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Archive for the ‘Disruptive Tech’ Category

Army, Air Force Fund Research to Pursue Quantum Computing

Saturday, March 20th, 2021

RESEARCH TRIANGLE PARK, N.C. — Joint Army- and Air Force-funded researchers have taken a step toward building a fault-tolerant quantum computer, which could provide enhanced data processing capabilities.

Quantum computing has the potential to deliver new computing capabilities for how the Army plans to fight and win in what it calls multi-domain operations. It may also advance materials discovery, artificial intelligence, biochemical engineering and many other disciplines needed for the future military; however, because qubits, the fundamental building blocks of quantum computers, are intrinsically fragile, a longstanding barrier to quantum computing has been effective implementation of quantum error correction.

Researchers at University of Massachusetts Amherst, with funding from the Army Research Office  and the Air Force Office of Scientific Research, identified a way to protect quantum information from a common error source in superconducting systems, one of the leading platforms for the realization of large-scale quantum computers. The research, published in Nature, realized a novel way for quantum errors to be spontaneously corrected.

ARO is an element of the U.S. Army Combat Capabilities Development Command, known as DEVCOM, Army Research Laboratory. AFOSR supports basic research for the Air Force and Space Force as part of the Air Force Research Laboratory.

“This is a very exciting accomplishment not only because of the fundamental error correction concept the team was able to demonstrate, but also because the results suggest this overall approach may amenable to implementations with high resource efficiency, said Dr. Sara Gamble, quantum information science program manager, ARO. “Efficiency is increasingly important as quantum computation systems grow in size to the scales we’ll need for Army relevant applications.”

Today’s computers are built with transistors representing classical bits, either a 1 or 0. Quantum computing is a new paradigm of computation using quantum bits or qubits, where quantum superposition and entanglement can be exploited for exponential gains in processing power.

Existing demonstrations of quantum error correction are active, meaning that they require periodically checking for errors and immediately fixing them. This demands hardware resources and thus hinders the scaling of quantum computers.

In contrast, the researchers’ experiment achieves passive quantum error correction by tailoring the friction or dissipation experienced by the qubit. Because friction is commonly considered the nemesis of quantum coherence, this result may appear surprising. The trick is that the dissipation has to be designed specifically in a quantum manner.

This general strategy has been known in theory for about two decades, but a practical way to obtain such dissipation and put it in use for quantum error correction has been a challenge.

“Demonstrating such non-traditional approaches will hopefully spur more clever ideas for overcoming some of the most challenging issues for quantum science,” said Dr. Grace Metcalfe, program officer for Quantum Information Science at AFOSR.

Looking forward, researchers said the implication is that there may be more avenues to protect qubits from errors and do so less expensively.

“Although our experiment is still a rather rudimentary demonstration, we have finally fulfilled this counterintuitive theoretical possibility of dissipative QEC,” said Dr. Chen Wang, University of Massachusetts Amherst physicist. “This experiment raises the outlook of potentially building a useful fault-tolerant quantum computer in the mid to long run.”

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

DARPA Awards Silvus Up to $13.1M to Develop Distributed Beamforming Solution

Wednesday, March 17th, 2021

Under RN DMC Program, Silvus to Enable Resilient, Long-Range Comms Over Large Geographic Areas

Los Angeles, California (March 16, 2021) – Silvus Technologies, Inc. (“Silvus”) today announced the company has been awarded a contract worth up to $13.1 million as part of DARPA’s Resilient Networked Distributed Mosaic Communications (RN DMC) program. Under RN DMC, Silvus will develop a distributed beamforming/beamnulling solution to enable resilient, long-range terrestrial communications of up to 100km using multiple collaborative radios distributed over hundreds of meters.

RN DMC stems from DARPA’s investment in mosaic warfare, a concept in which large numbers of lower-cost systems, referred to as “tiles,” are deployed to perform complex mission functions in a coordinated fashion. By building a mosaic of inter-connected tiles, functions such as command and control, communications, and sensing can be performed with more resilience and higher performance.

Building on a proven track record of developing real-time solutions enabling distributed frequency and time synchronization, Silvus’ solution for RN DMC is dubbed Mosaic Scattered Wide-Area Resilient Network (MScWRN or M2N). M2N will enable spatially distributed beamforming and beamnulling with minimal communications required between tiles, resulting in mosaic clusters that are able to bridge large range gaps while seamlessly interoperating with the rest of a traditional Silvus mesh network.

