D-Wave to Participate in 17th Annual Needham Technology & Media Conference – The Province

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BURNABY, British Columbia & PALO ALTO, Calif. D-Wave Systems Inc. global leader in quantum computing software, services, and systems, and the only quantum computing company building both annealing and gate model quantum computers today announced Alan Baratz, CEO, and John Markovich, CFO, will present at the 17th Annual Needham Technology & Media Conference on Wednesday, May 18 at 3:45pm ET.

The presentation slides will be available on our Investor Relations page.

To schedule a meeting with D-Wave during the conference, please contact your representative at Needham or ir@dwavesys.com.

About D-Wave Systems Inc.

D-Wave is a leader in the development and delivery of quantum computing systems, software, and services, and is the worlds first commercial supplier of quantum computersand the only company building both annealing quantum computers and gate-model quantum computers. Our mission is to unlock the power of quantum computing today to benefit business and society. We do this by delivering customer value with practical quantum applications for problems as diverse as logistics, artificial intelligence, materials sciences, drug discovery, scheduling, cybersecurity, fault detection, and financial modeling. D-Waves systems are being used by some of the worlds most advanced organizations, including NEC Corporation, Volkswagen, DENSO, Lockheed Martin, Forschungszentrum Jlich, University of Southern California, and Los Alamos National Laboratory. With headquarters and the Quantum Engineering Center of Excellence based near Vancouver, Canada, D-Waves U.S. operations are based in Palo Alto, Calif. D-Wave has a blue-chip investor base that includes PSP Investments, Goldman Sachs, BDC Capital, NEC Corp., Aegis Group Partners, and In-Q-Tel.

View source version on businesswire.com: https://www.businesswire.com/news/home/20220510005608/en/

Contacts

D-Wave Media Contact: Alan Auyeung Axicom media@dwavesys.com

Investor Relations Contact: Kevin Hunt ir@dwavesys.com

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D-Wave to Participate in 17th Annual Needham Technology & Media Conference - The Province

Memristors: Quantum computing breakthrough could take us back to the multiverse – RedShark News

It could be right out of Back to the Future but a device known as a quantum memristor has been invented to open up the possibility of building a brainlike supercomputer. Lets call it Orac, Blakes 7 fans.

Detailing the creation of the first prototype of such a device in the journal Nature Photonics, Experimental photonic quantum memristor | Nature Photonics, scientists say the breakthrough could help combine quantum computing with artificial intelligence and the development of quantum neuromorphic computers.

A memristor or memory resistor is describedas a kind of building block for electronic circuits that scientists predicted roughly 50 years ago but created for the first time only a little more than a decade ago.

These components are essentially electric switches that can remember whether they were toggled on or off after their power is turned off. As such, they resemble synapsesthe links between neurons in the human brainwhose electrical conductivity strengthens or weakens depending on how much electrical charge has passed through them in the past.

In theory, memristors can act like artificial neurons capable ofboth computing and storing data. As such, researchers have suggested thatneuromorphiccomputer would perform well at running neural networks, which are machine-learning systems that use synthetic versions of synapses and neurons to mimic the process of learning in the human brain.

Using computer simulations, the researchers suggest quantum memristors could lead to an exponential growth in performance in a machine-learning approach known asreservoir computingthat excels at learning quickly.

Potentially, quantum reservoir computing may have aquantum advantageover classical reservoir computing, says study lead author Michele Spagnolo, a doctoral student in quantum physics at the University of Vienna.

The advantage of using a quantum memristor in quantum machine learning is the fact that the memristor, unlike any other quantum component, has memory, he adds.

Among the more profound benefits that quantum computers could be used for is to simulate quantum physical processes for much faster drug and material design; to accelerate AI development and to provide new levels of security and information communication. But they could also be used to break public-key encryptions, to amplify current AI risks at a faster pace, or be misused in biotechnology to design bio-weapons or other risks.

We now live in a Wright brothers moment in the history of quantum computing,Ibrahim Almosallam, a consultant for the Saudi Information Technology Company, writes atWorld Economic Review. When a commercial jet version arrives, it will deliver a new leap in information technology similar to what classical computation delivered in the 20th century, and, just like with any general-purpose technology such as the internet, electricity, and, for that matter, fire alongside great benefits, comes great risks.

Then theres more prosaic stuff like a super-AI creating the latest Pixar feature. This is where quantum can turbo-charge machine learning, improving the ability of AI to derive useful information from photos and videos, according to a recent report in the Harvard Business Review Quantum Computing for Business Leaders (hbr.org).

However, building and scaling a stable quantum computer is not easy. Photons and electrons are delicate; their behaviour defies our ingrained view of how the physical world operates, saysHBR.

One of the most formidable obstacles to building functional quantum computers is that qubits dont stick around very long, the article elaborates. Vibration, temperature, and other environmental factors can cause them to lose their quantum-mechanical properties, resulting in errors. Today, the rate at which errors occur in qubits limits the duration of algorithms that can be run.

Scientists are working to build environments in which many physical qubits act together to create error-protected logical qubits, which can survive for much longer periods of time long enough to support commercially viable applications.

Still, the most advanced quantum computers today have 50 to 100 physical qubits; it will most likely need ten times that to make a single error-protected logical qubit.

It is the state of flux (known assuperpositions) in which photons exist which causes the inherent instability of quantum systems. Superposition means they can essentially be located in two or more places at once (or spin in two opposite directions at the same time).

The breakthrough quantum memristor in the new study, as outlined by IEEE Spectrum, is a technique that relies on a stream of photons existing in superpositions where each single photon can travel down two separate paths laser-written onto glass. One of the channels in this single-qubit integrated photonic circuit is used to measure the flow of these photons, and this data, through a complex electronic feedback scheme, controls the transmissions on the other path, resulting in the device behaving like a memristor.

In other words, while memristive behavior and quantum effects are not expected to coexist, the researchers appear to have overcame this apparent contradiction by engineering interactions within their device to be strong enough to enable memristivity but weak enough to preserve quantum behaviour.

Taking another leap into the theoretical, this could also have implications for our understanding of what it means to live in the multiverse.

