weight reduction and improved performance. These discoveries were translated into computational design codes which assisted in validating the experimental data. Industry partners were able to scale-up the laboratory produced materials for ballistic evaluation at DEVCOM ARL.

Graham-Brady said by improving these armor materials they will have a real impact on keeping people safe, which, she said, motivated much of the research.

The capstone included a MEDE CRA video, which provided an overview and successes of the program.

Awarded in April of 2012, the Materials in Extreme Dynamic Environments (MEDE) collaborative research alliance is a ten-year, basic research program which has developed a materials by design process which has improved protection materials for armor applications. Research activities were performed jointly amongst academia, the DEVCOM Army Research Laboratory (ARL), and industry.

This video highlights the tangible successes of the program.

Funding for MEDE created a center within HEMI. For more information, visit hemi.jhu.edu/cmede.

The impact of MEDE to the broader science community will be felt for years, Graham-Brady said. To date, MEDE university personnel and DEVCOM ARL researchers have authored 478 peer-reviewed journal articles. These articles have been cited over 8,000 times. To ensure the legacy of the MEDE CRA, special edition journals featuring MEDE research have been published.

Johns Hopkins University President Ronald Daniels expressed his appreciation to the U.S. Army for sponsoring the MEDE CRA. Johns Hopkins’ partnership with the Department of Defense was seeded in 1940 with the creation of the National Defense Research Committee. MEDE’s innovations will continue to shape the future of the government-university research through the doctoral students and postdocs now working in DOD and national laboratories, academia and global industry.

As the Army’s foundational research laboratory, ARL is operationalizing science to achieve transformational overmatch. Through collaboration across the command’s core technical competencies, DEVCOM leads in the discovery, development and delivery of the technology-based capabilities required to make Soldiers more successful at winning the nation’s wars and come home safely. DEVCOM Army Research Laboratory is an element of the U.S. Army Combat Capabilities Development Command. DEVCOM is a major subordinate command of the Army Futures Command.

By Dr. Victor Nakano, Johns Hopkins University

Photos by Jessica Ader, David Jordan, and Will Kirk

AFWERX Agility Prime Completes First USAF-piloted Flight of an eVTOL Vehicle with Partner Kitty Hawk

Saturday, January 29th, 2022

WRIGHT-PATTERSON AIR FORCE BASE, Ohio (AFNS) —  

The AFWERX Agility Prime program took another step forward in December with the first government remotely piloted flight of an electric Vertical Takeoff and Landing, or eVTOL, aircraft.

Capt. Terrence McKenna, an Air Force Reserve pilot with the 370th Flight Test Squadron and the Test and Experimentation Lead for AFWERX Agility Prime, participated in remote pilot in control, or rPIC, training on the Heaviside aircraft at the Kitty Hawk Corporation’s facility in Palo Alto, California from Dec. 13-17, 2021.

The training culminated in the first government remote piloted flight of an eVTOL aircraft when he successfully flew the Heaviside via the Buddy Box System. This first Airman flight demonstrated another key milestone in the collaboration.

Kitty Hawk, in partnership with Agility Prime, is evaluating a training syllabus for their unmanned eVTOL aircraft, the Heaviside. McKenna’s 15-plus years of expertise piloting manned aircraft such as the C-5 Galaxy and the T-38 Talon, as well as designing, developing, and testing manned and small unmanned aircraft systems, or sUAS, as a civilian engineer, assisted Kitty Hawk’s team of engineers in refining both their product and their training procedures.

Kitty Hawk: Building on the Wright Brothers’ Legacy

Kitty Hawk Corporation was founded in 2010 by Sebastian Thrun and is backed by Google co-founder Larry Page. Their series of Heaviside aircraft are just several in a line of over 20 various eVTOL prototypes. Kitty Hawk is headquartered in Palo Alto, California and conducts much of its testing there. In July 2021, the U.S. Air Force granted Kitty Hawk airworthiness approval, enabling the company to take advantage of additional testing opportunities through a partnership with Agility Prime.

Josh Lane, a flight test engineer for Agility Prime, began working with Kitty Hawk in March 2021 and has collaborated with Kitty Hawk to develop test plans supporting their prototype testing and goals to commercialization.

Focusing on Federal Aviation Administration revised Part 23, the safety standards and type certification requirements for small aircraft, and other potentially relevant parts of the Code of Federal Regulations, eVTOL companies like Kitty Hawk gained a greater understanding of the requirements they would have to comply with in order to gain type certification. However, Lane explained that the road to certification for eVTOLs is an ongoing, collaborative process.

“These are new designs that don’t fit the FAA mold, and there’s not a 100 percent fit in some of these companies’ cases, so there’s a lot of engagement going on getting this path to a certified FAA aircraft,” Lane said. “They’re using baseline parts and working with the FAA to determine what that certification basis is and what areas to be adjusted and addressed.”

