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Archive for the ‘Army’ Category

Army Leverages Virtual Reality to Understand Network Influence

Saturday, June 5th, 2021

RESEARCH TRIANGLE PARK, N.C. — Immersive virtual reality isn’t just for amusement parks, the U.S. Army is funding research that uses it to understand group dynamics.

The U.S. Army Combat Capabilities Development Command, known as DEVCOM, Army Research Laboratory funded scientists at Kent State University’s Electrophysiological Neuroscience Laboratory to create an immersive virtual reality lab that can be used in tandem with their other biophysiological technologies to advance an interdisciplinary understanding of group dynamics.

Immersive reality combines virtual reality with images, sounds, or other stimuli to provide an engrossing environment.

According to Dr. Bruce West, a senior Army scientist, the military is becoming increasingly reliant on small special operations teams, but little is known about how small groups function in these extreme environments. The research team uses cutting edge electrophysiological and physiological equipment to probe team functioning and decision-making under threat.

“In order to make valid and efficacious practical recommendations for small special operations teams in the modern global military context and other threat environments, Soldiers can benefit by training in immersive virtual environments to make them feel like they are really there,” said Dr. Lisa Troyer, program manager, social and behavioral sciences, ARL. “The immersive virtual reality system at Kent State University is developing more valid, impactful knowledge about how teams and individuals navigate dangerous environments.”

The lab includes cutting edge virtual reality headsets with three-dimensional eye tracking and omnidirectional treadmills, which can be integrated with EEG and other emerging biometric technologies.

“With this lab, ENLoK is generating path-breaking social science discoveries,” Troyer said. “The team’s efforts are leading the use of immersive virtual reality and capabilities to identify neurological signals of influencers in groups that can support Army missions by better understanding Army influence networks as well as adversarial groups.”

In earlier research, also funded by ARL and published in Social Psychology Quarterly, the Kent research team conducted a series of experiments manipulating status and used brain activity analyses to successfully identify neurological signals during social interaction that are unique to others’ perceptions of high status actors and their influence over group members.

“Understanding the consequences of status-based behavior in a variety of settings, including small team contexts, can help the Army prepare and train for modern military operations,” said Dr. Will Kalkhoff, ENLoK’s director and professor of Sociology at Kent State University. “The Army can also use the knowledge we are developing to better understand how influencers in allied groups support Army missions through their social networks or how adversarial groups mobilize.”

Now, the research team at Kent State is partnering with MILO, an Ann Arbor, Michigan-based component of Arotech’s Training and Simulation Division that provides immersive training solutions for military and law enforcement organizations around the world. The objective is to improve police and military readiness by integrating rigorous social science with emerging technologies already in use throughout the Department of Defense.

“Support and assisted facilitation of this kind of social research is exactly why we established the MILO Cognitive Division,” said Robert McCue, MILO’s general manager. “Our ultimate goal is to advance the scientific understanding of behavior and decision-making under threat and, in so doing, reduce danger to our servicemen and women and improve mission success by facilitating team functioning under threat.”

By U.S. Army DEVCOM Army Research Laboratory Public Affairs

Inventus Power Awarded Nine-year, $1.25 billion Contract to Supply Conformal Wearable Batteries to the U.S. Army

Thursday, June 3rd, 2021

Inventus Power, a global leader in the design and manufacture of advanced battery systems for military, medical, commercial, and industrial markets today announced it has been awarded a $1.25 billion contract to supply Conformal Wearable Batteries to the U.S. Army over a nine-year period.

The United States Department of Defense released this contract information on its website on May 12, 2021.

Inventus Power, the inventor and current producer of warfighter wearable power, has been working closely with the U.S. Army for over a decade. In 2010, Inventus Power invented the Conformal Wearable Battery (CWB) for the U.S. Army, and since then, has delivered over 100,000 CWBs for its Nett Warrior Program and Small Unit Power programs as the sole source supplier.

Inventus Power’s CWB 150 (14.8V; 152Wh) is a safe, flexible, and wearable power source designed to increase the mission effectiveness of the warfighter. It is the only fielded and proven battery that meets 100% of the U.S. Army’s requirements and exceeds the MIL-PRF-32383/4A specification in several areas critical to warfighter safety and mission accomplishment. Its anti-ballistic and antipropagation technologies make it one of the most advanced battery systems in the industry.

