Why You Can’t Call in an Air Strike with an iPhone – War on the Rocks

Christian Brose, The Kill Chain: Defending America in the Future of High-Tech Warfare(Hachette Books, 2020)

Between 1996 and 2011, the U.S. military spent $6 billion to develop and field a new tactical radio. Even in the context of U.S. military spending, $6 billion is a big chunk of change. By comparison, the Air Force spent approximately $3 billion to develop and procure the pathbreaking MQ-1 Predator. The Predator ushered in a new era of drone warfare, whereas the tactical radio project was cancelled before it could produce a single radio.

Harris Communications was one of the companies that hoped to win the contract for this program. The leaders at Harris foresaw the enormous technological and program management challengesthat awaited the winner. Harris didnt win the contract, but that didnt stop the company from taking advantage of the opportunity.Itinvested $200 million of its own research and development dollars to develop a radio system with less ambitious performance goals and that would be unencumbered by unwieldy Pentagon acquisition regulations. Harris succeeded in 2008 with the PRC-117G radio, which could support a modest tactical voice and data network that has since become the workhorse standard for the Army and Marine Corps.

Harris radio has many of the hallmarks in which proponents of greater commercial technology in the U.S. military believe. Namely, nimble commercial firms can be more effective if they are less constrained by the Pentagons cumbersome acquisition bureaucracy. Although Harris is not a Silicon Valley start-up, the success of its radio when compared to the more ambitious radio-that-never-was illustrates the problems of the acquisition system and highlights theattractiveness of letting technologists have more freedom to work.

The discourse about emerging technology in theDepartment of Defensetoday is centered around themilitarypotential of commercially developed information technology. If anything, the role of commercial technology is clearer today than it was in in 1996. Pivotal, a software company, worked with the Air Forces Kessel Run program to transformtanker refueling schedules with easy-to-use software. Artificial intelligence-driven drones have the potential to overwhelm defenses while quantum sensors can detect even stealthy submarines beneath the waves by their minute gravitational signatures on the wavetops. The military potential for these and other commercially developed technologies is substantial.

For many technologists eager to help the U.S. military though,the conversation is often tinged with asense of frustration that the military does not adopt commercial technology more readily than they believe it should. This frustration often focuses on the role of the Department of Defenses acquisition bureaucracy. Congress, for instance, has asked pointed questions to the Army about why it was reluctant to adopt the commercially developedPalantirintelligence analysis software system.And, formerGoogle CEO Eric Schmidtonce proclaimedto the head of U.S. Special Operations Command thatIf I got under your tent for a day, I could solve most of your problems. Tesla and SpaceX CEO Elon Musk confidently stated earlier this year that a manned F-35 would beno matchagainst a semi-autonomous drone in air-to-air combat. There is a strong sense among interested technologists that breakthroughs in the commercial sector will be critical to warfare in the future and that the overly restrictive Pentagon processes and stodgy culture are impediments to that future.

The frustrations of commercial technologists should concern the Department of Defense. The under secretary of defense for research and engineerings modernization priorities include artificial intelligence, biotechnology, and other technologies where the commercial sector is leading development efforts. It is clear that commercial technology companies will be an important part of an expanded defense industrial base, giving weight to technologists concerns. Some firms may find the defense sector to be an economically challenging market; a reputation for frustrating red tape may make it even less attractive. Most concerning, though, is that simple frustrations about Pentagon bureaucracy are an easy conclusion to draw that offers little hope about whether the situation will improve. Such a conclusion obscures deeper exploration into the reasons why commercial technology is not more readily adopted by the military.

Is The System the Only Obstacle?

There is no shortage of criticism of thedefense acquisition bureaucracy, butis that the only reason why troops arent calling in air strikes from iPhones and using artificial intelligence to control drone swarms? Two other reasons might also be considered:first, adapting commercial technology for military purposes is harder than it seems; and second, the military might not be fully convinced that available commercial technologies are what it wants.

Christian Broses new book, The Kill Chain: Defending America in the Future ofHigh-TechWarfare,is aninsightfulanalysisof the bureaucratic obstacles to the adoption of commercial technologies by the U.S. military.His years of experience on Capitol Hill imbue his book with a sense of context thatmoves the conversation past the frustrations that technologists have expressed.He deftly describes the bureaucratic and political power structures and incentives that keep the U.S. military from more readily integrating commercial technology.It is a powerful contribution to the conversation about technology and defense.

Broses critiques are more nuanced than those of many frustrated technologists. However, he still confines hisarguments toissues about the political incentive structure and acquisition bureaucracy. To keep advancing the conversation, we should consider these two possible obstacles alongwith Broses critique of the bureaucracy.