Stay with me here. Yes, the multiverse is currently in vogue among storytellers as a means to spin more canon fodder out of tired IP franchises. Looking at you directly Marvel and your upcomingDoctor Strange in the Multiverse of Madness. Even season 2 of Netflix comedy Russian Doll loops its protagonists back to 1982 and riffs on Back to the Future.

The multiverse as depicted in the movies, is a world full of endless potential; multiple parallel universes spinning in synchronicity; and the possibility of alternate, powerful, seemingly better versions of ourselves.

At Vox, a mathematical physicist at the California Institute of Technology, says this is possible in theory.

Spyridon Michalakis is no random boffin Im the science consultant forAnt-Manand I introduced the quantum realm [to Marvel], he explains.

Having established his credentials, Michalakis then explains that basically the multiverse is grounded in quantum mechanics.

Space and time are one single, singular construct, he explains in a 101 of Einsteins theory. Theres not like you have space and then time; itsspace X time.Moreover, quantum space time is a superposition: a quantum superposition of an infinite number of space times, all happening at the same time.

That word again: superposition.

This illusion basic physical reality is the fact that human beings have very specific points of view, ways of observing the superposition.

He makes this startling observation by mixing science with a cinematic metaphor.

The frame rate of the human mind is so low relative to the frame rate of the universe, he says. Lets say we only perceive 100 frames per second. We can be aware of our lives and choices we make, but then the frame rate of the universe (where you could be flicking between different timelines) is 40 orders of magnitude above that.

Were all trying to figure out the plot of the universe by just watching the beginning and the end of the movie, the first and last frame. Were just reconstructing the in-between the best we can. Thats where the multiverse hides; it hides there in between frames. Honestly, I think that the frame rate of the universe truly is infinite, not even finite, very, very large. And were so far away from that.

So that means were stuck in observing just one reality, not the multiplicity of them but we could if only we had a brain the size of a planet.

If only we could build one

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Memristors: Quantum computing breakthrough could take us back to the multiverse - RedShark News

The big money is here: The arms race to quantum computing – Haaretz

Theres a major controversy raging in the field of quantum computing. One side consists of experts and researchers who are skeptical of quantum computers ability to be beneficial in the foreseeable future, simply because the physical and technological challenges are too great. On the other side, if you ask the entrepreneurs and investors at firms banking on quantum computing, that hasnt been the issue for quite some time. From their standpoint, its only a matter of time and concerted effort until the major breakthrough and the real revolution in the field is achieved. And theyre prepared to gamble a lot of money on that.

For decades, most of the quantum research and development has been carried out by academic institutions and government research institutes, but in recent years, steps to make the transition from the academic lab to the industrial sector have increased. Researchers and scientists have been creating or joining companies developing quantum computing technology, and startups in the field have been cropping up at a dizzying pace. In 2021, $3.2 billion was invested in quantum firms around the world, according to The Quantum Insider compared to $900 million in 2020.

And in the first quarter of this year, about $700 million was invested a sum similar to the investments in the field between 2015 and 2019 combined. In addition to the surge in startup activity in the field, tech giants such as IBM, Amazon, Google and Microsoft have been investing major resources in the field and have been recruiting experts as well.

The quantum computing field was academic for a long time, and everything changed the moment that big money reached industry, said Ayal Itzkovitz, managing partner at the Pitango First fund, which has invested in several quantum companies in recent years. Everything is moving forward more quickly. If three years ago, we didnt know if it was altogether possible to build such a computer, now we already know that there will be quantum computers that will be able to do something different from classic computers.

Quantum computers, which are based on the principles of quantum theory, are aimed at providing vastly greater computing power than regular computers, with the capability to carry out a huge number of computations simultaneously. Theoretically it should take them seconds, minutes or hours to do what it would take todays regular supercomputers thousands of years to perform.

Quantum computers are based not on bits, but on qubits produced by a quantum processing unit, which is not limited to the binary of 0 or 1 but is a combination of the two. The idea is that a workable quantum computer, if and when there is such a thing, wont be suitable for use for any task but instead for a set of specific problems that require simultaneous computing, such as simulations, for example. It would be relevant for fields such as chemistry, pharmaceuticals, finance, energy and encoding among others.

It's still all theoretical, and there has yet to be a working quantum computer produced that is capable of performing a task more effectively than a regular computer but that doesnt bother those engaged in the arms race to develop a breakthrough quantum processor.

A million-qubit computer

IBM, which is one of the pioneers in the industry, recently unveiled a particularly large 127-qubit computer, and its promising to produce a 1,000-qubit one within the next few years. In 2019, Google claimed quantum supremacy with a computer that managed in 3.5 minutes to perform a task that would have taken a regular computer 10,000 years to carry out. And in May of last year, it unveiled a new quantum center in Santa Barbara, California and it intends to build a million-qubit computer by 2029 at an investment of billions of dollars.

Amazon has gotten into the field, recruiting researchers and recently launching a new quantum center at the California Institute of Technology, and Intel and Microsoft have also gotten into the game. In addition to their own internal development efforts, Amazon, Microsoft and Google have been offering researchers access to active quantum computers via their cloud computing services.

At the same time, there are several firms in the market that specialize in quantum computing that have already raised considerable sums or have even gone public. One of the most prominent of them is the American company IonQ (which in the past attracted investments from Google, Amazon and Samsung) and which last year went public via a SPAC merger. Another such company is the Silicon Valley firm Rigetti Computing, which also went public via a SPAC merger. Then theres Quantinuum, which was the product of a merger between Honeywell Quantum Solutions and Cambridge Quantum.

All thats in addition to a growing startup ecosystem of smaller companies such as Atom Computing and QuEra, which have raised initial funding to develop their own versions of a quantum processor.

In Israel in recent months, the countrys first two startups trying to create a quantum processor have been established. Theyre still in their stealth stage. One is Rehovot-based Quantum Source, which has raised $15 million to develop photonic quantum computing solutions. Its technology is based on research at the Weizmann Institute of Science, and its headed by leading people in the Israeli processor chip sector. The second is Quantum Art, whose executives came from the Israeli defense sector. Its technology is also based on work at the Weizmann Institute.