“We take pride in our long-standing partnership with the U.S. Army and our commitment to supply them with the most advanced centrally-powered source available – CWBs,” stated Mark Fiedler, Program Executive and Vice President of Government Programs and Support (GPS) at Inventus Power. “We are proud of this opportunity to continue to support our U.S. Military during its modernization effort. Our CWB is a proven product that meets the power, performance, and safety needs of today’s soldiers while reducing their overall weight burden.”

Technological advances have equipped today’s soldiers with more portable electrical systems than ever before. As their power needs continue to grow, future advancements in wearable power will need to offer higher energy density without increasing a soldier’s weight load or risk in battle.

“Inventus Power practices a process of continuous improvement for all our products and our CWB continues to evolve to meet the central power source requirements for warfighters,” stated Ilyas Ayub, Executive Vice President of Global Product Development at Inventus Power. “With our deep-rooted history of designing safe, innovative, and reliable power solutions for mission-critical applications, we are confident in our ability to design and develop more advanced, next-generation CWBs to meet the increasing energy needs of the modern soldier.”

www.inventuspower.com

Saab Unveils and Demonstrates New Guided Multipurpose Munition

Tuesday, June 1st, 2021

Saab, in cooperation with the U.S. Army and Raytheon Missiles & Defense, has successfully demonstrated the new Guided Multipurpose Munition (GMM). The GMM System Capability Demonstration was a joint activity between Saab and Raytheon Missiles & Defense, funded under a U.S. Government Rapid Innovation Funding (RIF) effort awarded by the U.S. Army. This three-year contract effort culminated in a live firing demonstration in November 2020. RIF efforts are intended to support the development of promising technologies that address military capability to fulfill an operational or national need.

On November 5 2020, at the Yuma Proving Ground, Arizona, Saab, in collaboration with the U.S. Army and Raytheon Missiles & Defense, fired Guided Multipurpose Munitions for the first time with live warheads. GMM was fired from both the Carl-Gustaf recoilless rifle and an adaption of an AT4 disposable launcher. The munitions were guided to their target using a semi-active laser guidance system and designator.

Through a series of live fire engagements, multiple targets were engaged and destroyed at ranges from 1550 to 2500 meters. The targets were triple brick wall, double-reinforced concrete wall, and an up-armored vehicle, demonstrating the devastating combination of a high-performance break-in charge, and a follow-through charge designed to ensure effects even in hardened targets. The increased range, in combination with a Confined Space capability, will offer troops greater tactical flexibility when selecting a firing position.   

GMM represents the next step in both the evolution of guided man-portable munitions and the Saab-Raytheon collaboration, and expands the shoulder-launched guided capability to the AT4. GMM also has the capability for future applications on remote weapons stations, manned and unmanned aerial and ground systems, and indirect fire.

“GMM marks the next step in the evolution of our shoulder-launched systems. It is the most advanced munition yet and will offer greater precision, outstanding performance with pin-point accuracy and multi-target capability,” says Görgen Johansson, head of Saab business area Dynamics.

“Raytheon and Saab have been working together on the GMM, and take pride in the fact that they can provide the Army with a standard guided munition they can fire from prolific soldier-borne launchers as well as weapons stations and unmanned vehicles. This universal munition will increase overall lethality and help prepare for every conceivable conflict on the spectrum,” says Tom Laliberty, vice president of Land Warfare & Air Defense, a Raytheon Missiles & Defense mission area.

The initial work on GMM began in 2017, which resulted in the concept of the Guided Carl-Gustaf Munition that was demonstrated in September 2019.

Saab’s Carl-Gustaf and AT4 weapon systems are used by the U.S. Armed Forces as well as the ground forces of more than 40 other countries.

Similarity of Legs, Wheels, Tracks Suggests Target for Energy-Efficient Robots

Saturday, May 29th, 2021

ABERDEEN PROVING GROUND, Md. – A new formula from Army scientists is leading to new insights on how to build an energy-efficient legged teammate for dismounted warfighters.