The Bureaucracy Is Imposing Obstacles

In his book, Brose argues that the Pentagons organization, process, and incentives are preventing commercial technology from taking root in the military. He argues that commercial information technologies such as artificial intelligence will define the future of conflict and that the United States is underinvesting both financially and organizationally in those technologies. Meanwhile, Brose argues, Americas adversaries have watched, learned, and stolen a march on new technologies, including artificial intelligence, quantum computing, biotechnology, and space systems.

Brose offers a well-thought-out diagnosis of why this underinvestment exists, even though the United States correctly envisioned the rolethatcommercial information technologies would playas far back as the early 1990s. Americas hubris about its supremacy made it slow to act, he argues, as did a two-decade counter-insurgency and counter-terrorism odysseythatdistracted the United Statesfrom making progress. Brose further argues that the Pentagon is incentivized to value stakeholder consensus over decisiveness, with a budgeting processthat favors incumbent programs over new ones and an acquisition system that favors process compliance over effective outcomes. The result, he believes, is a defense establishment that is unable to change course until it is too late.

Broses observations and arguments about the organizational hurdles to greater commercial technology adoption by the U.S. military forceus to reflecton the values for which the acquisition bureaucracy strives. For instance, his analysis of the acquisition systems prodigious regulatory burdens, which exist to ensure fair competition and save money, forces readers to question the purpose of all the red tape: Is saving pennies worth the trouble when the future of U.S. national security is at stake? Brose believes that, when it comes to confronting emerging great powers with chips on their shoulders and serious military technology ambitions, the United States has done what it did during the Cold War when it pick[ed] winners the people who could succeed where others could not, and the industrialists who could quickly build amazing technology that worked. Other concerns, such as fairness and efficiency, were of secondary importance.

However, there is something to be said for fairness and efficiency. Done right, fair competition yields a diversity of approaches that is more likely to prepare United States to endure the shocks and surprises of clever and adaptive adversaries. Even ballistic missile pioneer Bernard Schriever one of Brosespickedwinners hedged his bets bypursuing multiple approachesthat yielded the Atlas and Titan missiles. Cost-effectiveness is also underrated. Americas national resources are finite. And, theongoing COVID-19 pandemicis only one example that should encourage reflection on budget priorities. Brose correctly diagnoses the ills of the defense acquisition bureaucracy, but its goals are still worthwhile. Brose is right that mindless adherence to acquisition rules without considering the wider context wastes time and effort. One might be better served bycontinuing the hard workofreforming the bureaucracy not sidestepping it.

Defense Technology Is Harder Than It Looks

Another reason why emerging commercial technologies may not be more readily adopted by the Pentagon is that adapting such technology for military use may be harder than it seems. This chance is a distinct possibility. MaaikeVerbruggenargues that military expectations for artificial intelligence should be tempered. Artificial intelligence is not yet capable of performing subjective tasks where judgment is required; for instance, it still struggles to accurately flag disinformation. Recent strides in autonomous vehicles are encouraging, buttechnical challenges remain.And, making themcost effectiveenough for widespread military use will be a significant hurdle. Building a single, robust tactical network to link platforms also remains a much more difficult challenge than it seems.Commercial technologies being adapted for military use might be less technically risky since they are perfected in commercial settings. But, while military performance requirements are often more demanding than commercial ones, the fundamental challenge of being pitted against an actively plotting adversary remains. Brose does not seem to address these issues either.

Technology May Not Even Be the Answer

Finally, we must consider the possibility that the role of commercial technology within the U.S. military may not be desirable in the first place. Brose offers a very specific vision of how artificial intelligence, quantum computing, and networked systems should be wielded by the United States. He paints a detailed picture of sensors that locate adversaries with impunity, a battlefield cluttered with disposable unmanned systems, and networks that will accelerate the tempo of operations to new highs.

This optimistic vision is enthralling, but should it be the goal for which the U.S. military strives? A battlefield network that seamlessly links together sensors and shooterswill accelerate the operational tempo when it works. How will an adaptive adversary seek to disrupt that network and turn its advantage into a liability? How will commanders leverage such connectivity? What role should artificial intelligence play? Will technology enhance initiative and decision-making, further enable micromanagement, or something else?

Brose tangentially examines these issues but only as they concern artificial intelligence and the ethics of armed conflict. He offers a refreshingly nuanced vision of an artificial intelligence that would enhance the abilities of human decision-makers and refrain from making the decisions itself. He forthrightly acknowledges the technological challenges of achieving that ideal. He considers the role of trust and artificial intelligence in military decision-making.