“The reliability of long-range communications utilizing multiple radios distributed over large distances is a critical component in DARPA’s vision of mosaic warfare,” said Dr. Babak Daneshrad, Chief Executive Officer of Silvus. “The RN DMC program will enable the continued development of our M2N solution, and we look forward to demonstrating its matured operation.”

Note to readers:

Since 2018, DARPA has placed significant emphasis on the development of “Mosaic Warfare,” bringing together individual warfighting platforms to create a larger “force package.”

Under the Resilient Networked Distributed Mosaic Communications (RN DMC) program, Silvus will develop a beamforming/beamnulling solution that will enable reliable and resilient long range terrestrial communications utilizing multiple collaborative radios distributed over large distances – an integral component to DARPA’s vision for the future of Mosaic Warfare.

Breakthrough Lays Groundwork for Future Quantum Networks

Wednesday, March 17th, 2021

RESEARCH TRIANGLE PARK, N.C. — New Army-funded research could help lay the groundwork for future quantum communication networks and large-scale quantum computers.

Researchers sent entangled qubit states through a communication cable linking one quantum network node to a second node.

Scientists at the Pritzker School of Molecular Engineering at the University of Chicago, funded and managed by the U.S. Army Combat Capability Development, known as DEVCOM, Army Research Laboratory’s Center for Distributed Quantum Information, also amplified an entangled state via the same cable first by using the cable to entangle two qubits in each of two nodes, then entangling these qubits further with other qubits in the nodes. The peer-reviewed journal, Nature, published the research in its Feb. 24, 2021, issue.

“The entanglement distribution results the team achieved brought together years of their research related to approaches for transferring quantum states and related to advanced fabrication procedures to realize the experiments,” said Dr. Sara Gamble, program manager at the Army Research Office, an element of the Army’s corporate research laboratory, and co-manager of the CDQI, which funded the work. “This is an exciting achievement and one that paves the way for increasingly complex experiments with additional quantum nodes that we’ll need for the large-scale quantum networks and computers of ultimate interest to the Army.”

Qubits, or quantum bits, are the basic units of quantum information. By exploiting their quantum properties, like superposition, and their ability to be entangled together, scientists and engineers are creating next-generation quantum computers that will be able solve previously unsolvable problems.

The research team uses superconducting qubits, tiny cryogenic circuits that can be manipulated electrically.

“Developing methods that allow us to transfer entangled states will be essential to scaling quantum computing,” said Prof. Andrew Cleland, the John A. MacLean senior professor of Molecular Engineering Innovation and Enterprise at University of Chicago, who led the research.

Entanglement is a correlation that can be created between quantum entities such as qubits. When two qubits are entangled and a measurement is made on one, it will affect the outcome of a measurement made on the other, even if that second qubit is physically far away.

To send the entangled states through the communication cable—a one-meter-long superconducting cable—the researchers created an experimental set-up with three superconducting qubits in each of two nodes. They connected one qubit in each node to the cable and then sent quantum states, in the form of microwave photons, through the cable with minimal loss of information. The fragile nature of quantum states makes this process quite challenging.

The researchers developed a system in which the whole transfer process—node to cable to node—takes only a few tens of nanoseconds (a nanosecond is one billionth of a second). That allowed them to send entangled quantum states with very little information loss.

The system also allowed them to amplify the entanglement of qubits. The researchers used one qubit in each node and entangled them together by essentially sending a half-photon through the cable. They then extended this entanglement to the other qubits in each node. When they were finished, all six qubits in two nodes were entangled in a single globally entangled state.

“We want to show that superconducting qubits have a viable role going forward,” Cleland said.

A quantum communication network could potentially take advantage of this advance. The group plans to extend their system to three nodes to build three-way entanglement.

“The team was able to identify a primary limiting factor in this current experiment related to loss in some of the components,” said Dr. Fredrik Fatemi, branch chief for quantum sciences, DEVCOM ARL, and co-manager of CDQI. “They have a clear path forward for increasingly complex experiments which will enable us to explore new regimes in distributed entanglement.”

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

Army Expeditionary Warrior Experiments (AEWE) 2022 Calls for White Papers

Tuesday, March 9th, 2021

The Army Expeditionary Warrior Experiment (AEWE) 2022 will assess concepts and capabilities of merit for individual Soldier and small unit modernization within the context of Multi Domain Operations (MDO) and Cross Domain Maneuver (CDM).  

The AEWE 2022 learning demands will be examined in terms of SEE, TALK, SENSE, DECIDE, and ACT. The end state is that small units overmatch peer threats in lethality, maintain momentum to pursue threats over extended distances for more than 72 hours of continuous operations. Capabilities of interest enable the small unit to:

SEE: Understand the terrain in three dimensions, the electromagnetic spectrum, the threat, non-combatants and friendly forces through technologies like enhanced small unit mission command systems enabled by artificial intelligence, applications on ATAK and Nett Warrior, and heads up displays.