There are also other early-stage enterprises that are seeking to develop a quantum processor, including one created by former Intel employees and another by former defense company people. Then there is LightSolver, which is seeking to develop a laser technology computer, which is not quantum technology, but it seeks to provide similar performance.

Going for broke

But all of these are at their early stages from a technological standpoint, and the prominent companies overseas have or are building active but small quantum computers usually of dozens of qubits that are only for R&D use to demonstrate their capabilities but without actual practical application. Thats out of a sense that developing an effective quantum computer that has a real advantage requires millions of qubits. Thats a major disparity that will be difficult to bridge from a technological standpoint.

The problem is that sometimes investing in the here-and-now comes at the expense of investments in the future. The quantum companies are still relatively small and have limited staff. If they have an active computer, they also need to maintain it and support its users in the community and among researchers. That requires major efforts and a lot of money, which might be at the expense of next-generation research and it is already delaying the work of a large number of quantum computer manufacturers who are seeing how smaller startups focusing only on next-generation development are getting ahead of them.

As a result, there are also companies with an entirely different approach, which seeks to skip over the current generation of quantum computers and go for broke to build an effective computer with millions of qubits capable of error detection and correction even if it takes many years.

In 2016, it was on that basis that the Palo Alto, California firm PsiQuantum was founded. Last year the company raised $450 million (in part from Microsoft and BlackRock) based on a company valuation of $3 billion, becoming one of the hot and promising names in the field.

Itzkovitz, from the Pitango fund, was one of its early investors. They said they wouldnt make a small computer with a few qubits because it would delay them but would instead go straight for the real goal, he explained.

PsiQuantum is gambling on a fundamentally different paradigm: Most of the companies building an active computer, including the tech giants, have chosen technology based on specifical material matters (for example superconductors or trapped ions). In contrast, PsiQuantum is building a photonic quantum computer, based on light and optics an approach that until recently was considered physically impossible.

Itzkovitz said that he has encountered a large number of startups that are building quantum processors despite the technological risk and the huge difficulty involved. In the past two weeks, I have spoken with 12 or 13 companies making qubits from England, Holland, Finland, the United States and Canada as if this were the most popular thing there was now in the high-tech industry around the world, he said.

As a result, there are also venture capital funds in Israel and overseas that in the past had not entered the field but that are now looking for such companies to invest in over concern not to be left out of the race, as well as a desire to be exposed to the quantum field.

Its the Holy Grail

Similar to the regular computing industry, in quantum computing, its also not enough to build a processor. A quantum processor is a highly complex system that requires a collection of additional hardware components, as well as software and supporting algorithms, of course all of which are designed to permit its core to function efficiently and to take advantage of the ability and potential of qubits in the real world. Therefore, at the same time that quantum processor manufacturers have been at work, in recent years there has been a growing industry of startups seeking to provide them and clients with layers of hardware and software in the tower that stands on the shoulders of the quantum computers processor.

A good example of that is the Israeli firm Quantum Machines, which was established in 2018 and has so far raised $75 million. It has developed a monitoring and control system for quantum computers consisting of hardware and software. According to the company, the system constitutes the brain of the quantum processor and enables it to perform computing activity well and to fulfill its potential. There are also other companies in the market supplying such components and other components including even the refrigerators necessary to build the computers.

Some companies develop software and algorithms in the hope that they will be needed to effectively operate the computers. One of them is Qedma Quantum Computing from Israel, which has developed what it describes as an operating system for quantum computers that is designed to reduce errors and increase quantum computers reliability.

Our goal is to provide hardware manufacturers with the tools that will enable them to do something efficient with the quantum computers and to help create a world in which quantum algorithmic advantages can actually be realized, said Asif Sinay, the companys founder-partner and CEO. Its the Holy Grail of all of the quantum companies in the world.

The big challenge facing these companies is proving that their technology is genuine and that it provides real value to companies developing quantum processors. Thats of course in addition to providing a solution that is sufficiently unique that the tech giants wont be able to develop it on their own.

The big companies dont throw money around just like that, Sinay said. They want to create cooperation with companies that help them reach their goal and to improve the quality of the quantum computer. Unlike the cyber field, for example, you cant come and scare a customer into buying your product. Here youre sitting with people at your level, really smart [people] who understand that you need to give them value that assists in the companys performance and to take the computer to a higher level.

Two concurrent arms races

What the companies mentioned so far have in common is that they are building technology designed to create an efficient quantum computer, whether its a processor or the technology surrounding it. At the same time, another type of companies is gaining steam those that develop the tools to develop quantum software that in the future will make it possible for developers and firms to build applications for the quantum computer.

Classiq is an Israeli company that has developed tools that make it easier for programmers to write software for quantum computers. It raised $33 million at the beginning of the year and has raised $48 million all told. A competitor in Singapore, Horizon Quantum Computing, which just days ago announced that it raised $12 million, is offering a similar solution.

Another prominent player is the U.S. firm Zapata, in which Israels Pitago fund has also invested, and which is engaged in services involved in building quantum applications for corporations.

There are two concurrent arms races happening now, says Nir Minerbi, co founder and CEO of Classiq. One is to build the worlds first fully functional quantum computer. And many startups and tech giants are working on that and that market is now peaking. The second race is the one for creating applications and software that runs on quantum and can serve these firms. This is a field that is now only making its first steps - and its hard to know when it will reach its goal.

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The big money is here: The arms race to quantum computing - Haaretz

These ultra-pure diamonds could be the key to unleashing the power of quantum computing – TechRadar

By working together with academic researchers, a Japanese jewelry firm has developed a new production method to create 2-inch diamond wafers that could soon be used in quantum computers.

Adamant Namiki Precision Jewelry collaborated with Saga University in Kyushu to create its new Kenzan Diamonds which are pure enough to be used in quantum computing. While diamond wafers with the required purity do exist, up until now they were too small (no larger than a 4mm square) to be used in quantum computing applications

According to a press release put out by Adamant Namiki, previous attempts to grow 2-inch diamond wafers failed due to the fact that they had higher levels of nitrogen impurities. Fortunately, the Japanese jewelry firm has developed a new technique that makes it possible to grow large diamond wafers with less impurities.