But, Brose never really questions the role of commercial technology and its effect on war in the first place. He admits that the fog of war will never truly lift but still walks readers through a vision of networked warfare where he believes that it does.Some within the defense community urge greater caution about the enthralling vision of networked warfare.LauraSchousboe, B. A. Friedman, and Olivia Garardhave argued that the ultimate role of emerging technologies is still unclear. The interaction of humans both friendly and enemy and systems should be deliberately considered. Commercial technology is likely to play a significant role in future conflict, but the Pentagon should guard against too much optimism.

No Plan Survives First Contact With the Enemy

Brose has made an important contribution to the debate about commercial technology and the military. He sees the throughline between technologies, their military and political uses, and the domestic organizational and political landscapes. He understands that warfare is an inherently chaotic human endeavor that can defy the expectations of optimistic technologists. AsKill Chainpulls it all together in an admirable way, I hope Broseuses his deep knowledge of defense technology issuesto explore the obstacles outlined here as well other ones.

However, technologists and those who share their views should be cautious abouthow the future of armed conflict will play out.The vision of future war that Brose and others imagine is compelling, but the United States wont truly know how this situation will play out until a crisis arrives. The same is true for U.S. adversaries.Emergingcommercialtechnologies will play a role, but the military may wish to consider additional steps tomake their adoption more effectivein the face of such uncertainty.

For instance,the militarymight considerreforming therequirementsprocessto address the issues of desirability and implementation.Reforming requirementsmight help the Pentagonfully leveragethe flexibility offeredby the updated acquisition regulation.This sort of reform canbringclarityto themost useful intersections between emerging technologies and the military, which canalsokeepcost, schedule, and performance expectationsin line with reality.

The Department of Defense can alsopreparefor inevitable surprises.Richard Danzigobservedthatpredictions about the future of war are consistently wrong. It is better to be circumspect about the nature of future conflicts and prepare for predictive failures. The continued attention to rapid acquisition processes is an encouraging sign.Past experienceswith quick responses to unforeseen adversary capabilities also offer lessons to learn.

The radio that Harris Communications built was neither perfect nor the best radio that people could imagine at the time. However, it provided capabilities that were sorely lacking. Its designers accomplished this achievement by combining an understanding of what was technologically possible with a clear grasp of the performance requirements that were most important to users. As the Pentagon and commercial technologists continue to explore the potential of commercial technologies for the military and work towards greater adoption, they may wish to focus not only on lowering bureaucratic barriers but also on managing expectations about what technologies will be most beneficial and how they will be used.

Jonathan Wong is an associate policy researcher at the non-profit, non-partisan RAND Corporation and a non-resident fellow at Marine Corps Universitys Krulak Center for Innovation and Creativity. He can be found on Twitter @jonpwong.

Image: U.S. Air Force (Photo by Staff Sgt. Izabella Workman)

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Why You Can't Call in an Air Strike with an iPhone - War on the Rocks

Is quantum computing ready to leap into the real world? – ARNnet

Market research firm IDC predicts that by 2023, 25% of Fortune 500 companies will gain a competitive advantage from quantum computing.

Its a bold prediction given the current dearth of real-world examples of quantum computing in action. However, theres plenty of industry activity to back up IDCs forecast. In fact, early this year at the Consumer Electronics Show the biggest buzz wasnt the newest smartphone, wearable device or autonomous-driving technology, but rather unprecedented computing power based on an area of quantum physics Albert Einstein described as "spooky action at a distance."

While quantum computing hasnt yet factored into solving worldwide problems such as the coronavirus pandemic, that is exactly the type of problem quantum has the potential to address. That potential will turn into a reality, according IBM, one of a handful of tech giants leading the quantum charge. This is the decade that quantum computing gets real, says Katie Pizzolato, director at IBM QStart.

For that reason, Pizzolato said, it was important to keep quantum public-facing rather than keep it a technology buried in research facilities. We wanted to get quantum out of the labs and into the real world, she said in reference to IBMs strong presence at CES.

Companies such as Google, Microsoft, D-Wave and Regetti are also eager to move quantum forward, and based on IDCs recent report Quantum Computing Adoption Trends: 2020 Survey Findings, the technology is building momentum.

According to responses from 520 IT and line-of-business professionals, quantum computing budgets and implementations will increase in the next 18-24 months. Half of all respondents to the IDC survey reported that funds allocated for quantum computing accounted for just 0-2% of the annual IT infrastructure in 2019, but will account for 7-10% in the next 24 months. For companies with more than 10,000 employees, the spending increase is more dramatic more than half of respondents will spend between 9% and 14% on quantum technology over the next two years.

Respondents to the IDC survey were clear where they are focusing their attention: 65% of respondents are using to plan to use cloud-based quantum computing, followed by 45% who use or plan to use quantum algorithms (which includes simulators, optimizations, artificial intelligence, machine learning and deep learning). Quantum networks (44%), hybrid quantum computing (40%) and quantum cryptography (33%) round the top five, according to the IDC survey.

