Archive for the ‘Quantum Computing’ Category

John McHutchison joins the Board of Evox Therapeutics – PRNewswire

OXFORD, England, Jan. 18, 2021 /PRNewswire/ -- Evox Therapeutics Ltd ("Evox" or the "Company"), a leading exosome therapeutics company, today announces that John McHutchison has joined its Board of Directors. John will be joining the Board as the representative for Oxford Sciences Innovation (OSI), one of the Company's major shareholders. John is a highly experienced life sciences executive, with expertise across multiple therapeutic areas, particularly infectious diseases and diseases of the liver and gastrointestinal tract.

John is currently Chief Executive Officer and President of Assembly Biosciences, a clinical-stage biotechnology company committed to advancing novel therapeutics to improve treatment options for hepatitis B virus worldwide. Prior to this, he spent nine years at Gilead Sciences, where most recently he was Chief Scientific Officer and Head of Research & Development. At Gilead he led the organization in the successful filing of numerous New Drug Applications (NDAs) and supplemental label updates across multiple therapeutic areas. Before this, he held various positions at Duke University Medical Center. John received his degrees in medicine and surgery from the University of Melbourne in Australia and in 2018 was recognized as an Officer of the Order of Australia for his distinguished service to medical research.

Dr Antonin de Fougerolles, Chief Executive Officer of Evox, commented:

"We are delighted to have John join our Board of Directors. He has significant relevant experience in developing new products, particularly related to diseases of the liver. I am confident that this expertise will be invaluable as we look to advance our exosome therapeutics into the clinic and enter the next stage of growth."

Commenting on his appointment, John McHutchison said:

"I'm very pleased to be joining the Board of Evox.The Company's exosome-based platform is highly exciting and has incredible potential I look forward to working with the rest of the team to help advance their product pipeline into the clinic."

About Evox Therapeutics

Evox Therapeutics is a privately held, Oxford-based biotechnology company focused on harnessing and engineering the natural delivery capabilities of extracellular vesicles, known as exosomes, to develop an entirely new class of therapeutics. Backed by leading life sciences venture capital groups and supported by a comprehensive intellectual property portfolio, Evox's mission is to positively impact human health by creating novel exosome-based therapeutics for the treatment of various severe diseases with limited options for patients and their families. Evox uses its proprietary DeliverEX technology to modify exosomes using various molecular engineering, drug loading, and targeting strategies to facilitate targeted drug delivery to organs of interest, including the brain and the central nervous system. Exosome-based drugs have the potential to address some of the limitations of protein, antibody and nucleic acid-based therapies by enabling delivery to cells and tissues that are currently out of reach using other drug delivery technologies, and Evox is leading the development within this emerging therapeutic space.

For further information visit: http://www.evoxtherapeutics.com.

About Oxford Sciences Innovation

Oxford Sciences Innovation is a leading science and technology business. We ensure Oxford's world-leading science moves out of the laboratory and onto the global stage. In partnership with the University of Oxford, OSI creates fundamental technology companies, built on science. We match scientists with experienced entrepreneurs and patient capital to turn idea to impact, discovery to company. We invest in Life Sciences, Deep Tech, Healthtech, AI and Software to create companies taking on challenges like diagnosis and treatment of disease and cancer, hyper resolution microscopy, renewable energy, drones, nuclear fusion and quantum computing. Founded in 2015, we've raised over 600M of evergreen capital, building on Oxford's renowned research legacy, to create a leading science and technology ecosystem and home for entrepreneurs.

SOURCE Evox Therapeutics

https://www.evoxtherapeutics.com

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John McHutchison joins the Board of Evox Therapeutics - PRNewswire

Research Week Features Hot Topics and New Tools – Duke Today

The plans have been adjusted a bit for virtual participation, but all systems are go for Research Week 2021 at Duke, Jan. 25-29.

This first-ever event will include the inaugural Ingrid Daubechies Lecture and updates from Duke researchers working on the frontiers of political science, Covid, Quantum computing, CRISPR gene editing and artificial intelligence. Participants can earn some Responsible Conduct of Research training credits and hear a sampling of work from our students and postdocs.

The Office of Research, which is hosting the event, will also be unveiling a powerful new platform for research planning and administration, myRESEARCHsuite.

And the Office of Licensing and Ventures will be hosting its annual showcase of Duke-grown startup companies.

This is a sort of a celebration, said Vice President for Research Larry Carin. Dukes researchers, from senior faculty to undergraduates, have risen above the challenges faced in this new world of social distancing, infectious disease controls, and surveillance testing.

Duke Research Week is an opportunity to showcase the extraordinary research accomplishments our faculty and students achieved under unimaginable challenges and constraints, Carin said.