In a recent peer-reviewed PLOSE One paper, the U.S. Army Combat Capabilities Development Command, known as DEVCOM, Army Research Laboratory’s Drs. Alexander Kott, Sean Gart and Jason Pusey offer new insights on building autonomous military robotic legged platforms to operate as efficiently as any other ground mobile systems.

Its use could lead to potentially important changes to Army vehicle development. Scientists said they may not know exactly why legged, wheeled and tracked systems fit the same curve yet, but they are convinced their findings drive further inquiry.

“If vehicle developers find a certain design would require more power than is currently possible given a variety of real-world constraints, the new formula could point to specific needs for improved power transmission and generation, or to rethink the mass and speed requirements of the vehicle,” Gart said.

Inspired by a 1980s formula that shows relationships between the mass, speed and power expenditure of animals, the team developed a new formula that applied to a very broad range of legged, wheeled and tracked systems – such as motor vehicles and ground robots.

Although much of the data has been available for 30 years, this team believes they are the first to actually assemble it and study the relationships that emerge from this data. Their findings show that legged systems are as efficient as wheeled and tracked platforms.

“In the world of unmanned combat aerial vehicle and intelligent munitions, there is a growing role for dismounted infantry that can advance, often for multiple days, and attack in the most cluttered terrain such as mountains, dense forests and urban environments,” said Kott who serves as the laboratory’s chief scientist. “That’s because such terrain provides the greatest cover and concealment against the unmanned aerial vehicles. That, in turn, demands that dismounted infantry should be assisted by vehicles capable of moving easily in such a broken terrain. Legged vehicles – possibly autonomous–would be very helpful.”

One of the problems with legged robots, Kott said, is they seem to have poor energy efficiency, which limits teaming with Soldiers in austere battlefields.

“For the past 30 years, U.S. military scientists have addressed a number of challenges in developing autonomous vehicles,” said Kott. “Ground vehicles that maneuver on wheels or tracks, and air vehicles that resemble small airplanes which we call fixed wing and small helicopters, which are rotary wing, are now quieter and easier to integrate in troop formations. But for legged platforms, many hurdles remain elusive, and a huge one is making them energy efficient.”

Soldiers cannot afford to carry fuel or batteries for “energy-thirsty legged robots,” he said.

The paper explores whether artificial ground-mobile systems exhibit a consistent trend among mass, power, and speed.

As a starting point, the team investigated a scaling formula proposed in the 1980s for estimating the mechanical power expended by an animal of a given mass to move at a given speed, and compared this to a range of artificial mechanical systems varying in size, weight and power that are autonomous or driven by humans.

The team found the answer to their research question: a similar, consistent relationship does in fact apply also to ground-mobile systems including vehicles of different types over a broad range of their masses.

Kott said this relationship surprisingly turned out to be essentially the same for legged, wheeled and tracked systems. These findings suggest that human-made legged platforms should be as efficient as wheeled and tracked platforms, he said.

To conduct this study, the team collected diverse ground mobile system data from a literature review of previous studies and published data sets.

They studied wide ranges of sizes and morphologies within a data set that combined systems that included for example a 17th century British canon, the Ford Model T, the M1 Abrams tank and an ACELA train.

Gart said their research is relevant to designing ground mobile systems because it helps designers determine tradeoffs among power, speed and mass for future terrestrial robots for defense applications.

One Army goal is to develop new types of autonomous, or partly autonomous, ground vehicle to deliver supplies to Soldiers in challenging terrains, he said.

“To haul supplies, it must be able to carry a certain weight, or mass, at a certain time, or speed,” Gart said.

The formula can approximate the amount of power that vehicle will need, researchers said.

“The Army must develop feasible yet ambitious targets for tradeoffs among the power, speed, and mass of future terrestrial robots,” Kott said. “It is undesirable to base such targets on current experience, because military hardware is often developed and used for multiple years and even decades; therefore, the specifiers and designers of such hardware must base their targets–competitive yet achievable–on future technological opportunities not necessarily fully understood at the time of design.”

The formula developed in this paper gives such a target and could enable the Army to make predictions of future performance of ground platforms such as legged robots given design constraints like vehicle and motor weight and desired speed, he said.

