Archive for the ‘Quantum Computing’ Category

Construction begins for Duke University’s new quantum computing center – WRAL Tech Wire

DURHAM Construction is currently underway on a 10,000-square foot expansion of Dukes existing quantum computing center in the Chesterfield Building, a former cigarette factory in downtown Durham.

The new space will house what is envisioned to be a world-beating team of quantum computing scientists. The DQC, Duke Quantum Center, is expected to be online in March 2021 and is one of five new quantum research centers to be supported by a recently announced$115 million grant from the U.S. Department of Energy.

The Error-corrected Universal Reconfigurable Ion-trap Quantum Archetype, or EURIQA, is the first generation of an evolving line of quantum computers that will be available to users in Dukes Scalable Quantum Computing Laboratory, or SQLab. The machine was built with funding from IARPA, the U.S. governments Intelligence Advanced Research Projects Activity. The SQLab intends to offer programmable, reconfigurable quantum computing capability to engineers, physicists, chemists, mathematicians or anyone who comes forward with a complex optimization problem theyd like to try on a 20-qubit system.

Unlike the quantum systems that are now accessible in the cloud, the renamed Duke Quantum Archetype, DQA, will be customized for each research problem and users will have open access to its gutsa more academic approach to solving quantum riddles.

(C) Duke University

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Construction begins for Duke University's new quantum computing center - WRAL Tech Wire

Scientific discovery must be redefined. Quantum and AI can help – World Economic Forum

COVID-19 has been a gut punch. Our response? Largely frantic, like deer caught in the headlights. Researchers are racing to find a vaccine, as we pause in lockdown mode. But the process of drug discovery is lengthy and expensive, just like the process of discovering and designing any material crucial to fighting existential problems.

But these problems are piling up: pandemics, climate change, antibiotic resistance, food security, cyber-challenges, shared-economic prosperity and so on. We urgently need to change our traditional approach to science.

We have a rare and narrowing window of change to build a better world after the pandemic.

The World Economic Forum's inaugural Pioneers of Change meeting will bring together leaders of emerging businesses, social entrepreneurs and other innovators to discuss how to spark and scale up meaningful change.

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For centuries, weve done science in a linear way: an issue prompts a hypothesis, followed by a model and a test. If the result is a failure, the process starts again, and iterations may take years. And its got us far; its how weve developed better plastics, more efficient solar panels and lighter-but-stronger composites for modern aircraft.

But the world is changing rapidly; in order to tackle todays global challenges with the speed and effectiveness they demand, we need a new way to do science.

Science is an inherently creative process; scientists are constantly expanding their imagination to explore new designs of drugs and chemicals. But the human brain has its limits. After all, there are more possible designs of a molecule than there are atoms in the universe. No human can sift through all of them to come up with the best option.

The good news is we do have the ingredients to give science or our brains limits a boost: cutting-edge computing technology and talent. The real challenge is to apply them strategically, in both public and private sectors.

Image: IBM Research

Helping science determine a new path

The world is witnessing a revolution in computing. Artificial Intelligence (AI) is enhancing traditional computing and could soon boost the emerging quantum ones: the very machines that could allow us to solve some of the worlds greatest problems. They can be accessed from anywhere on the planet through a hybrid cloud.

More and more companies and labs are now using AI, whose deep neural networks are able to extract scientific knowledge at scale from all the literature published on a specific topic.

Say a scientist needs to create a new catalyst for better artificial fertilizers. Instead of blindly trying to determine the catalysts chemical structure, AI would first sift through a multitude of patents, academic papers and other publications to see what had already been done on this topic.

Next, AI would automatically generate hypotheses based on the data it found, to expand the search for new molecular designs. Based on the most promising hypothesis, high-performance computers and quantum computers would simulate a new molecule.

Digital work done, the simulation would be confirmed or refuted during increasingly autonomous lab tests. Finally, AI would assess the result, identify anomalies and extract new knowledge. New questions would surface and the loop would continue.

To shift the paradigm of scientific discovery, we need to enable AI, hybrid cloud, and eventually quantum computing to converge. We also need a second ingredient new types of scientific collaborations or communities of discovery to be added to the mix.

What would we gain? An accelerated scientific method, fit for catalysing major transformations in science, and with unprecedented speed and automation. We could design new materials faster than ever before, impacting all aspects of our lives from healthcare to manufacturing, to agriculture and beyond.

For the first time, closing the loop in scientific discovery seems a very real and imminent possibility. When it does happen, we will have achieved the dream of scientific advancement being a self-propelled and never-ending process.

The need for new communities of discovery

But its not just technology that that will drive this new level of discovery; people will too. The world is teeming with the talent and creativity of millions of scientists spread across academia and industry, who shouldnt be tackling the numerous global crises they face independently. Indeed, no single company or university lab can overcome a pandemic on its own.

National and international private-public collaborations share knowledge, data and the latest technology, speeding up the process of discovery. Our need for more of them has never been greater.