Instead of using diamond micro-needle seeding, Adamant Namiki and Saga Universitys new technique grows diamond wafers on a sapphire substrate coated with an iridium film using the principle of step flow growth. The substrates used by this new technique along with the stepped structure allow diamonds to be grown using high temperatures and pressure without any stress cracks during cool-down while also minimizing the absorption of nitrogen.

While traditional computers use processors made from silicon chips, researchers have begun experimenting with diamonds as a substitute for silicon as they are the hardest material on Earth and also a good conductor of heat.

In this case though, Adamant Namikis Kenzan Diamonds could be used for quantum storage applications due to their size and low-nitrogen nature. By using one of the firms new diamond wafers for quantum storage, up to a billion Blu-Ray discs worth of data could be stored on an incredibly small 2-inch form factor.

Although Adamant Namiki has announced its plans to make its Kenzan Diamond wafers commercially available next year, the firm has already begun working on developing 4-inch diamond wafers that could hold even more data.

At a time when organizations are returning to tape storage to help fend off ransomware attacks, its interesting to see new materials like diamonds being considered for the storage needs of the future.

Via Tom's Hardware

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These ultra-pure diamonds could be the key to unleashing the power of quantum computing - TechRadar

Global Quantum Computing Market Assessment 2022-2027: Growing Adoption in Aerospace and Defense, Growing investment of Governments, & Emergence of…

DUBLIN, April 27, 2022 /PRNewswire/ -- The "Quantum Computing Market by Technology, Infrastructure, Services, and Industry Verticals 2022 - 2027" report has been added to ResearchAndMarkets.com's offering.

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This report assesses the technology, companies/organizations, R&D efforts, and potential solutions facilitated by quantum computing.

The report provides global and regional forecasts as well as the outlook for quantum computing impact on infrastructure including hardware, software, applications, and services from 2022 to 2027. This includes the quantum computing market across major industry verticals.

Quantum Computing Industry Impact

The implications for data processing, communications, digital commerce and security, and the internet as a whole cannot be overstated as quantum computing is poised to radically transform the ICT sector. In addition, quantum computing will disrupt entire industries ranging from government and defense to logistics and manufacturing. No industry vertical will be immune to the potential impact of quantum computing. Every industry must pay great attention to technology developments, implementation, integration, and market impacts.

Quantum Computing Technology Development

While there is great promise for quantum computing, it remains largely in the research and development (R&D) stage as companies, universities, and research organizations seek to solve some of the practical problems for commercialization such as how to keep a qubit stable. The stability problem is due to molecules always being in motion, even if that motion is merely a small vibration. When qubits are disturbed, a condition referred to as decoherence occurs, rendering computing results unpredictable or even useless. One of the potential solutions is to use super-cooling methods such as cryogenics.

Some say there is a need to reach absolute zero (the temperature at which all molecular motion ceases), but that is a theoretical temperature that is practically impossible to reach and maintain, requiring enormous amounts of energy. There are some room-temperature quantum computers in R&D using photonic qubits, but nothing is yet scalable. Some experts say that if the qubit energy level is high enough, cryogenic type cooling is not a requirement.

Alternatives include ion trap quantum computing and other methods to achieve very cold super-cooled small-scale demonstration level computing platforms. There are additional issues involved with implementing and operating quantum computing. In terms of maintenance, quantum systems must be kept at subzero temperatures to keep the qubits stable, which creates trouble for people working with them and expensive, energy-consuming equipment to support.

Story continues

Once these issues are overcome, we anticipate that quantum computing will become more mainstream for solving specific types of problems. However, there will remain general-purpose computing problems that must be solved with classical computing. In fact, we anticipate development of solutions that involve quantum and classical CPUs on the same computing platform, which will be capable of solving combined general purpose and use case-specific computation problems.

These next-generation computing systems will provide the best of both worlds, which will be high-speed, general-purpose computing combined with use case-specific ultra-performance for certain tasks that will remain outside the range of binary computation for the foreseeable future.

Select Report Findings:

The global market for QC hardware will exceed $8.3 billion by 2027

Leading application areas are simulation, optimization, and sampling

Managed services will reach $298 million by 2027 with CAGR of 43.9%

Key professional services will be deployment, maintenance, and consulting

QC based on superconducting (cooling) loops tech will reach $3.7B by 2027

Fastest growing industry verticals will be government, energy, and transportation

Key Topics Covered:

1.0 Executive Summary

2.0 Introduction2.1 Understanding Quantum Computing2.2 Quantum Computer Types2.2.1 Quantum Annealer2.2.2 Analog Quantum2.2.3 Universal Quantum2.3 Quantum Computing vs. Classical Computing2.3.1 Will Quantum replace Classical Computing?2.3.2 Physical Qubits vs. Logical Qubits2.4 Quantum Computing Development Timeline2.5 Quantum Computing Market Factors2.6 Quantum Computing Development Progress2.6.1 Increasing the Number of Qubits2.6.2 Developing New Types of Qubits2.7 Quantum Computing Patent Analysis2.8 Quantum Computing Regulatory Analysis2.9 Quantum Computing Disruption and Company Readiness

3.0 Technology and Market Analysis3.1 Quantum Computing State of the Industry3.2 Quantum Computing Technology Stack3.3 Quantum Computing and Artificial Intelligence3.4 Quantum Neurons3.5 Quantum Computing and Big Data3.6 Linear Optical Quantum Computing3.7 Quantum Computing Business Model3.8 Quantum Software Platform3.9 Application Areas3.10 Emerging Revenue Sectors3.11 Quantum Computing Investment Analysis3.12 Quantum Computing Initiatives by Country

4.0 Quantum Computing Drivers and Challenges4.1 Quantum Computing Market Dynamics4.2 Quantum Computing Market Drivers4.2.1 Growing Adoption in Aerospace and Defense Sectors4.2.2 Growing investment of Governments4.2.3 Emergence of Advance Applications4.3 Quantum Computing Market Challenges