Lightning Edge 21: 25th Infantry Division Exercises Multi-Domain Task Force Capabilities

Thursday, May 27th, 2021

SCHOFIELD BARRACKS, Hawaii – Soldiers with the 25th Infantry Division conducted Exercise Lightning Forge 21 here from May 10 to 14 as part of a larger ongoing Army effort to modernize, test, and evaluate its Multi-Domain Task Force (MDTF).

These efforts focus entirely on defeating a competitor’s Anti-Access and Area Denial capabilities.

As part of these efforts, the 25th Inf. Div. conducted Multi-Domain Operations (MDO) targeting exercises, which allowed Soldiers to test systems and further develop concepts and methods for training and integrating Electronic Warfare and Signals Intelligence equipment as part of tactical operation.

Lightning Edge 21, in simultaneous conjunction with Exercise Northern Edge 21 in Alaska, validated over-the-horizon targeting integration between the 25th Inf. Div. and its higher headquarters, as well as the MDTF’s All Domain Operations Center (ADOC).

“The 25th Inf. Div. continues to play a significant role in the integration of these capabilities that support the MDTF,” said Maj. Peter Hwang, an officer assigned to the 25th Inf. Div. Intelligence section. “We understand that this integration of capabilities provides deterrence options for combatant commanders, which is why we train to achieve target refinement, handover, prosecution, and integration of MDO capabilities.”

Beyond the initial set-up and training that took place, the 25th Inf. Div. remotely connected to the MDTF through the ADOC at Joint Base Lewis-McChord (JBLM), Washington in order to enable a shared Common Operating Picture (COP), exchange over-the-horizon data, and to take action against simulated targets on Oahu.

“As America’s Pacific Division, we must train and be prepared to fight in a joint environment,” said Lt. Col. Michael Kotich, the 25th Inf. Div. chief intelligence officer.  “This requires synchronization, being embedded with other services, and, most importantly, integrating our own systems to allow us to see the COP in order to explore ways to deter competitors.”

“These are the sort of processes that we can only become experts at through multiple iterations of training exercises like Lightning Edge,” Kotich added.

The first MDTF originally had a field artillery brigade at its core that merged with an Intelligence, Information, Cyber, Electronic Warfare and Space, or I2CEWS, at JBLM.

A second MDTF is being planned for activation in Europe later this year.

These total force capabilities take into consideration the requirements that future battlefields may have.

“It is critical that we train accordingly and to do our best to integrate multi-disciplinary capabilities to achieve dominance across all domains,” said Hwang.

By MAJ Tania Donovan

The Joint Fight: Arctic Paratroopers and HIMARS Build Combat Power During Northern Edge 21

Saturday, May 22nd, 2021

FORT GREELY, Alaska — Paratroopers with 4th Infantry Brigade Combat Team (Airborne), 25th Infantry Division, conducted an airborne operation May 11, 2021, onto Allen Army Airfield, Fort Greely, Alaska, as part of Northern Edge 2021.

Following the seizure of the airfield, an M142 High Mobility Artillery Rocket System (HIMARS) battery from the 17th Field Artillery Brigade out of Joint Base Lewis-McChord arrived and conducted a live fire exercise at nearby Donnelly Training Area.

Approximately 300 paratroopers from the 1st Battalion, 501st Parachute Infantry Regiment, out of Joint Base Elmendorf-Richardson, Alaska, exited from U.S. Air Force C-17 Globemaster III and C-130 Hercules aircraft while A-10 Thunderbolt IIs orbited, providing close air support. Once on the ground, paratroopers moved to their assembly areas to consolidate and secure the airfield as additional C-130s and C-17s landed with more paratroopers, equipment and the HIMARS battery.

The HIMARS battery with 5th Battalion, 3rd Field Artillery Regiment, was air transported from Cold Bay, Alaska, and fired a full volley of rockets that demonstrated the ability of the joint force to quickly build and implement combat power.

Conducting a JFEO as part of a joint operation is nothing new to the Spartan paratroopers who train for operations like this all year long.

“We’ve been doing this for a long time, and each paratrooper knows their role,” said Maj. Michael Conforti, the operations officer for 1-501st PIR. “You never know if an aircraft will have a mechanical issue, or someone will get injured, so the key to success is that each paratrooper also knows the jobs and duties of everyone else around them.”

Understanding the role of adjacent units and enhancing the ability to work together are key components of exercise NE21.