They also need to be diverse. In science, problems can be big and complex, or small and more focused. For instance, CERN (the European Organization for Nuclear Research) requires a deeply coordinated community with scientists from 42 countries to run some two-million experiments every day across about 170 labs and thats just for the science coming from Large Hadron Collider.

And yet, science is becoming more open, with researchers from private and public sectors increasingly sharing papers, experiments, data, results and resources.

One successful example of such a smaller, new community of discovery is the COVID-19 High-Performance Computing Consortium. A collaboration of 87 partners from academia, industry and national labs, it has been granting researchers from around the world who are fighting the current pandemic access to supercomputers.

Industry partners are often rivals, but not in the current coronavirus vaccine endeavour. Every member of the Consortium is united by a common goal: to accelerate our search for a new treatment or vaccine against COVID-19. The benefits of collaboration are greater speed and accuracy; a freer exchange of ideas and data; and full access to cutting-edge technology. In sum, it supercharges innovation and hopefully means the pandemic will be halted faster than otherwise.

But material design isnt the limit.

With continuing evolution as an AI-accelerated approach that builds on data, advanced compute in hybrid cloud, progress in quantum computing and growing communities of discovery, the upgraded, self-propelled continuous scientific method should greatly impact multiple aspects of our lives. And with all the global crises of today and tomorrow, the need for it has never been greater.

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Scientific discovery must be redefined. Quantum and AI can help - World Economic Forum

A-axis Superconductive Wafers for Enhanced Sensors and High-Performance Computing – Synced

In recent research sponsored by Ambature, Inc., a clean energy intellectual property licensing company, researchers from Cornell University, Peter Grnberg Institute, JARA-Fundamentals of Future Information Technology, Kavli Institute at Cornell for Nanoscale Science, and Leibniz-Institut fr Kristallzchtung achieved world-class interface smoothness with a-axis YBa2Cu3O7-x/PrBa2Cu3O7-x/YBa2Cu3O7-x trilayers grown on (100) LaAlO3 substrates.

This development work was commissioned to validate the a-axis growth of superconductive materials using a deposition method called Molecular Beam Epitaxy (MBE). Ambature has more than 3600 individual patent claims that have issued in the 10 largest economies in the world. Many of these claims are based on the a-axis (as opposed to the c-axis) growth of superconductive materials. This research has demonstrated how to use MBE to control the growth of high-quality a-axis crystal wafers. The a-axis architecture takes advantage of two properties in quantum mechanics: a longer coherence length and improved electrical current flow that moves in both the vertical and horizontal directions (in contrast to c-axis flow, which is only horizontal and problematic for fabrication processes).

Silicon wafers are commonly used as substrates for semiconductors. Ambature uses similar substrates to grow a-axis thin films, which are the base epitaxy for a-axis devices. This work describes the process for the commercialization of Ambatures a-axis thin films and the superconductive electronic devices described in its patent portfolio. It proves that MBE, with its atomic-level accuracy, is a superior method of epitaxy deposition.

In addition to its importance tomaterials science, the proposed technology can also boost the development of artificial intelligence (AI). It can be used to fabricate superconductive devices called Josephson junctions (JJs). JJs are the workhorses of high-performance superconductive electronics that can function as detectors, sensors, switches, and processors. They are also the most common method used to generate Qubits for quantum computing (QC). These superconductive devices can gather the data inputs needed for AI algorithms and process the data extremely quickly for faster AI decision-making. For example, a signal detector/sensor can provide extremely fast reaction times for an autonomous vehicle or an edge sensor in smart city communications. Because JJs are the basis for QC, Ambatures technology enables quantum AI sensing and communications with encryption of sensitive data (such as patient and military data) in AI applications.

According toAmbature, the proposed technology can be applied to many interesting fields of artificial intelligence as listed below:

Many of todays superconductive electronic applications are impractical to implement due to cooling requirements. Therefore, many new HPC and QC applications for AI will become feasible with higher-temperature superconductive electronics. Every incremental increase in temperature or drop in electrical resistance gives rise to new AI possibilities in sensing, detecting and computing, as superconductors are the best sensors/detectors in the entire electromagnetic spectrum. The proposed a-axis technology will play an important role in enhancing automotive sensors, data centers, networking and telecommunications that are crucial to IoT networks.

The paper a-axis YBa2Cu3O7-x/PrBa2Cu3O7-x/YBa2Cu3O7-x trilayers with subnanometer rms roughness is on arXiv.

About Ambature

Ambature, Inc. is a clean energy intellectual property (IP) licensing company with over 200 patents with more than 3600 unique claims in the area of a-axis superconducting technology. This company has developed a synthetic material that reduces electrical resistance in products like integrated circuits, sensors, cell phone base stations, and quantum computers. The NASA Jet Propulsion Lab independently tested Ambatures materials and stated in their Annual Report that Ambature has fabricated and tested a material that arguably holds promises for room temperature superconductivity. Ambatures patents have already been cited as prior art in 190 third-party patent applications filed by companies such as IBM, Qualcomm, MIT, GE, Samsung, Global Foundries, Taiwan Semiconductor, the US Navy, Broadcom, Shell Oil, Hitachi, Chinese electrical grid companies and BOE in China.