McKenna concurred, saying, “Agility Prime is figuring out how we approach training for these types of aircraft. This is a whole new ballpark.”

The Heaviside Aircraft

Named for the English engineer, physicist, and mathematician Oliver Heaviside, the Heaviside is Kitty Hawk’s current flying model. The company has worked through several iterations of this vehicle and are in the planning stages for the next.

The Heaviside was first deployed in 2019 after nearly a decade of development. This aircraft’s maximum takeoff weight is approximately 880 pounds, allowing for a passenger up to about 176 pounds. Heaviside can travel at speeds of roughly 180 miles per hour, but most significantly, it remains quiet: only about 35 decibels at 1,500 feet above ground level, which is slightly louder than a whisper and about 100 times quieter than a helicopter. Additionally, Heaviside has demonstrated 237 transitions between hover and forward flight, as well as a range of 100 miles on a single charge.

Heaviside takes advantage of several advanced technologies, such as Distributed Electric Propulsion, as this aircraft has eight fully electric propellers. Additionally, Lane explains that Kitty Hawk has refined its use of automated flight capabilities through its Ground Control Station, or GCS; engineers can upload a flight plan, telling the vehicle to fly to certain locations, and the Heaviside can perform the entire flight profile without human intervention.

However, a training feature of the Heaviside is the Buddy Box setup, which is a secondary remote controller wired to a primary controller. This system is intended for the use of an instructor and a student performing the duties of an external pilot in manual flight mode; the trainee handles and operates the aircraft while the instructor provides supervision and support.

The Buddy Box system works much like a driver’s education car: the driving instructor is in the passenger seat and allows the student to manually operate the vehicle, but is ultimately in full control and able to brake if necessary. Likewise, for a Buddy Box setup, the instructor can override any direction that the rPIC gives the aircraft from the primary controller.

The Heaviside and future models will not rely on an external pilot for flight operations, but utilizing this training method now affords the opportunity for more immediate and qualitative feedback on the aircraft, while also building out a training syllabus for the GCS operator.

Training with Capt. Terrence McKenna

Though the current training plan for the Heaviside includes a five-day familiarization course and a 12-day rPIC qualification course, McKenna participated in elements of only the familiarization course.

Kitty Hawk utilizes techniques such as Scenario-Based Training, which is derived from the FAA’s Airmen Certification Standards and places the student in lifelike situations in order to complete each lesson objective. Additionally, Kitty Hawk employs Learner-Centered Grading, allowing students to assess their own performance in open conversation with their instructor.

Agility Prime chose McKenna to participate in this training because he fulfilled Kitty Hawk’s trainee prerequisites, which include possessing either a military pilot rating or an FAA Part 107 and 61 certificate. Through a building-block approach, students must also demonstrate proficiency in flying smaller remote control, or RC, aircraft, such as fixed-wing aircraft and quadcopter, before graduating to the Heaviside.

During the week in California, McKenna primarily concentrated on the duties of the external pilot, flying in manual mode, rather than automated flight and operating the GCS. Days 1 and 2 focused on ground academics, including simulation training, preflight checklists, and exposure to the Heaviside’s GCS. Inclement weather kept the aircraft grounded, but McKenna reported a productive day of reviewing operations and discussing syllabus development.

Then, on Day 3, after completing several flights on smaller remote control aircraft, McKenna successfully piloted the first U.S. Air Force flight of an Agility Prime-sponsored vehicle, navigating the Heaviside through the sky as the External Pilot at Kitty Hawk’s test site. By the end of the day, McKenna had conducted three successful flights, focusing on vertical maneuvers, takeoff and landing, manipulation on all axes, auto-hover, and manual flight.

McKenna described that operating as the external pilot allows pilots to get a feel for what the aircraft is capable of as it moves through the sky.

“It’s a different paradigm for operating the aircraft,” McKenna said. “A crucial thing that the RC controller allows you to do that a completely unmanned or a completely ground-controlled station based approach does not is [gain] that intuition about the flight characteristics of the aircraft that are so important [for operational employment].”

Days 4 and 5 concluded the week by training McKenna on fixed-wing flight, outbound and inbound transitions to vertical flight, and flying full profiles. McKenna reported enthusiastic satisfaction with the tested training methods from Agility Prime, Air Education and Training Command’s Det 62, and Kitty Hawk.

“I feel very confident in the training [including] pre-study, ground academics, simulation work, and surrogate flights to get us to this point,” McKenna said.

Syllabus Development in Partnership with AETC’s Detachment 62

While McKenna indeed learned to remotely pilot the Heaviside, a crucial objective of the weeklong exercise was to evaluate and improve the training plan itself for future operations.

“The main objective is to help collaboratively develop syllabi for these platforms with Kitty Hawk and our AETC detachment [Det 62],” McKenna said.