Monday, Jan. 25: SARS-CoV-2 testing and modeling; Young voters in 2021 and beyond.

Tuesday, Jan. 26: Introduction to myRESEARCHsuite; Daubechies Lecture: Waves: Building Blocks in Nature and Mathematics, with Gigliola Staffilani of MIT; Grad student and postdoc mini-talks.

Wednesday, Jan. 27: FlyRDU design challenge winners; Undergraduate research virtual poster session; Research Town Hall Fundamentals of the Scientific Process panel discussions; Invented at Duke showcase.

Thursday, Jan. 28: Introduction to the Duke Quantum Center; The Human genome and CRISPR technologies.

Friday, Jan. 29: Artificial Intelligence and Health, a half-day symposium in three parts.

Registration is required to access the online content. Please see https://dukeresearchweek.vfairs.com/

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Research Week Features Hot Topics and New Tools - Duke Today

The Faultline Between Futurists and Traditionalists in National Security – War on the Rocks

Its been boom times for national security and technology futurists. The dozens of articles on AI in War on the Rocks over the past few years are the tip of the iceberg. In the book market, P.W. Singer and his co-authors have published numerous titles on national security and modern technologies: robotics, cybersecurity, social media, and AI. Georgetown Universitys new national security research institute, the Center for Security and Emerging Technologies, not only honored the times with its apt name but also placed AI at the top of its research agenda. Researcher Elsa Kanias writings (see her reports on the Battlefield Singularity or Quantum Hegemony?) have also helped to make the futurist discourse prominent, to give one example. Most importantly, the leaders and thinkers of this futurist camp have built a consensus that victory in great-power competition, especially between China and the United States, depends upon technological dominance and the mastery of emerging technologies.

National security and technology traditionalists, on the other hand, believe that the futurists misunderstand the purpose and sources of American power. In their view, the fundamental goals of American power relate to security, prosperity, and politics, and technological dominance is simply one means to these ends. Furthermore, traditionalists hold that the implications of emerging technologies have been overstated and that these nascent capabilities should be only one part of a broader national security and technology portfolio. For instance, a reader influenced by Stephen Biddles research on the relationship between technology and military power would have to strain to believe that that AI will transform the way Americas military safeguards our nations.

Both sides can agree on at least this though: This disagreement is not an intellectual exercise. It is better thought of as an intellectual faultline across which the push and pull of the tectonic debate will guide the attention and future decisions of senior leaders in the military, intelligence, and homeland security agencies. Leaders and their advisers will need to navigate the claims and counterclaims of these camps, and this piece is meant to serve as a high-level map but not a compass for these parties. This article explains each camps claims and perspective, and suggests broad methods for leaders to find balance and avoid an exclusive focus on either worldview. Without a map of this kind, senior leaders and analysts will govern over an unproductive debate between futurists and traditionalists in which scarce dollars are spent without the benefits of civil discourse.

The Futurists

Based on their reading of the technological trends, futurists worry that America is at risk of losing the emerging great-power competition with China, which they assert is based on technological advantage, itself underpinned by emerging technology. Technological dominance, argue the futurists, will ensure Americas ability to achieve all, or at least many, other strategic goals.

Great-Power Competition 2.0

A recent Council on Foreign Relations task force on Innovation and National Security enjoins the United States to once again make technological preeminence a national goal. The task forces report contends that if America succeeds in accomplishing that goal, the United States will continue to enjoy economic, strategic, and military advantages over potential rivals and would-be challengers. A recent Center for New American Security report also channels the futurists when it argues that the United States will steadily lose ground in the contest with China to ascend the commanding technological heights of the 21st century unless it nurtures an alliance innovation base. Thinkers in this camp tend to de-emphasize war and conflict and instead see nontraditional threats from new technologies misinformation fueled by Chinese and Russian bots or intelligence advantage gained by Chinese 5G networks and technology-enabled opportunities.

Emerging Technology

Futurists frequently advocate for investment in a fourth industrial revolution that includes AI, robotics, quantum computing, 5G networks, 3D printing, virtual reality, synthetic biology, and other technological domains. Thinkers like T.X. Hammes and P.W. Singer have come to define this emphasis on emerging technologies. Futurists often believe that innovation in the modern era arises from commercial firms competing in a consumer market, not from yesteryears capital-intensive, military-focused industrial titans. Should the United States not invest in these technologies (a dangerous possibility because of organizational inertia), it could find itself losing the global race to technological superiority.