5.0 Quantum Computing Use Cases5.1 Quantum Computing in Pharmaceuticals5.2 Applying Quantum Technology to Financial Problems5.3 Accelerate Autonomous Vehicles with Quantum AI5.4 Car Manufacturers using Quantum Computing5.5 Accelerating Advanced Computing for NASA Missions

6.0 Quantum Computing Value Chain Analysis6.1 Quantum Computing Value Chain Structure6.2 Quantum Computing Competitive Analysis6.2.1 Leading Vendor Efforts6.2.2 Start-up Companies6.2.3 Government Initiatives6.2.4 University Initiatives6.2.5 Venture Capital Investments6.3 Large Scale Computing Systems

7.0 Company Analysis7.1 D-Wave Systems Inc.7.2 Google Inc.7.3 Microsoft Corporation7.4 IBM Corporation7.5 Intel Corporation7.6 Nokia Corporation7.7 Toshiba Corporation7.8 Raytheon Company7.9 Other Companies7.9.1 1QB Information Technologies Inc.7.9.2 Cambridge Quantum Computing Ltd.7.9.3 QC Ware Corp.7.9.4 MagiQ Technologies Inc.7.9.5 Rigetti Computing7.9.6 Anyon Systems Inc.7.9.7 Quantum Circuits Inc.7.9.8 Hewlett Packard Enterprise7.9.9 Fujitsu Ltd.7.9.10 NEC Corporation7.9.11 SK Telecom7.9.12 Lockheed Martin Corporation7.9.13 NTT Docomo Inc.7.9.14 Alibaba Group Holding Limited7.9.15 Booz Allen Hamilton Inc.7.9.16 Airbus Group7.9.17 Amgen Inc.7.9.18 Biogen Inc.7.9.19 BT Group7.9.20 Mitsubishi Electric Corp.7.9.21 Volkswagen AG7.9.22 KPN7.10 Ecosystem Contributors7.10.1 Agilent Technologies7.10.2 Artiste-qb.net7.10.3 Avago Technologies7.10.4 Ciena Corporation7.10.5 Eagle Power Technologies Inc7.10.6 Emcore Corporation7.10.7 Enablence Technologies7.10.8 Entanglement Partners7.10.9 Fathom Computing7.10.10 Alpine Quantum Technologies GmbH7.10.11 Atom Computing7.10.12 Black Brane Systems7.10.13 Delft Circuits7.10.14 EeroQ7.10.15 Everettian Technologies7.10.16 EvolutionQ7.10.17 H-Bar Consultants7.10.18 Horizon Quantum Computing7.10.19 ID Quantique7.10.20 InfiniQuant7.10.21 IonQ7.10.22 ISARA7.10.23 KETS Quantum Security7.10.24 Magiq7.10.25 MDR Corporation7.10.26 Nordic Quantum Computing Group7.10.27 Oxford Quantum Circuits7.10.28 Post-Quantum (PQ Solutions)7.10.29 ProteinQure7.10.30 PsiQuantum7.10.31 Q&I7.10.32 Qasky7.10.33 QbitLogic7.10.34 Q-Ctrl7.10.35 Qilimanjaro Quantum Hub7.10.36 Qindom7.10.37 Qnami7.10.38 QSpice Labs7.10.39 Qu & Co7.10.40 Quandela7.10.41 Quantika7.10.42 Quantum Benchmark Inc.7.10.43 Quantum Circuits Inc.7.10.44 Quantum Factory GmbH7.10.45 QuantumCTek7.10.46 Quantum Motion Technologies7.10.47 QuantumX7.10.48 Qubitekk7.10.49 Qubitera LLC7.10.50 Quintessence Labs7.10.51 Qulab7.10.52 Qunnect7.10.53 QuNu Labs7.10.54 River Lane Research7.10.55 SeeQC7.10.56 Silicon Quantum Computing7.10.57 Sparrow Quantum7.10.58 Strangeworks7.10.59 Tokyo Quantum Computing7.10.60 TundraSystems Global Ltd.7.10.61 Turing7.10.62 Xanadu7.10.63 Zapata Computing7.10.64 Accenture7.10.65 Atos Quantum7.10.66 Baidu7.10.67 Northrop Grumman7.10.68 Quantum Computing Inc.7.10.69 Keysight Technologies7.10.70 Nano-Meta Technologies7.10.71 Optalysys Ltd.

8.0 Quantum Computing Market Analysis and Forecasts 2022 - 20278.1.1 Quantum Computing Market by Infrastructure8.1.2 Quantum Computing Market by Technology Segment8.1.3 Quantum Computing Market by Industry Vertical8.1.4 Quantum Computing Market by Region

9.0 Conclusions and Recommendations

10.0 Appendix: Quantum Computing and Classical HPC

For more information about this report visit https://www.researchandmarkets.com/r/6yf53

Media Contact:

Research and MarketsLaura Wood, Senior Managerpress@researchandmarkets.com

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Earth Day 2022: Quantum Computing has the Key to Protect Environment! – Analytics Insight

Can quantum computing hold the ultimate power to meet sustainable development?

Quantum computing has started gaining popularity with the integration of quantum mechanics through smart quantum computers. Yes, it can transform conventional computers with a highly complex nature. Meanwhile, quantum computing is ready to have the key to protecting the environment with technology. Lets celebrate Earth Day 2022 with sustainable development through quantum computing. Quantum computers hold the substantial potential to save the environment with technology and physics law. Thus, lets dig deeper into quantum computing to look out for ways how it holds the key to protecting the environment.

Earth Day 2022 is celebrated across the world to raise the awareness of environmental issues to human beings. It helps to come up with ideas to reduce the carbon footprint and energy consumption for effective sustainable development. Hence, quantum computing is determined to be the protector of the environment with technology to look out for sustainable development efficiently and effectively.

Quantum computers are a form of supercomputers with thousands of GPU and CPU cores with multiple high degrees of complex issues. It is used for performing multiple quantum calculations with Qubits for simulating the problems that human beings or classical computers cannot solve within a short period of time.

Now in the 21st century with the advancements in technologies, quantum computing can power sustainable development with smart functionalities. Quantum computers can protect the environment with technology by capturing carbon as well as fighting climate change for global warming.