To monitor and evaluate McKenna’s training process, AETC sent out Det 62 personnel to lend their experience with developing flight training plans. The Det 62 team worked closely with Kitty Hawk and the Agility Prime test team to draft an initial syllabus for McKenna for test and training. The team coordinated with Kitty Hawk’s analysts, as well as Agility Prime, to observe, gather data, review training processes, and conduct detailed debriefs along the way. Moreover, Brittney Tough, Kitty Hawk’s senior flight training manager, also brought extensive knowledge and experience to the table and served as an asset to government flight test teams.

“There’s an opportunity between the military and the civilians to learn from each other on good practices and approaches to training plan development,” Lane said. “I’m certain that there’s going to be some learning going in both directions.”

Looking forward to the potential military utility of the Heaviside, Lane expressed the vitality of the AETC’s presence at and contribution to the project.

“It’s huge that AETC sent out this detachment, and they’re doing this early work to lower risk and pave the path for integrating one or more of these companies’ systems into military use, and trying to make sure that’s as seamless as possible,” Lane said.

Lane and McKenna both emphasized the importance of Agility Prime’s early involvement and cooperation with industry in order to accelerate the development of the eVTOL market.

“There’s three legs to the stool: training, the aircraft itself, and the logistics to support it,” Lane explained. “The typical goal is to have your training system in place, so that when you field a system, you have people that are ready to use it.”

McKenna spoke to the success of Air Force early involvement through Agility Prime with eVTOL companies like Kitty Hawk.

“That interaction is paying dividends, and it’s continuing to grow,” he said. “Firsthand, I’ve seen that interaction prove fruitful on both ends.”

Additional Successes: BVLOS Flight and FlyOhio

The first U.S. Air Force-piloted flight of an eVTOL builds on recent highlights and milestones in the Agility Prime program. On Nov. 10, 2021, Kitty Hawk successfully completed its first beyond visual line of sight, or BVLOS, flight during the Ohio Advanced Air Mobility Showcase, organized by FlyOhio, at the Springfield-Beckley Municipal Airport, near Wright-Patterson Air Force Base.

“The Air Force has been a strong partner for us as we bring eVTOLs closer to being ready for human flight,” said Sebastian Thrun, Kitty Hawk chief executive officer. “In Ohio, we hit an important milestone making us the first UAM provider to fly a remotely-piloted aircraft BVLOS in a non-restricted air space.”

Using SkyVision, a ground-based detect-and-avoid system developed by the Air Force Research Laboratory, in conjunction with the Ohio Department of Transportation, Kitty Hawk safely maneuvered Heaviside among other manned flight traffic.

“The Heaviside BVLOS testing provides an excellent example of Agility Prime’s aim to partner with industry and provide access to key government test resources, such as SkyVision, and [this] expertise continues to help advance the commercial eVTOL industry,” said Col. Nathan Diller, AFWERX director.

Heaviside’s Goals and Ecosystem Impact

The Heaviside’s utility extends into both the commercial and military worlds. Kitty Hawk hopes to provide a commercial air taxi service, but their eVTOL presents a multitude of opportunities for both civilian and government use.

Ultimately, Kitty Hawk hopes to lower costs with their vehicle, making aerial ridesharing more accessible and affordable to the general population.

McKenna noted that potential military and industry use cases largely overlap for the Heaviside: the aircraft could transport injured personnel, evacuate people from hostile territories, deliver cargo or first aid, make emergency medical services more accessible in rural areas or congested cities, and assist with firefighting or search and rescue operations, among many other potential scenarios.

“What we’re trying to do is develop a training pipeline in the Air Force to understand these types of aircraft,” McKenna said. “If we can get a joint Air Force-industry experimentation team, we can now open the aperture on engagements for these types of aircraft dramatically.”

Regardless of how these vehicles are put to use post-certification, Lane drew attention to the practicality of implementing eVTOL aircraft into society. Though Prime focuses on how the Heaviside and its competitors affect the National Airspace System, new eVTOL technology will impact the entire aviation ecosystem.

“Most simplistically, it’s more than just aircraft; it’s these airsystems and the entire ecosystem that they will fly in and that need to support them,” Lane said. “There’s research and testing activity going on to develop, enhance, and bolster the National Airspace System so that we can start incorporating these new capabilities.”

Overall, both McKenna and Lane praised the teamwork necessary to achieve this milestone flight.

“We’re establishing the interaction and the processes to make sure everything is vetted and approved and done in a safe manner,” McKenna said. “It’s a great way to accelerate innovation, supporting industry and keeping up with them. It’s been a great team effort, and I’m excited about how it came together.”

By Katie Milligan, AFWERX

MOSA Expedites Army Modernization Efforts at Aviation, Missile Center

Saturday, January 15th, 2022

REDSTONE ARSENAL, Ala. — It’s more than just a buzzword — it’s the way of the future for Army aviation.