Prediction Based on Technological Writings

Futurists often cite technological writings drawn from scientific and business literatures. A reader is likely to find references to arXiv, an online repository for scientific articles, and to magazines and news sites such as Wired, Science, and Ars Technica. This choice of sources reflects a worldview that emphasizes the rapidity of technological change, the belief in the possibility of revolutionary technology, and the potential for discontinuities that is, massive, non-linear shifts. These strategists therefore tend to rely on disciplined forecasts and prediction based on technological trends. Of note, some in this camp also champion science fiction as a vehicle for anticipating and preparing for the future.

The Traditionalists

Traditionalists view the futurists as zombie banner carriers for a mix of 1990s Revolution in Military Affairs thinking and the technological utopianism of Silicon Valley. These thinkers believe that the traditional goals of international politics endure, that the transformative aspects of emerging technologies have been overstated, and that the work of historians and social scientists makes these facts clear.

International Politics 1.0

To traditionalists, the trinity of security, prosperity, and freedom not technological dominance continue to be essential goals of American statecraft. In contrast to the futurists, the traditionalists also believe that war (or, more precisely, the threat or employment of military force) is still central to international politics. Leaders still want to achieve deterrence preventing adversaries from challenging the status quo or effect tangible battlefield outcomes such as taking and holding territory or killing or capturing a human enemy. Of course, interstate war has become an increasingly rare event, but American military preponderance, as noted by past RAND research, may itself be the cause of this decrease in conventional war. A traditionalist might also argue that preparing for war, including nuclear war, is the best way to keep war at bay.

The Limits of Emerging Technology

The traditionalists argue that the utility of emerging technologies for international competition and their importance to military superiority have been exaggerated. In this vein, Michael Mazaar and his RAND colleagues assessed recent Russian and Chinese information warfare activities and found little conclusive evidence about the actual impact of hostile social manipulation to date. This finding should surprise those strategists who believe that the internet and social media have transformed international politics and created an age of virulent state-sponsored disinformation. Academics Nadiya Kostyuk and Yuri Zhukov similarly find that cyber weapons perhaps the emerging technology par excellence have had a surprisingly small effect on battlefield events in Ukraine and Syria. A recent article by political scientist Jon Lindsay even takes aim at the supposedly revolutionary implications of quantum computers for signals intelligence and argues that the effect will be less than decisive given the organizational difficulties of implementing robust cryptosystems. Instead, writers such as David Ochmanek and Elbridge Colby and Stephen Biddle emphasize more traditional military technologies and rigorous training in the modern system of war, respectively, as keys to American military advantage.

Understanding Based on History

This different worldview has its origins in a disagreement over the best way to understand the future. Traditionalists look to the past, employing the tools of a historian or a social scientist. Its no coincidence that the sources in this section tend towards the empirically rich study of the past with a focus on politics and organizations. Furthermore, skeptics avoid information sources such as Wired or Ars Technica that fixate on the latest gadgets and gizmos, preferring instead to wait for when these widgets have been put to the test of battle.

Navigating the Futurist-Traditionalist Faultline

First, senior national security leaders making technology-related decisions ought to ask questions that force futurists and traditionalists to confront their conflicting assumptions. Is achieving technological supremacy essential or even sufficient for achieving other important foreign policy goals? What is the contribution of emerging technologies versus traditional technologies for achieving broad geostrategic goals? What methods and evidence should the two sides of the debate use?

Otherwise, national security and technology thinkers will simply strawman or ignore each other. For instance, one recent writer, who might be placed in loose agreement with some of the traditionalist arguments, claims that Project Maven, a Pentagon AI initiative, aims to take the guesswork out of the future by sucking in every email, camera feed, broadcast signal, data transmission everything from everywhere to know what the world is doing, with the omniscience of a god. He labels the effort hubris. Our own reading of public coverage suggests that Project Maven actually intends to apply computer vision to overhead imagery. To us, this is a clear example of traditionalist thinking gone too far his criticism, if taken seriously, would damn a range of current security-related AI experiments.

Second, leaders should acquire information not in the sense of buying large datasets, but in terms of the full exploration of new technology, as described by Tom McNaughers Top Gun-era classic New Weapons, Old Politics. In other words, leaders should not drown out the disagreement but should let the two sides engage in high-stakes debate: There should be technology pilots, exploratory research, experiments, and wargames to better understand the opportunities, limits, and risks of new technologies. Towards that end, the national security establishment needs technology feedback channels to complement the growing number of acquisition channels. The Joint Artificial Intelligence Centers recent open job postings for machine learning test and evaluation engineers indicates that it agrees.