NE21 is a U.S. Indo-Pacific Command sponsored, Headquarters Pacific Air Forces led U.S. joint field training exercise scheduled for May 3-14, 2021, in locations in and around Alaska that uses realistic scenarios to improve joint combat readiness.

The Spartan Brigade is the only airborne infantry brigade combat team in the Indo-Pacific Command and provides the combatant commander with the unique capability to project an expeditionary force by air across Pacific and Arctic regions.

By MAJ Jason Welch

US Army Scientists Developing Solutions to Improve Thermal Toughness in the Arctic

Tuesday, May 18th, 2021

NATICK, Mass. – For the Arctic Soldier, thermal toughness is essential for operating and training in the coldest conditions. Scientists from the U.S. Army Research Institute of Environmental Medicine are developing solutions to make this ability a reality.

These innovations could not come sooner. The increasing accessibility of the Arctic has led to the U.S. Army focusing on rebuilding its ability to operate in extreme cold-weather conditions. This spring, the Army released its Arctic Strategy, which lays out how the service can better position itself to operate in the region.

The strategy includes plans about establishing an operational two-star headquarters with specially trained and equipped units. The Army also has ongoing efforts to improve the quality of life for its Soldiers, civilians and families who live and work in the Arctic-region installations.

USARIEM’s cold research team has spent decades studying the effects of cold weather on warfighter health and performance. Dr. Karl Friedl and Dr. John Castellani have been key players in the field.

Friedl, USARIEM’s senior research scientist for Army physiology, has studied the limits of human performance in extreme environments, including the cold. He has even joined Arctic training exercises to learn first-hand what Arctic warfighters need to fight and win. Castellani, a research physiologist, has led USARIEM’s efforts in studying the causes, management and treatment of major cold injuries, including trench foot, frostbite and hypothermia.

Both scientists know better than anyone that “A man in the cold is not necessarily a cold man.” Yet, to get to that level, Soldiers need a high level of preparation and training, as well as every advantage the Army can provide.

Modern Guidance for Modern Warfighters

“A very critical part of the training is to learn the early signs of cold on the body and to understand how to be comfortably cold,” Friedl said. “The Soldier has to know when they can readily recover and when they are entering a physiological danger zone of cold exposure where they must take action immediately.”

Training in the Arctic is a formidable task. In cold conditions, a single mistake may be only minutes from disaster. A lost glove, an ignored cold foot, heavy sweating during exertion, or a snowmobile accident can result in a rapidly progressing injury without hope for a quick evacuation to warmer surroundings or even shelter from the freezing temperatures.

Castellani explained that freezing and non-freezing cold injuries are treatable when they’re caught early. When left untreated for too long, they can result in lifelong nerve damage, or worse, loss of appendages.

“We certainly know what causes these injuries,” Castellani said. “The next thing we need to do is to develop solutions and guidance to prevent them in the first place. Modernizing the Army’s medical guidance on cold injury prevention, Technical Bulletin Medical 508, is one of our most significant efforts.”

TB Med 508 gives military and civilian healthcare providers medical guidance for cold-weather conditions. This medical guidance is based on decades of USARIEM’s research on health and performance in cold weather. Some of the topics in TB Med 508 include information on how the body responds to the cold, how Soldiers should prepare when deploying to the Arctic and how to mitigate and treat different cold-weather injuries.

USARIEM published the most recent copy of TB Med 508 in 2005. Castellani’s team is now leading an effort to update this guidance in partnership with the Office of the Surgeon General, specially trained Army Arctic installations, and several military hospitals and training centers.

“This is going to be a significant update to the Army’s medical guidance on cold weather,” Castellani said. “We are particularly focused on the treatment sections. We are also adding new guidance derived from significant data findings on performance in cold, wet environments, like swamps and bogs.”

Friedl added that USARIEM also develops predictive models that will help the AI-enabled warfighter plan missions and mitigate injuries in cold or wet environments. These include solutions like the Cold Weather Ensemble Decision Aid, or CoWEDA, which prevents hypothermia and frostbite by predicting how long warfighters can endure the cold based upon their clothing, activity and environmental conditions. The CoWEDA was recently used by Soldiers in the 2021 Arctic Warrior Training Exercise.