Quantum computing can simulate large complicated molecules which can discover new catalysts for capturing sufficient carbon from the current environment. The room-temperature superconductors hold the key to decreasing the 10% of energy production that is lost in transmission. It will help in better processes to feed the increasing population as well as efficient batteries.

Quantum computing is set to address global challenges, raise awareness, generate solutions, and meet the sustainable development goals on Earth Day 2022. Quantum computers are transforming the illusion into reality with better climate models to protect the environment with technology. It is ready to provide sufficient in-depth insights into how the ways and activities of human beings are drastically affecting the environment and creating a barrier to sustainable development.

Multiple 200 Qubits quantum computers can help to find a catalyst to utilize the 3-5% of the worlds gas production as well as 1-2% of annual energy levels through multiple different tasks. It can be used to generate different catalysts for capturing carbon footprint from the air and decreasing carbon emissions by 80%-90%. Thus, quantum computing can control the rapid rise in temperature in the environment with technology.

That being said, lets celebrate Earth Day 2022 with quantum computing helping the world in ensuring carbon dioxide recycling and reducing harmful emissions of carbon monoxide.

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Earth Day 2022: Quantum Computing has the Key to Protect Environment! - Analytics Insight

Members of Netherland’s Delft Quantum Ecosystem Receive 550000 ($594K USD) in Two R&D Grants – Quantum Computing Report

Members of Netherlands Delft Quantum Ecosystem Receive 550,000 ($594K USD) in Two R&D Grants

The first grant was for an amount of 350,000 and was provided by the Province of South Holland. It was given to a research collaboration consisting of collaboration between Orange Quantum Systems, Delft Circuits, and Leiden Cryogenics which are researching the practical application of quantum technology. The second grant was in the amount of 200,000 and was provided to the ImpaQT initiative by Metropolitan Region Rotterdam The Hagueand the Province of South Holland. The ImpaQT initiative is working to provide a value chain consisting of componentsd and related services for organizations wishing to build their own quantum computer using components provides by the members of the ImpaQT initiative. Members of the ImpaQT consortium include QuantWare,Demcon,Qu&Co,Orange Quantum Systems,Qblox,andDelft Circuits.Additional information about these grants and the associated programs can be seen in a news release provided by Quantum Delft available here.

April 25, 2022

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Members of Netherland's Delft Quantum Ecosystem Receive 550000 ($594K USD) in Two R&D Grants - Quantum Computing Report

Quantum Isnt Armageddon; But Your Horse Has Already Left the Barn – PaymentsJournal

It is true that adversaries are collecting our encrypted data today so they can decrypt it later. In essence anything sent using PKI (Public Key Infrastructure) today may very well be decrypted when quantum computing becomes available. Our recent report identifies the risk to account numbers and other long tail data (data that still has high value 5 years or more into the future). Data you send today using traditional PKI is the horse that left the barn.

But this article describes a scary scenario where an adversarys quantum computer hacks the US militarys communications and utilizes that advantage to sink the US Fleet but that is highly unlikely as long as government agencies follow orders. The US government specifies that AES-128 be used for secret (unclassified) information and AES-256 for top secret (classified) information. While AES-128 can be cracked using quantum computers, one estimate suggests that would take 6 months of computing time. That would be very expensive. Most estimates indicate that using AES-256 would take hundreds of years, but the military is already planning an even safer alternative it just isnt yet in production (that I am aware of):

Arthur Herman conducted two formidable studies on what a single, successful quantum computing attack would do to both our banking systems and a major cryptocurrency. A single attack on the banking system by a quantum computer would take down Fedwire and cause $2 trillion of damage in a very short period of time. A similar attack on a cryptocurrency like bitcoin would cause a 90 percent drop in price and would start a three-year recession in the United States. Both studies were backed up by econometric models using over 18,000 data points to predict these cascading failures.

Another disastrous effect could be that an attacker with a CRQC could take control of any systems that rely on standard PKI. So, by hacking communications, they would be able to disrupt data flows so that the attacker could take control of a device, crashing it into the ground or even using it against an enemy. Think of the number of autonomous vehicles that we are using both from a civilian and military standpoint. Any autonomous devices such as passenger cars, military drones, ships, planes, and robots could be hacked by a CRQC and shut down or controlled to perform activities not originally intended by the current users or owners.

Overview byTim Sloane,VP, Payments Innovation at Mercator Advisory Group

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Quantum Isnt Armageddon; But Your Horse Has Already Left the Barn - PaymentsJournal

Keysight and Singapores Quantum Engineering Programme to Accelerate Research, Development and Education in Quantum Technologies – Yahoo Finance

Joint effort will establish quantum innovation accelerator in Singapore

SANTA ROSA, Calif., April 27, 2022--(BUSINESS WIRE)--Keysight Technologies, Inc. (NYSE: KEYS), a leading provider of advanced design and validation solutions, and Singapores Quantum Engineering Programme (QEP) have signed a Memorandum of Understanding (MOU) to collaborate in accelerating research, development and education in quantum technologies.

This press release features multimedia. View the full release here: https://www.businesswire.com/news/home/20220427005691/en/

National University of Singapore (NUS), Quantum Engineering Programme (QEP) and Keysight MOU signing ceremony. From left to right; Dr. Chen Guan Yow, Vice President and Head (New Businesses), Economic Development Board; Mr. Quek Gim Pew, Co-chair, QEP Steering Committee & Senior R&D Consultant for Ministry of Defence; Professor Chen Tsuhan, Deputy President (Research and Technology), NUS; Mr. Oh Sang Ho, Director of Keysight South Asia Pacific Regional Sales; Mr. Gooi Soon Chai, President of Keysight Order Fulfilment and Digital Operations & Keysight Senior Vice President; and Mr. Tan Boon Juan, Vice President & General Manager of Keysight General Electronics Measurement Solutions. (Photo: Business Wire)

The QEP was launched in 2018 by the National Research Foundation, Singapore (NRF) and hosted at the National University of Singapore (NUS), with the aim of supporting quantum technologies research and ecosystem building. The programme funds projects in quantum computing, quantum communication and security, quantum sensing, as well as a quantum foundry, that are expected to lead to practical uses.

