A technology that harnesses augmented reality will enable the U.S. Air Force to train in the air for initial pilot qualification, dogfighting, refueling and maneuvering. The A-TARS augmented reality platform, or Airborne Tactical Augmented Reality System, developed by California-based Red 6, provides virtual opponents, such as the fifth generation Chinese J-20 and Russian Su-57, for pilot’s aerial dogfighting training runs, as well as other aerial digital assets to develop and enhance different piloting skills.
From elaborate buildings constructed by on-site 3D printers to synthetic fish for testing hydroelectric projects, U.S. national laboratory scientists are exploring the state of the art in additive manufacturing. Their goal is to develop new techniques that can be transitioned to commercial applications as well as explore advances that could revolutionize industrial manufacturing.
Additive manufacturing, also described as 3D printing, is opening up new pathways to production. While many of these are dead ends as economics and logistics limit some of the hoped-for applications, others offer the potential to be game changers in the manufacturing arena.
Printed body parts are taking shape in laboratories, but printed industrial parts may not always fit the bill. Issues such as reliability, integrity and longevity must be determined on a case-by-case basis as custom parts are devised and built.
A new, highly precise photon sensor could help advance the science of growing human tissue, such as bones, skin or vital organs, in the laboratory and could benefit warfighters and society. The potential applications include monitoring environmental conditions, such as poison gases on the battlefield or toxins in the home.
Researchers recently announced that they can use a groundbreaking 4D-printing process to create material capable of morphing into the likeness of a human face, the most complex shape-shifting structure ever. The research may one day lead to advances in dynamic communications, soft electronics, smart fabrics, tissue engineering for medical purposes, robotics and an array of commercial applications.
Many people looking at the technology of the future have focused on electronics and software. While these two have fueled the information revolution, another technology is poised to impose significant changes on life at large. Additive manufacturing, or 3D printing, has the potential to alter the way items are made and economies of scale are leveraged.
The Secure 5G and Beyond Act, the Promoting United States Wireless Leadership Act and the Prague Proposals have topped the headlines in recent months. All three are focused on security.
Quantum computers will revolutionize information technology, ushering in an era where certain types of calculations will be performed with almost unimaginable speed. Practical applications will include healthcare disciplines such as molecular biology and drug discovery; big data mining; financial services such as portfolio analysis and fraud detection; and artificial intelligence and machine learning.
A national laboratory supercomputer used to model neutron star collisions now is peering into inner space to explore potential vulnerabilities in COVID-19. The Summit supercomputer at Oak Ridge National Laboratory (ORNL), described by officials there as the world’s most powerful and smartest, is matching small-molecule drug compounds against the coronavirus in the hope of blunting the virus’s activities on two fronts.
The Army xTechSearch team announced that due to concerns about COVID-19, the technology pitch for the xTechSearch 4 Semifinals will now be held via a live-streamed event open to the public.
The competition seeks out innovative, dual-use technologies emerging in the U.S. technology, entrepreneur and small business ecosystems.
The interactive, live-stream prize competition will focus on 20 companies participating in the xTechSearch 4 Semifinals and will allow the contestants to showcase their technologies and make a supporting business plan proposal to a panel of judges.
Up to 10 participants with the highest-ranked pitches will receive cash prizes of $120,000 and advance to the finals.
A mushroom cloud explosion in the New Mexico desert on July 16, 1945 forever changed the nature of warfare. Science had given birth to weapons so powerful they could end humanity. To survive, the United States had to develop new strategies and policies that responsibly limited nuclear weapon proliferation and use. Warfare is again changing as modern militaries integrate autonomous and semiautonomous weapon systems into their arsenals. The United States must act swiftly to maximize the potential of these new technologies or risk losing its dominance.
“There’s a war out there, old friend. A world war. And it’s not about who’s got the most bullets. It’s about who controls the information. What we see and hear, how we work, what we think … it’s all about the information.” These lines are from the 1992 movie Sneakers, a film exploring the possibility of a decryption machine that could break any code, obliterating the ability to protect secrets. Nearly three decades later, the fictitious decoder still doesn’t exist, but the importance of data has grown exponentially.
Bruce Jette, the assistant secretary of the Army for acquisition, logistics and technology, has announced the start of the fifth Army Expeditionary Technology Search competition, also known as xTechSearch.
The xTechSearch competition seeks novel, disruptive concepts and technologies to support the Army's top modernization priorities, medical technologies, military-engineering technologies and other critical technology focus areas that can provide technology advancement or enable cost savings throughout the Army systems' life cycle.
The U.S. Navy is cloning ship systems by creating digital twins that will help improve procurement and training times. Part of the service’s migration to the digital environment, the digital twins project is being incorporated into the 26 ships of the USS Theodore Roosevelt strike group. It will allow new systems to develop, and sailors to train, in their deployment environment.
Long-extant technologies will team with advances only dreamed of in laboratories if planners have their way in building the Army network of the future. The service is revamping its approach to networking in light of changes to the warfighting picture, and its scientists are working on a multitude of complementary technologies and capabilities that will be needed to empower future Army networks.
The electronics supply chain to the West faces a greater threat from total cutoff than from having its components tinkered with by malefactors, according to some experts. Many measures currently in place to help ensure quality also serve to thwart saboteurs and counterfeiters. However, a far greater menace looms in the potential for a complete damming of the flow of chips and circuit boards, as the United States and most Western countries lack the infrastructure to pick up fabrication and manufacturing on short notice.
The U.S. Army’s work on advancing its tactical network through its “capability package construct” will pull in significant capacity, added resiliency and interoperability, leaders say. The Army is leveraging more commercial solutions than ever, as well as its own Science and Technology Directorate research and development, to bring a competitive edge.
As part of its latest pursuit of solutions for the Integrated Tactical Network concept, or ITN, the Army is going after high capacity commercial satellite communications, protected waveforms, mid-earth-orbit constellations, and space-based Internet.
The electronics supply chain is the aorta to the global economy. Both the military and the commercial sectors rely on it to provide the lifeblood necessary to flourish, yet the security of that same supply chain, with its ubiquitous importance, potentially holds the key to their demise.
Various threats menace the security of the electronics supply chain. It is susceptible to attacks from many different vectors and from a diverse set of actors. These attacks can serve any number of purposes and take on many guises.
One of the more exotic technologies being explored for Army networking is ultraviolet communications. It can be employed for non-line-of-sight (LOS) communications or direct LOS, and it is harder for an adversary to detect, as atmospheric absorption limits its range. This also reduces an enemy’s ability to jam the signal.
The ability to provide deep sensing for long-range fires, confront improvised explosive devices, increase the survivability of aircraft, protect forces, and conduct intelligence, surveillance and reconnaissance, all hinges on an advanced tactical network on the battlefield.