Third, researchers ought to create methodological tools that will generate scientific evidence that both sides will find compelling. For instance, one promising avenue includes synthetic history research methodologies. These are methods that simulate military and foreign policy decision-making environments and use human actors, not models, as decision-making agents. For instance, Erik Lin-Greenberg employs wargames to study the effect of using unmanned technologies on crisis escalation, finding that the use of unmanned aircraft might actually lead to less escalation during future crises. One of us has done past research that uses a scenario-based survey of foreign policy elites to study nuclear weapons and conventional escalation in a hypothetical war between the United States and China. Futurists can use synthetic history to study untried technologies and traditionalists can appreciate the systematic evidence such methods create.

Fourth, schools of public policy or international relations and engineering programs will need to move onto each others turf to train a generation of public-interest technologists. This idea, popularized in part by cryptographer and information security thinker Bruce Schneier, is not just more software engineers working for the government, though that would likely be beneficial. Schneier defines public-interest technologists as people who combine their technological expertise with a public-interest focus. Its a call to revamp education by training a cadre of civic-minded persons with hands-on technical experience, a broad understanding of technology, a commitment to asking and answering questions of societal importance, and a keen appreciation for the institutions of modern government. Some schools have already embraced this trend. Its public-interest technologists who can help future leaders navigate this divide.

This faultline between traditionalists and futurists, which is often obscured from view, deserves more focused attention and further debate. Imagine a future episode of Intelligence Squared, the popular debate series, in which participants discuss this motion: Emerging technologies are the key to 21st century power. Eric Schmidt former executive chairman of Alphabet, current chairman of the Department of Defense Innovation Board, and outspoken advocate of innovation in the Defense Department or other commissioners on the National Security Commission on Artificial Intelligence could publicly debate this topic with futurists and traditionalists alike. The aftershocks of such a debate might be felt for many years to come.

John Speed Meyers holds a Ph.D. in policy analysis from the Pardee RAND Graduate School at which he wrote a traditionalist-leaning dissertation on U.S. military strategy towards China. David Jackson served as an officer in the United States Marine Corps and is a graduate of the Johns Hopkins School of Advanced International Studies. Their opinions are theirs and theirs alone.

Image: U.S. government photo

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The Faultline Between Futurists and Traditionalists in National Security - War on the Rocks

Surprising Discovery of Unexpected Quantum Behavior in Insulators Suggests Existence of Entirely New Type of Particle – SciTechDaily

In a surprising discovery, Princeton physicists have observed an unexpected quantum behavior in an insulator made from a material called tungsten ditelluride. This phenomenon, known as quantum oscillation, is typically observed in metals rather than insulators, and its discovery offers new insights into our understanding of the quantum world. The findings also hint at the existence of an entirely new type of quantum particle.

The discovery challenges a long-held distinction between metals and insulators, because in the established quantum theory of materials, insulators were not thought to be able to experience quantum oscillations.

If our interpretations are correct, we are seeing a fundamentally new form of quantum matter, said Sanfeng Wu, assistant professor of physics at Princeton University and the senior author of a recent paper in Nature detailing this new discovery. We are now imagining a wholly new quantum world hidden in insulators. Its possible that we simply missed identifying them over the last several decades.

The observation of quantum oscillations has long been considered a hallmark of the difference between metals and insulators. In metals, electrons are highly mobile, and resistivity the resistance to electrical conduction is weak. Nearly a century ago, researchers observed that a magnetic field, coupled with very low temperatures, can cause electrons to shift from a classical state to a quantum state, causing oscillations in the metals resistivity. In insulators, by contrast, electrons cannot move and the materials have very high resistivity, so quantum oscillations of this sort are not expected to occur, no matter the strength of magnetic field applied.

The discovery was made when the researchers were studying a material called tungsten ditelluride, which they made into a two-dimensional material. They prepared the material by using standard scotch tape to increasingly exfoliate, or shave, the layers down to what is called a monolayer a single atom-thin layer. Thick tungsten ditelluride behaves like a metal. But once it is converted to a monolayer, it becomes a very strong insulator.

This material has a lot of special quantum properties, Wu said.

The researchers then set about measuring the resistivity of the monolayer tungsten ditelluride under magnetic fields. To their surprise, the resistivity of the insulator, despite being quite large, began to oscillate as the magnetic field was increased, indicating the shift into a quantum state. In effect, the material a very strong insulator was exhibiting the most remarkable quantum property of a metal.

This came as a complete surprise, Wu said. We asked ourselves, Whats going on here? We dont fully understand it yet.

Wu noted that there are no current theories to explain this phenomenon.

Nonetheless, Wu and his colleagues have put forward a provocative hypothesis a form of quantum matter that is neutrally charged. Because of very strong interactions, the electrons are organizing themselves to produce this new kind of quantum matter, Wu said.

But it is ultimately no longer the electrons that are oscillating, said Wu. Instead, the researchers believe that new particles, which they have dubbed neutral fermions, are born out of these strongly interacting electrons and are responsible for creating this highly remarkable quantum effect.