AEWE 2022 is open for Submissions. White Papers and Quad Charts due NLT COB 01 APRIL 2021. See our website to download and complete all AEWE 2022 documents:

www.benning.army.mil/MCoE/MCDID/MBL/Live-Experimentation

Please send all submissions to:

usarmy.benning.tradoc.mbx.mbl-expeditionary-warrior-experiments@mail.mil

and

Janet Sokolowski

janet.sokolowski.ctr@mail.mil

(706) 544-8107

SOFWERX – Tag, Track, and Locate Transformational Technology

Wednesday, February 17th, 2021

This isn’t an ordinary game of tag

The newest topic for Tech Tuesday has been released! SOFWERX and USSOCOM are searching for transformational technologies to tag, track, and locate air, surface, and underwater moving objects. Desired capabilities will emphasize reduced physical contact to tag and the ability to track through water.

Selected organizations will have the opportunity to virtually pitch their cutting-edge technology to interested Government partners during a 30-minute discussion. Tech Tuesday hosts Government attendees from all Services, USSOCOM, DHS, OSD, ODNI, FBI, DOE, NASA, and FVEY groups.

To submit, visit sofwerx.org/techtuesday

Is It Time for an Additive Manufacturing Specialist in the Army Ordnance Corps?

Saturday, February 13th, 2021

FORT RILEY, Kan. – The Army supply chain of the future will incorporate additive manufacturing (AM), most commonly found in the form of 3D printing, to increase readiness. Using this technology at the point of need will reduce costs and increase unit mission capability.

The U.S. Army Ordnance Corps is in an excellent position to embrace this emerging technology, and ultimately, enhance Army lethality by developing Soldier expertise to support additive manufacturing programs.

Under the Combat Capabilities Development Command, the Expeditionary Lab of the U.S. Army’s Rapid Equipping Force, or Ex Lab for short, operated 3D printers in deployed environments for nearly ten years, expediting the repair of equipment in combat areas.

In 2019, the Army established the Additive Manufacturing Center of Excellence as a hub for developing processes and standards to field additive manufacturing capabilities across the Army supply chain. The Army also invested in developing the materials needed to support future requirements and overcome current limitations.

Scientists at the ARL are working to develop filaments that are mechanically strong but useable in low-cost 3D printers. Using a combination of plastic polymers in a unique geometry, the ARL hopes to allow printing for a wider range of parts with samples scheduled for distribution and testing in the near future.

Field results are promising, and demonstrate maintenance units in the future will be able to make repairs in hours, develop custom solutions to complex problems, or reduce the on-hand stock and logistical requirements to support an expeditionary fighting force.

AM exhibited limited success in creating hard to find parts, manufacturing parts for legacy systems, and at the small unit level, printing 3D aids for explosive ordnance disposal training.

In the future, the technology could be migrated to the tactical level with teams of engineers and Soldiers collaborating to produce designs allowing the manufacture of physical solutions near the point of need.

But what if the expertise to design and print parts was staged closer to the point of manufacture? Current Army programs rely on engineers’ and scientists’ expertise to be effective. Few studies have been done on how the processes being developed will translate at a larger scale in an austere environment.

Existing programs rely on connectivity between engineers and Soldiers who could be thousands of miles apart. This connectivity is far from guaranteed on future battlefields. Therefore, complex post-processing requirements or more in-depth material knowledge may be necessary to operate independently from industries’ existing infrastructure.

The Ordnance Corps has an opportunity to build Soldier expertise to support these future programs. However, the expertise required to perfect these processes and provide a rapid, flexible and reliable supply of parts to tomorrow’s front lines could quickly overwhelm a Soldier’s current ability to take on additional training and tasks.

According to Col. Ken Letcher, former commander of the Joint Manufacturing and Technology Center at Rock Island Arsenal, “The Army is heavily invested in 3D printing, ensuring Soldiers have the capability to print and fabricate repair parts as a component of the Battlefield Damage Assessment and Repair (BDAR) process.”

As the current director of CASCOM’s Fielded Force Integration Directorate, Letcher noted that “Printing at the point of need increases operational readiness. Not only must the Ordnance Corps advance its materiel solutions, but it must advance the Soldiers that apply these solutions as they are fielded.”

By focusing on additive manufacturing as a specialty, Soldiers could receive training in computer-aided design software and materials science, allowing them to develop new parts and solutions independently from the industry support the Army currently relies on and move the point of design nearer to the end-user.