Keysight is well positioned to provide modular and scalable quantum control systems, by leveraging the companys expertise in advanced measurement equipment, qubit control solutions and precise measurement instrumentation, which enable researchers to engineer and perhaps scale next-generation systems to harness the power of quantum computing and other quantum devices.

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"Its going to take a team effort to deliver on the promise of quantum technologies, whether that is better computing performance or more secure communication. We are glad to have Keysight join the partners of the Quantum Engineering Programme to support this work in Singapore," said Alexander Ling, director of the QEP. He is also an associate professor in the NUS Department of Physics and Principal Investigator at the Centre for Quantum Technologies.

Under the MOU, QEP and Keysight will closely cooperate in the development of quantum instrument packages, as well as the technologies that enable quantum systems to be scalable and deployable. In addition, they will establish a programme named "Quantum Joint Innovation Accelerator" that makes it easy for researchers participating in QEP to access several of Keysights software design tools and advanced test and measurement equipment. Researchers can apply to evaluate Keysight measurement tools in their laboratories and access equipment hosted at Keysights premises in Singapore.

"We're pleased to support QEP with quantum test solutions based on our expertise in advanced measurement and quantum engineering technologies," said Sang Ho Oh, general director for South Asia-Pacific at Keysight Technologies. "As the quantum ecosystem continues to build, Keysight will contribute solutions that will enable the Singapore ecosystem to accelerate the research, development and education of quantum technologies."

"Keysight and QEP will establish a collaborative framework to accelerate research and development in the emerging quantum technology ecosystem," said BJ Tan, vice president and general manager of Keysights general electronics measurement solutions. "Having this leading research partnership upstream will open up new frontiers and developments, which will propel industry innovations for years to come."

About the Quantum Engineering Programme (QEP)

The Quantum Engineering Programme (QEP) in Singapore will apply quantum technologies for solving user-defined problems, by funding research and supporting ecosystem building. Its work is focused over four pillars: quantum sensing, quantum communication and security, quantum computing and the establishment of a National Quantum Fabless Foundry. The programme was launched in 2018 by the National Research Foundation, Singapore, and is hosted by the National University of Singapore (NUS). More information is available at qepsg.org.

About National University of Singapore (NUS)

The National University of Singapore (NUS) is Singapores flagship university, which offers a global approach to education, research and entrepreneurship, with a focus on Asian perspectives and expertise. We have 17 faculties across three campuses in Singapore, with more than 40,000 students from 100 countries enriching our vibrant and diverse campus community. We have also established our NUS Overseas Colleges programme in more than 15 cities around the world.

Our multidisciplinary and real-world approach to education, research and entrepreneurship enables us to work closely with industry, governments and academia to address crucial and complex issues relevant to Asia and the world. Researchers in our faculties, 30 university-level research institutes, research centres of excellence and corporate labs focus on themes that include energy; environmental and urban sustainability; treatment and prevention of diseases; active ageing; advanced materials; risk management and resilience of financial systems; Asian studies; and Smart Nation capabilities such as artificial intelligence, data science, operations research and cybersecurity.

For more information on NUS, please visit https://www.nus.edu.sg/

About Keysight Technologies

Keysight delivers advanced design and validation solutions that help accelerate innovation to connect and secure the world. Keysights dedication to speed and precision extends to software-driven insights and analytics that bring tomorrows technology products to market faster across the development lifecycle, in design simulation, prototype validation, automated software testing, manufacturing analysis, and network performance optimization and visibility in enterprise, service provider and cloud environments. Our customers span the worldwide communications and industrial ecosystems, aerospace and defense, automotive, energy, semiconductor and general electronics markets. Keysight generated revenues of $4.9B in fiscal year 2021. For more information about Keysight Technologies (NYSE: KEYS), visit us at http://www.keysight.com.

More information about Keysights involvement in the emerging technologies of quantum computing can be found at https://www.keysight.com/us/en/solutions/emerging-technologies/quantum-solutions.html.

Additional information about Keysight Technologies is available in the newsroom at https://www.keysight.com/go/news and on Facebook, LinkedIn, Twitter and YouTube.

View source version on businesswire.com: https://www.businesswire.com/news/home/20220427005691/en/

Contacts

QEP CONTACT:Jenny Hogan+65 65164302jenny.hogan@nus.edu.sg

KEYSIGHT TECHNOLOGIES CONTACTS:Geri Lynne LaCombe, Americas/Europe+1 303 662 4748geri_lacombe@keysight.com

Fusako Dohi, Asia+81 42 660-2162fusako_dohi@keysight.com

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Keysight and Singapores Quantum Engineering Programme to Accelerate Research, Development and Education in Quantum Technologies - Yahoo Finance

Breakthrough Discovery of the One-Way Superconductor Thought To Be Impossible – SciTechDaily

Artist Impression of a superconducting chip. Credit: TU Delft

Associate professor Mazhar Ali and his research group at Delft University of Technology (TU Delft) have discovered one-way superconductivity without magnetic fields, something that was thought to be impossible ever since its discovery in 1911 until now. The discovery, published in the journal Nature, makes use of 2D quantum materials and paves the way toward superconducting computing. Superconductors can make electronics hundreds of times faster, all with zero energy loss.

Ali: If the 20th century was the century of semiconductors, the 21st can become the century of the superconductor.

Throughout the twentieth century, many scientists, including Nobel laureates, struggled over the nature of superconductivity, which was discovered in 1911 by Dutch physicist Kamerlingh Onnes. In superconductors, a current flows across a wire with no resistance, which means inhibiting this current or even blocking it is hardly possible let alone getting the current to flow only one way and not the other. The fact that Alis group was able to make superconducting one-directional which is required for computing is remarkable: its like inventing a special type of ice that has zero friction one way but insurmountable friction the other.

The advantages of applying superconductors to electronics are twofold. Superconductors can make electronics hundreds of times faster, and incorporating superconductors into our daily lives would make IT much more eco-friendly: if you spun a superconducting wire from here to the moon, it would transport the energy without any loss. For instance, the use of superconductors instead of regular semiconductors might save up to 10% of all western energy reserves according to NWO.