Fermions are a category of quantum particles that include electrons. In quantum materials, charged fermions can be negatively charged electrons or positively charged holes that are responsible for the electrical conduction. Namely, if the material is an electrical insulator, these charged fermions cant move freely. However, particles that are neutral that is, neither negatively nor positively charged are theoretically possible to be present and mobile in an insulator.

Our experimental results conflict with all existing theories based on charged fermions, said Pengjie Wang, co-first author on the paper and postdoctoral research associate, but could be explained in the presence of charge-neutral fermions.

The Princeton team plans further investigation into the quantum properties of tungsten ditelluride. They are particularly interested in discovering whether their hypothesis about the existence of a new quantum particle is valid.

This is only the starting point, Wu said. If were correct, future researchers will find other insulators with this surprising quantum property.

Despite the newness of the research and the tentative interpretation of the results, Wu speculated about how this phenomenon could be put to practical use.

Its possible that neutral fermions could be used in the future for encoding information that would be useful in quantum computing, he said. In the meantime, though, were still in the very early stages of understanding quantum phenomena like this, so fundamental discoveries have to be made.

Reference: Landau quantization and highly mobile fermions in an insulator by Pengjie Wang, Guo Yu, Yanyu Jia, Michael Onyszczak, F. Alexandre Cevallos, Shiming Lei, Sebastian Klemenz, Kenji Watanabe, Takashi Taniguchi, Robert J. Cava, Leslie M. Schoop and Sanfeng Wu, Nature.DOI: 10.1038/s41586-020-03084-9

In addition to Wu and Wang, the team included co-first authors Guo Yu, a graduate student in electrical engineering, and Yanyu Jia, a graduate student in physics. Other key Princeton contributors were Leslie Schoop, assistant professor of chemistry; Robert Cava, the Russell Wellman Moore Professor of Chemistry; Michael Onyszczak, a physics graduate student; and three former postdoctoral research associates: Shiming Lei, Sebastian Klemenz and F. Alexandre Cevallos, who is also a 2018 Princeton Ph.D. alumnus. Kenji Watanabe and Takashi Taniguchi of the National Institute for Material Science in Japan also contributed.

Landau quantization and highly mobile fermions in an insulator, by Pengjie Wang, Guo Yu, Yanyu Jia, Michael Onyszczak, F. Alexandre Cevallos, Shiming Lei, Sebastian Klemenz, Kenji Watanabe, Takashi Taniguchi, Robert J. Cava, Leslie M. Schoop, and Sanfeng Wu, was published Jan. 4 in the journal Nature (DOI: 10.1038/s41586-020-03084-9).

This work was primarily supported by the National Science Foundation (NSF) through the Princeton University Materials Research Science and Engineering Center (DMR-1420541 and DMR-2011750) and a CAREER award (DMR-1942942). Early measurements were performed at the National High Magnetic Field Laboratory, which is supported by an NSF Cooperative Agreement (DMR-1644779), and the State of Florida. Additional support came from the Elemental Strategy Initiative conducted by the Ministry of Education, Culture, Sports, Science and Technology of Japan (JPMXP0112101001), the Japan Society for the Promotion of Sciences KAKENHI program (JP20H00354) and the Japan Science and Technology Agencys CREST program (JPMJCR15F3). Further support came from the U.S. Army Research Office Multidisciplinary University Research Initiative on Topological Insulators (W911NF1210461), the Arnold and Mabel Beckman Foundation through a Beckman Young Investigator grant, and the Gordon and Betty Moore Foundation (GBMF9064).

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Surprising Discovery of Unexpected Quantum Behavior in Insulators Suggests Existence of Entirely New Type of Particle - SciTechDaily

Enterprise Quantum Computing Market: Industry In Depth Research, Advancements, Statistics, Facts and Figures by Forecast 2021-2027 – Jumbo News

LOS ANGELES, United States: QY Research has recently published a research report titled, Global Enterprise Quantum Computing Market Size, Status and Forecast 2021-2027. This report has been prepared by experienced and knowledgeable market analysts and researchers. It is a phenomenal compilation of important studies that explore the competitive landscape, segmentation, geographical expansion, and revenue, production, and consumption growth of the global Enterprise Quantum Computing market. Players can use the accurate market facts and figures and statistical studies provided in the report to understand the current and future growth of the global Enterprise Quantum Computing market.

The report includes CAGR, market shares, sales, gross margin, value, volume, and other vital market figures that give an exact picture of the growth of the global Enterprise Quantum Computing market.

Competitive Landscape

Competitor analysis is one of the best sections of the report that compares the progress of leading players based on crucial parameters, including market share, new developments, global reach, local competition, price, and production. From the nature of competition to future changes in the vendor landscape, the report provides in-depth analysis of the competition in the global Enterprise Quantum Computing market.