Another mission planning tool is the Probability of Survival Decision Aid, or PSDA, a computer program that predicts an individual’s survival time during water immersion by taking to account hypothermia and dehydration. The PSDA has been transitioned to the U.S. Coast Guard since 2010 and is implemented as a mandatory element to their Search and Rescue Operations. It has also been transitioned internationally to collaborative partners.

A Hands-On Approach

Improving cold-weather guidance is only part of the solution. According to Castellani, even the best equipment and guidance do not benefit Soldiers if they cannot use their hands and fingers in the field.

“The loss of hand dexterity can occur because the body’s natural reaction to more frigid temperatures is to decrease blood flow to the hands and feet,” Castellani said. “The body sends that blood to protect and warm the core, where major organs are located. The problem is that warfighters need hand dexterity for many military-relevant tasks, including shooting, handling equipment and treating injured Soldiers.”

Castellani is leading several USARIEM efforts in developing physiological and technological solutions to improve hand blood flow. These solutions could lead to Soldiers having warmer hands and fingers and improved dexterity in cold conditions. These innovations could especially come in handy as the Army veers toward using gear that requires more dexterity and hand function.

One of these solutions includes USARIEM’s forearm heating device, called the Personal Heating Dexterity Device, or PHD2. Castellani’s team has developed a prototype of the PHD2 for field testing using two parallel efforts, both in-house and through the Small Business Innovation Research program. His team is preparing to test the product in the field next winter with Alaska National Guard troops during Arctic Eagle 2022.

“Our previous research has shown that warming the forearm increases hand and finger temperatures significantly,” Castellani said. “The result is that Soldiers can have improved hand dexterity.”

His team is also conducting a Defense Health Program-funded effort this year to examine the effect of a cocoa-based flavanol supplement in cold conditions. Studies have shown that flavanol, a nutrient often found in cocoa beans and tea leaves, can help improve blood flow. The researchers are now testing if taking this supplement could increase blood flow to the hands and fingers, improving hand dexterity in the cold.

The researchers will be testing other methods of hand-warming in future studies, including one on occlusion training and another on cold-weather habituation. Occlusion training is typically used in bodybuilding. It involves intermittently restricting blood flow in the arm and allowing it to flow again every five minutes. According to Castellani, recent studies have shown that this method may increase normal blood flow. His team will be investigating whether this method can be used to improve hand function in the cold. The research study is being proposed for the fiscal year 2022.

He added that USARIEM’s cold habituation study will be learning how people’s bodies get used to the cold over time. It is unknown how this change occurs in our bodies.

“We’re trying to understand what changes happen in your skin and underlying tissue that help you adapt to a cold environment after you have been exposed to it for a while,” Castellani said. “This will help us develop novel countermeasures that will improve thermal toughness.”

Approximately 11,600 Soldiers serve at Fort Wainwright and Joint Base Elmendorf-Richardson under the command of U.S. Army Alaska. While there are no current plans to station more Soldiers in Alaska, a decision on that could occur within a year.

As an increasing number of Soldiers pour into the Arctic, it’s important that Army scientists ensure that Soldiers will have the biomedical solutions needed to fight and win in the frigid temperatures. According to Friedl, USARIEM is up for the task.

“It has been said that Soldiers who successfully perform in the Arctic can function in any other environment in the world,” Friedl said. “USARIEM has been the U.S. Department of Defense leader in cold physiology research for over 50 years. This research improves our understanding of what Soldiers need to be resilient in these environmental extremes.”

By Mallory Roussel

Vivo Barefoot – Tracker Forest ESC

Thursday, May 13th, 2021

Designed in conjunction with wilderness experts from Wild Human and the Independent Adventurer, Vivo Barefoot’s Tracker Forest ESC is a rather unconventional hiking boot.

Their Wildhide leather is naturally scarred and comes from free-roaming cattle sourced from small scale farmers.

Above you can see the Michelin Esc Sole. Sausage laces are paired with barrel eyelets.

Additionally, these do not incorporate a waterproof membrane. Instead, they rely on construction and the use of Renapur Leather Balsam (included with boots) to keep the leather water resistant, yet facilitate breathability.

As you can see, this simple construction offers a great deal of flexibility.

Made in Vietnam.

www.vivobarefoot.com/us/tracker-forest-esc-mens