According to the Dutch Research Council (NWO), using superconductors instead of conventional semiconductors might save up to 10% of all Western energy reserves.

In the 20th century and beyond, no one could tackle the barrier of making superconducting electrons go in just one-direction, which is a fundamental property needed for computing and other modern electronics (consider for example diodes that go one way as well). In normal conduction the electrons fly around as separate particles; in superconductors they move in pairs of twos, without any loss of electrical energy. In the 70s, scientists at IBM tried out the idea of superconducting computing but had to stop their efforts: in their papers on the subject, IBM mentions that without non-reciprocal superconductivity, a computer running on superconductors is impossible.

Superconductivity is a set of physical properties seen in some materials in which electrical resistance disappears and magnetic flux fields are expelled. A superconductor is any substance that possesses these qualities.

Q: Why, when one-way direction works with normal semi-conduction, has one-way superconductivity never worked before?

Mazhar Ali: Electrical conduction in semiconductors, like Si, can be one-way because of a fixed internal electric dipole, so a net built in potential they can have. The textbook example is the famous pn junction; where we slap together two semiconductors: one has extra electrons (-) and the other has extra holes (+). The separation of charge makes a net built-in potential that an electron flying through the system will feel. This breaks symmetry and can result in one-way properties because forward vs backward, for example, are no longer the same. There is a difference in going in the same direction as the dipole vs going against it; similar to if you were swimming with the river or swimming up the river.

Superconductors never had an analog of this one-directional idea without magnetic field; since they are more related to metals (i.e. conductors, as the name says) than semiconductors, which always conduct in both directions and dont have any built-in potential. Similarly, Josephson Junctions (JJs), which are sandwiches of two superconductors with non-superconducting, classical barrier materials in-between the superconductors, also havent had any particular symmetry-breaking mechanism that resulted in a difference between forward and backward.

Q: How did you manage to do what first seemed impossible?

Ali: It was really the result of one of my groups fundamental research directions. In what we call Quantum Material Josephson Junctions (QMJJs), we replace the classical barrier material in JJs with a quantum material barrier, where the quantum materials intrinsic properties can modulate the coupling between the two superconductors in novel ways. The Josephson Diode was an example of this: we used the quantum material Nb3Br8, which is a 2D material like graphene that has been theorized to host a net electric dipole, as our quantum material barrier of choice and placed it between two superconductors.

We were able to peel off just a couple atomic layers of this Nb3Br8 and make a very, very thin sandwich just a few atomic layers thick which was needed for making the Josephson diode, and was not possible with normal 3D materials. Nb3Br8, is part of a group of new quantum materials being developed by our collaborators, Professor Tyrel McQueens and his group at Johns Hopkins University in the USA, and was a key piece in us realizing the Josephson diode for the first time.

Q: What does this discovery mean in terms of impact and applications?

Ali: Many technologies are based on old versions of JJ superconductors, for example, MRI technology. Also, quantum computing today is based on Josephson Junctions. Technology that was previously only possible using semiconductors can now potentially be made with superconductors using this building block. This includes faster computers, as in computers with up to terahertz speed, which is 300 to 400 times faster than the computers we are now using. This will influence all sorts of societal and technological applications. If the 20th century was the century of semiconductors, the 21st can become the century of the superconductor.

The first research direction we have to tackle for commercial application is raising the operating temperature. Here we used a very simple superconductor that limited the operating temperature. Now we want to work with the known so-called High Tc Superconductors, and see whether we can operate Josephson diodes at temperatures above 77 K, since this will allow for liquid nitrogen cooling. The second thing to tackle is scaling of production. While its great that we proved this works in nanodevices, we only made a handful. The next step will be to investigate how to scale production to millions of Josephson diodes on a chip.

Q: How sure are you of your case?

Ali: There are several steps which all scientists need to take to maintain scientific rigor. The first is to make sure their results are repeatable. In this case we made many devices, from scratch, with different batches of materials, and found the same properties every time, even when measured on different machines in different countries by different people. This told us that the Josephson diode result was coming from our combination of materials and not some spurious result of dirt, geometry, machine or user error or interpretation.

We also carried out smoking gun experiments that dramatically narrows the possibility for interpretation. In this case, to be sure that we had a superconducting diode effect we actually tried switching the diode; as in we applied the same magnitude of current in both forward and reverse directions and showed that we actually measured no resistance (superconductivity) in one direction and real resistance (normal conductivity) in the other direction.

We also measured this effect while applying magnetic fields of different magnitudes and showed that the effect was clearly present at 0 applied field and gets killed by an applied field. This is also a smoking gun for our claim of having a superconducting diode effect at zero-applied field, a very important point for technological applications. This is because magnetic fields at the nanometer scale are very difficult to control and limit, so for practical applications, it is generally desired to operate without requiring local magnetic fields.

Q: Is it realistic for ordinary computers (or even the supercomputers of KNMI and IBM) to make use of superconducting?

Ali: Yes it is! Not for people at home, but for server farms or for supercomputers, it would be smart to implement this. Centralized computation is really how the world works now-a-days. Any and all intensive computation is done at centralized facilities where localization adds huge benefits in terms of power management, heat management, etc. The existing infrastructure could be adapted without too much cost to work with Josephson diode based electronics. There is a very real chance, if the challenges discussed in the other question are overcome, that this will revolutionize centralized and supercomputing!

On May 18th 19th, Professor Mazhar Ali and his collaborators Prof. Valla Fatemi (Cornell University) and Dr. Heng Wu (TU Delft) are hosting a Superconducting Diode Effects Workshop on the Virtual Science Forum, in which 12 international experts in the field will be giving recorded talks online (to be published on YouTube) about the current state of the field as well as future research and development directions.

Reference: The field-free Josephson diode in a van der Waals heterostructure 27 April 2022, Nature.DOI: 10.1038/s41586-022-04504-8

Associate professor Mazhar Ali studied at UC Berkeley and Princeton and did his postdoc at IBM and won the Sofia Kovalevskaja Award from the Alexander von Humboldt Foundation in Germany before joining the faculty of Applied Sciences in Delft.

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Breakthrough Discovery of the One-Way Superconductor Thought To Be Impossible - SciTechDaily