Key questions answered in the report:

TOC

1 Report Overview1.1 Study Scope1.2 Market Analysis by Type1.2.1 Global Enterprise Quantum Computing Market Size Growth Rate by Type: 2016 VS 2021 VS 20271.2.2 Software1.2.3 Service1.2.4 Hardware1.3 Market by Application1.3.1 Global Enterprise Quantum Computing Market Share by Application: 2016 VS 2021 VS 20271.3.2 Automation1.3.3 Data Analytics1.3.4 Optimization1.4 Study Objectives1.5 Years Considered 2 Global Growth Trends2.1 Global Enterprise Quantum Computing Market Perspective (2016-2027)2.2 Enterprise Quantum Computing Growth Trends by Regions2.2.1 Enterprise Quantum Computing Market Size by Regions: 2016 VS 2021 VS 20272.2.2 Enterprise Quantum Computing Historic Market Share by Regions (2016-2021)2.2.3 Enterprise Quantum Computing Forecasted Market Size by Regions (2022-2027)2.3 Enterprise Quantum Computing Industry Dynamic2.3.1 Enterprise Quantum Computing Market Trends2.3.2 Enterprise Quantum Computing Market Drivers2.3.3 Enterprise Quantum Computing Market Challenges2.3.4 Enterprise Quantum Computing Market Restraints 3 Competition Landscape by Key Players3.1 Global Top Enterprise Quantum Computing Players by Revenue3.1.1 Global Top Enterprise Quantum Computing Players by Revenue (2016-2021)3.1.2 Global Enterprise Quantum Computing Revenue Market Share by Players (2016-2021)3.2 Global Enterprise Quantum Computing Market Share by Company Type (Tier 1, Tier 2 and Tier 3)3.3 Players Covered: Ranking by Enterprise Quantum Computing Revenue3.4 Global Enterprise Quantum Computing Market Concentration Ratio3.4.1 Global Enterprise Quantum Computing Market Concentration Ratio (CR5 and HHI)3.4.2 Global Top 10 and Top 5 Companies by Enterprise Quantum Computing Revenue in 20203.5 Enterprise Quantum Computing Key Players Head office and Area Served3.6 Key Players Enterprise Quantum Computing Product Solution and Service3.7 Date of Enter into Enterprise Quantum Computing Market3.8 Mergers & Acquisitions, Expansion Plans 4 Enterprise Quantum Computing Breakdown Data by Type4.1 Global Enterprise Quantum Computing Historic Market Size by Type (2016-2021)4.2 Global Enterprise Quantum Computing Forecasted Market Size by Type (2022-2027) 5 Enterprise Quantum Computing Breakdown Data by Application5.1 Global Enterprise Quantum Computing Historic Market Size by Application (2016-2021)5.2 Global Enterprise Quantum Computing Forecasted Market Size by Application (2022-2027) 6 North America6.1 North America Enterprise Quantum Computing Market Size (2016-2027)6.2 North America Enterprise Quantum Computing Market Size by Type6.2.1 North America Enterprise Quantum Computing Market Size by Type (2016-2021)6.2.2 North America Enterprise Quantum Computing Market Size by Type (2022-2027)6.2.3 North America Enterprise Quantum Computing Market Size by Type (2016-2027)6.3 North America Enterprise Quantum Computing Market Size by Application6.3.1 North America Enterprise Quantum Computing Market Size by Application (2016-2021)6.3.2 North America Enterprise Quantum Computing Market Size by Application (2022-2027)6.3.3 North America Enterprise Quantum Computing Market Size by Application (2016-2027)6.4 North America Enterprise Quantum Computing Market Size by Country6.4.1 North America Enterprise Quantum Computing Market Size by Country (2016-2021)6.4.2 North America Enterprise Quantum Computing Market Size by Country (2022-2027)6.4.3 United States6.4.3 Canada 7 Europe7.1 Europe Enterprise Quantum Computing Market Size (2016-2027)7.2 Europe Enterprise Quantum Computing Market Size by Type7.2.1 Europe Enterprise Quantum Computing Market Size by Type (2016-2021)7.2.2 Europe Enterprise Quantum Computing Market Size by Type (2022-2027)7.2.3 Europe Enterprise Quantum Computing Market Size by Type (2016-2027)7.3 Europe Enterprise Quantum Computing Market Size by Application7.3.1 Europe Enterprise Quantum Computing Market Size by Application (2016-2021)7.3.2 Europe Enterprise Quantum