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A-axis Superconductive Wafers for Enhanced Sensors and High-Performance Computing - Synced

Quantum Computing in Aerospace and Defense Market Forecast to 2028: How it is Going to Impact on Global Industry to Grow in Near Future – Eurowire

Quantum Computing in Aerospace and Defense Market 2020: Latest Analysis:

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The prominent players covered in this report: D-Wave Systems Inc, Qxbranch LLC, IBM Corporation, Cambridge Quantum Computing Ltd, 1qb Information Technologies Inc., QC Ware Corp., Magiq Technologies Inc., Station Q-Microsoft Corporation, and Rigetti Computing

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Quantum Computing in Aerospace and Defense Market Forecast to 2028: How it is Going to Impact on Global Industry to Grow in Near Future - Eurowire

Physicists discover the ‘Kings and Queens of Quantumness’ – Livescience.com

Is that light particle more like a ball careening through space, or more of a smeary mess that is everywhere at once?

The answer depends on whether the absurd laws of subatomic particles or the deterministic equations that govern larger objects hold more sway. Now, for the first time, physicists have found a way to mathematically define the degree of quantumness that anything be it particle, atom, molecule or even a planet exhibits. The result suggests a way to quantify quantumness and identify "the most quantum states" of a system, which the team calls the "Kings and Queens of Quantumness."

In addition to furthering our understanding of the universe, the work could find applications in quantum technologies such as gravitational wave detectors and ultra-precise measurement devices.

Related: From Big Bang to present: snapshots of our universe through time

At the subatomic heart of reality, the bizarre world of quantum mechanics reigns. Under these mind-bending rules, tiny subatomic particles such as electrons can be paired in strange superpositions of states meaning that an electron can exist in multiple states at once and their positions around an atom and even their momentums aren't fixed until they're observed. These teensy particles even have the ability to tunnel through seemingly insurmountable barriers.

Classical objects, on the other hand, follow the normal everyday rules of our experience. Billiard balls strike off one another; cannonballs fly along parabolic arcs; and planets spin around their orbits according to well-known physical equations.

Researchers have long pondered this odd state of affairs, where some entities in the cosmos can be defined classically, while others are subject to probabilistic quantum laws meaning you can measure only probable outcomes.

But "according to quantum mechanics, everything is quantum mechanical," Aaron Goldberg, a physicist at the University of Toronto in Canada and lead author of the new paper, told Live Science. "Just because you don't see these strange things every day doesn't mean they aren't there."

What Goldberg means is that classical objects like billiard balls are secretly quantum systems, so there exists some infinitesimally small probability that they will, say, tunnel through the side of a pool table. This suggests that there is a continuum, with "classicalness" on one end and "quantumness" on the other.

A little while back, one of Goldberg's co-authors, Luis Sanchez-Soto of the Complutense University of Madrid in Spain, was giving a lecture when a participant asked him what would be the most quantum state a system could be in. "That triggered everything," Sanchez-Soto told Live Science.

Previous attempts at quantifying quantumness always looked at specific quantum systems, like those containing particles of light, and so the outcomes couldn't necessarily be applied to other systems that included different particles like atoms. Goldberg, Sanchez-Soto and their team searched instead for a generalized way of defining extremes in quantum states.

"We can apply this to any quantum system atoms, molecules, light or even combinations of those things by using the same guiding principles," Goldberg said. The team found that these quantum extremes could come in at least two different types, naming some Kings and others Queens for their superlative nature.

They reported their findings Nov. 17 in the journal AVS Quantum Science.

So what exactly does it mean for something to be "the most quantum?" Here is where the work gets tricky, since it is highly mathematical and difficult to easily visualize.

But Pieter Kok, a physicist at the University of Sheffield in England, who was not involved in writing the new paper, suggested a way to get some grasp on it. One of the most basic physical systems is a simple harmonic oscillator that is, a ball on the end of a spring moving back and forth, Kok told Live Science.

A quantum particle would be on the classical extreme if it behaved like this ball and spring system, found at specific points in time based on the initial kick it received. But if the particle were to be quantum mechanically smeared out so that it had no well-defined position and was found throughout the pathway of the spring and ball, it would be in one of these quantum extreme states.

Despite their peculiarity, Kok considers the results quite useful and hopes they will find widespread application. Knowing that there is a fundamental limit where a system is acting the most quantum it can is like knowing that the speed of light exists, he said.

"It puts constraints on things that are complicated to analyze," he added.

Goldberg said that the most readily apparent applications should come from quantum metrology, where engineers attempt to measure physical constants and other properties with extreme precision. Gravitational wave detectors, for example, need to be able to measure the distance between two mirrors to better than 1/10,000th the size of an atomic nucleus. Using the team's principles, physicists might be able to improve on this impressive feat.

But the findings could also help researchers in fields such as fiber optical communications, information processing and quantum computing. "There are probably many applications that we haven't even thought about," Goldberg said, excitedly.

Originally published on Live Science.

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Physicists discover the 'Kings and Queens of Quantumness' - Livescience.com