MOSA — modular open systems architecture (or approach) — has become a popular term in recent years in the defense community, but it’s something the U.S. Army Combat Capabilities Development Command Aviation & Missile Center’s Joint Technology Center/System Integration Laboratory has worked on for years. That expertise and baseline is helping the DEVCOM Aviation & Missile Center adapt technologies quickly, efficiently and at a lower cost to support Army modernization efforts.

“While it’s a new term today, for us it’s business as usual,” said Joe Reis, Multiple Unified Simulation Environment lead for the JSIL. “We’ve been striving for the last 10 years to try to break our software down into components so it can be reused. Wherever possible, we started adopting all these different standard protocols with the vision of being able to reuse those components and being able to integrate with more than just ourselves. With that we’re able to stretch into areas we never have before.”

At DEVCOM AvMC, the MOSA success story starts with MUSE — the Multiple Unified Simulation Environment — a command and staff trainer. Originally created to provide Intelligence, Surveillance and Reconnaissance simulation capabilities, today the government-developed and sustained MUSE software baseline is being used in a variety of systems, including advanced teaming, part of AvMC’s support to the Future Vertical Lift Cross-Functional Team. The JSIL works primarily with unmanned aircraft systems, to include Shadow, Gray Eagle, Reaper and Global Hawk.

“The MUSE baseline was the foundational software that we began with for the Advanced Teaming effort,” said JSIL Software Lead James Bowman III. “We’ve been modifying and enhancing the MUSE baseline for over 20 years, by incorporating customer capability requests, keeping pace with industry standards and maintaining an accreditation (Authority to Operate — ATO). It would not have been possible for the Army to constitute the capabilities inherent in MUSE in time to meet the needs of Army Futures Command.”

“We’ve leaped into this research and development field instead of just being a trainer, because of being able to break these components down,” Reis added.

For the AvMC team, that is the whole point of MOSA — delivering solutions expeditiously to the Army and the Warfighter.

“MOSA is taking a modular approach, and for us, that’s just not theoretical,” Bowman said. “Software modularity allows the teams to share components across our enterprise, thereby negating duplicative efforts. It is paramount that the government continue to address intelligent software design, since it is our responsibility to provide quality solutions to and for the Warfighter that are concurrently cost-optimal for the government.

“We work to ensure that there is an intentionality to identifying common capabilities, already resident in MUSE, in order to exploit for utilization in our UAS Trainer solutions. Obviously, if not properly implemented, there can be challenges with code synchronization. JSIL addresses this by adhering to industry standard software processes and by utilizing Azure DevOps to ensure solution integrity. Consequently, stove-pipe solutions are a thing of the past. Once a bug is fixed in a component, all software that utilizes that component inherits the benefits of the fix.”

Another MOSA success story is the JSIL’s support to the Synthetic Training Environment Cross-Functional Team. The Reconfigurable Virtual Collective Trainer-Air uses the MUSE baseline foundationally, merged with work the JSIL did for the Air Force, to create a UAS software baseline for the RVCT-A.

“We would not have been able to support the high op-tempo of the RVCT-A effort had we not leveraged and utilized this MOSA construct,” Bowman said. “We continue to be energized about the possibilities of utilizing the MUSE and collective decades of UAS modeling and simulation domain knowledge to address current and emerging requirements.”

What’s next for MOSA at AvMC? The JSIL team will support swarming unmanned aircraft systems, part of the work being done with Advanced Teaming and Air Launched Effects. That effort includes incorporating an Army Game Studio Image Generator, which will reduce the money spent for commercial off the shelf rendering engine licenses and maintenance fees, a price tag that runs over $1 million alone for one UAS variant.

“If we can take that million-dollar expenditure and invest it in an existing GOTS image generator, that cost just goes away,” Bowman said. “MOSA is not just some buzzword, in our view, the implementation thereof provides tangible evidence of how we save the Army money, and how we get solutions to the soldier expeditiously, because we’re constantly building on a pre-existing, well-vetted, foundation.”

AvMC supports a variety of partners with MOSA, to include Program Executive Office Aviation; PEO Simulation, Training and Instrumentation; the Air Force Agency for Modeling and Simulation; PEO Intelligence Electronic Warfare & Sensors; and the FVL and Synthetic Training Environment CFTs.

“All of this work that we have done and are very proud of also has a global impact,” Bowman said. “We work with coalition partners, and because we adhere to these standards, when we show up to an exercise, not only are we operating our simulation, our coalition partners ask us at times to help them and we do that proudly. We’re U.S. citizens working with our coalition partners that are going to go to battle with us in the event that hostilities break out. We’re very proud to work with these standards to support not just the U.S., but its partners.”

By Amy Tolson, DEVCOM Aviation & Missile Center Public Affairs