Computing Market Size by Application (2022-2027)7.3.3 Europe Enterprise Quantum Computing Market Size by Application (2016-2027)7.4 Europe Enterprise Quantum Computing Market Size by Country7.4.1 Europe Enterprise Quantum Computing Market Size by Country (2016-2021)7.4.2 Europe Enterprise Quantum Computing Market Size by Country (2022-2027)7.4.3 Germany7.4.4 France7.4.5 U.K.7.4.6 Italy7.4.7 Russia7.4.8 Nordic 8 Asia-Pacific8.1 Asia-Pacific Enterprise Quantum Computing Market Size (2016-2027)8.2 Asia-Pacific Enterprise Quantum Computing Market Size by Type8.2.1 Asia-Pacific Enterprise Quantum Computing Market Size by Type (2016-2021)8.2.2 Asia-Pacific Enterprise Quantum Computing Market Size by Type (2022-2027)8.2.3 Asia-Pacific Enterprise Quantum Computing Market Size by Type (2016-2027)8.3 Asia-Pacific Enterprise Quantum Computing Market Size by Application8.3.1 Asia-Pacific Enterprise Quantum Computing Market Size by Application (2016-2021)8.3.2 Asia-Pacific Enterprise Quantum Computing Market Size by Application (2022-2027)8.3.3 Asia-Pacific Enterprise Quantum Computing Market Size by Application (2016-2027)8.4 Asia-Pacific Enterprise Quantum Computing Market Size by Region8.4.1 Asia-Pacific Enterprise Quantum Computing Market Size by Region (2016-2021)8.4.2 Asia-Pacific Enterprise Quantum Computing Market Size by Region (2022-2027)8.4.3 China8.4.4 Japan8.4.5 South Korea8.4.6 Southeast Asia8.4.7 India8.4.8 Australia 9 Latin America9.1 Latin America Enterprise Quantum Computing Market Size (2016-2027)9.2 Latin America Enterprise Quantum Computing Market Size by Type9.2.1 Latin America Enterprise Quantum Computing Market Size by Type (2016-2021)9.2.2 Latin America Enterprise Quantum Computing Market Size by Type (2022-2027)9.2.3 Latin America Enterprise Quantum Computing Market Size by Type (2016-2027)9.3 Latin America Enterprise Quantum Computing Market Size by Application9.3.1 Latin America Enterprise Quantum Computing Market Size by Application (2016-2021)9.3.2 Latin America Enterprise Quantum Computing Market Size by Application (2022-2027)9.3.3 Latin America Enterprise Quantum Computing Market Size by Application (2016-2027)9.4 Latin America Enterprise Quantum Computing Market Size by Country9.4.1 Latin America Enterprise Quantum Computing Market Size by Country (2016-2021)9.4.2 Latin America Enterprise Quantum Computing Market Size by Country (2022-2027)9.4.3 Mexico9.4.4 Brazil 10 Middle East & Africa10.1 Middle East & Africa Enterprise Quantum Computing Market Size (2016-2027)10.2 Middle East & Africa Enterprise Quantum Computing Market Size by Type10.2.1 Middle East & Africa Enterprise Quantum Computing Market Size by Type (2016-2021)10.2.2 Middle East & Africa Enterprise Quantum Computing Market Size by Type (2022-2027)10.2.3 Middle East & Africa Enterprise Quantum Computing Market Size by Type (2016-2027)10.3 Middle East & Africa Enterprise Quantum Computing Market Size by Application10.3.1 Middle East & Africa Enterprise Quantum Computing Market Size by Application (2016-2021)10.3.2 Middle East & Africa Enterprise Quantum Computing Market Size by Application (2022-2027)10.3.3 Middle East & Africa Enterprise Quantum Computing Market Size by Application (2016-2027)10.4 Middle East & Africa Enterprise Quantum Computing Market Size by Country10.4.1 Middle East & Africa Enterprise Quantum Computing Market Size by Country (2016-2021)10.4.2 Middle East & Africa Enterprise Quantum Computing Market Size by Country (2022-2027)10.4.3 Turkey10.4.4 Saudi Arabia10.4.5 UAE 11 Key Players Profiles11.1 QRA Corp11.1.1 QRA Corp Company Details11.1.2 QRA Corp Business Overview11.1.3 QRA Corp Enterprise Quantum Computing Introduction11.1.4 QRA Corp Revenue in Enterprise Quantum Computing Business (2016-2021)11.1.5 QRA Corp Recent Development11.2 Intel Corporation11.2.1 Intel Corporation Company Details11.2.2 Intel Corporation Business Overview11.2.3 Intel Corporation Enterprise Quantum Computing