The Additive Manufacturing Specialists could be trained in various technologies, allowing future Army initiatives to leverage more specialized manufacturing techniques such as powder bed fusion, vat polymerization and bio-printing.

Teams of these newly created experts could also see expansion into a variety of Army missions beyond logistics. In 2018, the Marine Corps began experimenting with printing in concrete to rapidly build barracks in a combat environment with possible future applications in force protection, base infrastructure, and the support of humanitarian and disaster relief missions.

A joint study between the Geneva Foundation and the U.S. Military Academy saw success in bio-printing in austere environments, allowing treatments customized to the Soldier near the point of injury. As the technology expands across the Army, the need for professionals to advise and assist in its application will only increase.

Throughout history, the Ordnance Corps has developed cutting-edge professionals to build and preserve Army readiness. Currently the Allied Trades Warrant Officer (914A) serves as the Army’s AM expert. However, creating an Ordnance enlisted specialty to complement the rapidly expanding use of additive manufacturing would keep the Army at the forefront of innovation.

Integrating this technology into the Army structure and doctrine will allow the maximum flexibility in using new and emerging technologies as they transcend from laboratories to battlefields of the future.

By 1LT Joshua S. Closson

“Strategic Latency Unleashed”

Friday, February 5th, 2021

Your reading assignment for tonight:
STRATEGIC LATENCY UNLEASHED: THE ROLE OF TECHNOLOGY IN A REVISIONIST GLOBAL ORDER AND THE IMPLICATIONS FOR SPECIAL OPERATIONS FORCES

Get your copy here.

Rheinmetall and MBDA Win Contract for High-Energy Laser System

Monday, February 1st, 2021

Schrobenhausen / Düsseldorf – Germany’s Federal Office for Bundeswehr Equipment, Information Technology and In-Service Support (BAAINBw) has awarded a consortium, or ARGE, consisting of MBDA Deutschland GmbH and Rheinmetall Waffe Munition GmbH a contract to fabricate, integrate and support testing of a laser weapon demonstrator in the maritime environment. The order value is in the low double-digit million euro range.
Work will be shared out on a roughly equal basis. MBDA Deutschland is responsible for tracking, the operator’s console and linking the laser weapon demonstrator to the command-and-control system. Rheinmetall is in charge of the laser weapon station, the beam guiding system, cooling, and integration of the laser weapon system into the project container of the laser source demonstrator.
The laser weapon demonstrator is to be fabricated, tested and integrated by the end of the 2021. Trials onboard the German Navy frigate F-124 Sachsen are to take place in 2022.
As Doris Laarmann, head of laser business development at MBDA Deutschland, notes, “The contract is an important step on the path to an operational high-energy laser system. Our two companies will apply their respective strengths to make this project a success on behalf of the German Navy. Once it’s installed, the demonstrator will also be used to test important aspects such as the interaction and function of the sensor suite, combat management system and effector as well as rules of engagement.”  
Alexander Graf, head of Rheinmetall Waffe Munition’s laser weapons programme, and Dr Markus Jung, who leads the company’s laser weapon development effort, both agree, adding that “The contract marks a systematic extension of the functional prototype laser weapon successfully tested in recent years, with the experience gained now dovetailing into one of the most ambitious projects in the field of laser weapon development in Europe.”
A breakthrough development in the history of defence technology, lasers engage targets at the speed of light, operating with great precision and producing very little collateral damage. A demonstrator system featuring these capabilities will soon be put to the test under highly realistic operating conditions onboard a German frigate.
Rheinmetall – high-tech leader in security and mobility
A publicly traded company headquartered in Düsseldorf, Rheinmetall AG is a globally active technology group dedicated to the twin future imperatives of security and mobility.  In 2019 Rheinmetall’s 30,000 employees generated sales of around €6.25 billion. The company is present around the globe, with offices and production facilities at over 120 locations.
As one of Europe’s top suppliers of defence and security technology, Rheinmetall is synonymous with longstanding experience and pioneering excellence in armoured vehicles, weapons and ammunition as well as air defence and electronics. Its comprehensive range of products and services encompasses a vast range of military capabilities, including reconnaissance, command and control, tactical mobility, kinetics and force protection.
Throughout its 130-year history, Rheinmetall has enjoyed a global reputation as a centre of excellence for weapons and ammunition. Moreover, the company has been active in the field of laser weapon systems for many years. In the world of laser weapon stations and laser sources, during the past five years Rheinmetall has laid the foundation for a future 100kW laser weapon system, demonstrating its fundamental feasibility.