Introduction11.2.4 Intel Corporation Revenue in Enterprise Quantum Computing Business (2016-2021)11.2.5 Intel Corporation Recent Development11.3 D-Wave Systems Inc11.3.1 D-Wave Systems Inc Company Details11.3.2 D-Wave Systems Inc Business Overview11.3.3 D-Wave Systems Inc Enterprise Quantum Computing Introduction11.3.4 D-Wave Systems Inc Revenue in Enterprise Quantum Computing Business (2016-2021)11.3.5 D-Wave Systems Inc Recent Development11.4 Cambridge Quantum11.4.1 Cambridge Quantum Company Details11.4.2 Cambridge Quantum Business Overview11.4.3 Cambridge Quantum Enterprise Quantum Computing Introduction11.4.4 Cambridge Quantum Revenue in Enterprise Quantum Computing Business (2016-2021)11.4.5 Cambridge Quantum Recent Development11.5 Computing Ltd11.5.1 Computing Ltd Company Details11.5.2 Computing Ltd Business Overview11.5.3 Computing Ltd Enterprise Quantum Computing Introduction11.5.4 Computing Ltd Revenue in Enterprise Quantum Computing Business (2016-2021)11.5.5 Computing Ltd Recent Development11.6 QC Ware Corp.11.6.1 QC Ware Corp. Company Details11.6.2 QC Ware Corp. Business Overview11.6.3 QC Ware Corp. Enterprise Quantum Computing Introduction11.6.4 QC Ware Corp. Revenue in Enterprise Quantum Computing Business (2016-2021)11.6.5 QC Ware Corp. Recent Development11.7 QxBranch, Inc.11.7.1 QxBranch, Inc. Company Details11.7.2 QxBranch, Inc. Business Overview11.7.3 QxBranch, Inc. Enterprise Quantum Computing Introduction11.7.4 QxBranch, Inc. Revenue in Enterprise Quantum Computing Business (2016-2021)11.7.5 QxBranch, Inc. Recent Development11.8 Rigetti & Co, Inc.11.8.1 Rigetti & Co, Inc. Company Details11.8.2 Rigetti & Co, Inc. Business Overview11.8.3 Rigetti & Co, Inc. Enterprise Quantum Computing Introduction11.8.4 Rigetti & Co, Inc. Revenue in Enterprise Quantum Computing Business (2016-2021)11.8.5 Rigetti & Co, Inc. Recent Development11.9 IBM Corporation11.9.1 IBM Corporation Company Details11.9.2 IBM Corporation Business Overview11.9.3 IBM Corporation Enterprise Quantum Computing Introduction11.9.4 IBM Corporation Revenue in Enterprise Quantum Computing Business (2016-2021)11.9.5 IBM Corporation Recent Development11.10 Google LLC11.10.1 Google LLC Company Details11.10.2 Google LLC Business Overview11.10.3 Google LLC Enterprise Quantum Computing Introduction11.10.4 Google LLC Revenue in Enterprise Quantum Computing Business (2016-2021)11.10.5 Google LLC Recent Development11.11 Quantum Circuits, Inc.11.11.1 Quantum Circuits, Inc. Company Details11.11.2 Quantum Circuits, Inc. Business Overview11.11.3 Quantum Circuits, Inc. Enterprise Quantum Computing Introduction11.11.4 Quantum Circuits, Inc. Revenue in Enterprise Quantum Computing Business (2016-2021)11.11.5 Quantum Circuits, Inc. Recent Development11.12 Microsoft Corporation11.12.1 Microsoft Corporation Company Details11.12.2 Microsoft Corporation Business Overview11.12.3 Microsoft Corporation Enterprise Quantum Computing Introduction11.12.4 Microsoft Corporation Revenue in Enterprise Quantum Computing Business (2016-2021)11.12.5 Microsoft Corporation Recent Development11.13 Cisco Systems11.13.1 Cisco Systems Company Details11.13.2 Cisco Systems Business Overview11.13.3 Cisco Systems Enterprise Quantum Computing Introduction11.13.4 Cisco Systems Revenue in Enterprise Quantum Computing Business (2016-2021)11.13.5 Cisco Systems Recent Development11.14 Atos SE11.14.1 Atos SE Company Details11.14.2 Atos SE Business Overview11.14.3 Atos SE Enterprise Quantum Computing Introduction11.14.4 Atos SE Revenue in Enterprise Quantum Computing Business (2016-2021)11.14.5 Atos SE Recent Development 12 Analysts Viewpoints/Conclusions 13 Appendix13.1 Research Methodology13.1.1 Methodology/Research Approach13.1.2 Data Source13.2 Disclaimer13.3 Author Details

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Enterprise Quantum Computing Market: Industry In Depth Research, Advancements, Statistics, Facts and Figures by Forecast 2021-2027 - Jumbo News