Heather West, IDC senior research analyst, Infrastructure Systems, Platforms and Technology and one of the reports authors, says that quantum computing excels at solving large problems where theres so much data. The initial areas of focus will be AI, business intelligence and overall productivity and efficiency, according to the IDC report.

Very few companies have actually operationalized [quantum computing]. The skillsets are so advanced, and few people really understand quantum, West said, adding that were still at the experimentation stage with algorithms as companies also look to overcome challenges such as cost, security and data transfers between vendors. West points out, however, that there are already practical use cases in areas such as manufacturing and finance.

Right now, West says, the focus is on how to optimize processes. However, in the future, quantum will be applied to larger problems such as how to address climate change and cure diseases.

As IDCs West says, quantum computing isnt without its challenges. IDC cites complex technology, skillset limitations, a lack of available resources, cost, security, data transfer among vendors as barriers to adoption. With so many challenges, its not surprising that when selecting vendors to support quantum technology initiatives big names dominate the responses in the IDC survey. Google tops the list with 37% of respondents citing it as the vendor of choice, followed by Microsoft with 32%, IBM with 27% and Intel with 23&.

What makes quantum computing more powerful than classical computing is that rather relying on binary bits (i.e, either a 1 or 0) quantum computing uses qubits. Qubits can process more data because they can exist in many possible combinations of 1 and 0 simultaneously, known as superposition, processing an enormous number of outcomes.

In addition to superposition, pairs of qubits can be "entangled." This entanglement is what makes quantum computers as powerful as they are. What make it even more intriguing is that no one knows how or why it works, prompting that spooky action description from Einstein.

In classical computing, doubling the amount of bits gives you, as youd expect, twice the computing power. However, thanks to entanglement adding more qubits gives you exponentially more processing power.

If processing power potential is the good news on qubits, their fragile nature is the bad news. Not all qubits are created equal, IBMs Pizzolato says. Qubits are unpredictable and susceptible to environmental noise and errors. After an error they fall back to a binary state of 1 or 0, so the longer the calculation runs without an error, the greater the calculation. The goal is to protect against errors to solve the most challenging problems, Pizzolato says.

How common are these errors? A slight fluctuation in temperature or vibration can cause whats known as "decoherence." And, once a qubit is in decoherence, its calculation has failed and must be run again. For that reason, quantum computers are housed in environments of near absolute zero and with little outside disruption.

More qubits help. The 50 qubits range is when you start to supersede what you can achieve on a supercomputer, says Pizzolato. IBM last fall announced its 14th quantum computer, a 53-qubit system. Its previous quantum computers were 20 qubits. However, quantum is more than qubits. Hardware is at the center of the circle, but then you have the algorithms and the applications, says Pizzolato. More sophisticated algorithms are critical to quantum computings real-world success. Quantum is all about the algorithms you can run and the complexity of those algorithms, she says.

Skills gaps are a challenge for IT in general. With quantum computing, its magnified. Where will the quantum development come from? Peter Rutten, research director and one of the authors of the IDC report, says that the algorithms and application development will come from three distinct personas:

Developers who are intrigued with quantum computing, developers with a physics background (because there are not many jobs in physics) and those working in high-performance-computing operations. Its a seamless transition from HPC algorithms to quantum, Rutten says.

On the one hand, Google, IBM and others appear to be jostling for position in achieving quantum advantage (the point at which quantum computing can solve a program faster than classical computing) and quantum supremacy (when quantum computing solves a program that no conventional computer can solve). In fact, IBM recently publicly refuted Googles claim of achieving quantum supremacy with its 53-qubit computer, its researchers saying that Google failed to fully estimate the resources of a supercomputer, publishing this in an IBM Research blog last October:

Building quantum systems is a feat of science and engineering, and benchmarking them is a formidable challenge," according to an IBM quantum-computing blog. "Googles experiment is an excellent demonstration of the progress in superconducting-based quantum computing, showing state-of-the-art gate fidelities on a 53-qubit device, but it should not be viewed as proof that quantum computers are supreme over classical computers.

On the other hand, despite the top-tier vendors seemingly jockeying for quantum positions, IDGs Rutten said, its not about competitors going head-to-head. Its hard to compare. No one can tell you [whos ahead] because they are measuring progress in different ways, he says. The notion of quantum being a race is silly.

IDCs West concurs, saying that quantum advances will come from the developer community and technology partnerships. Its not so much a race to the end, because there may not be just one answer.

For its part, IBM has a network of 100 partnerships from commercial (e.g, Goldman Sachs, ExxonMobile, Accenture and others), academic (e.g., MIT, Virginia Tech, Johns Hopkins and dozens of others), startups, government and research sectors.

Even with the likes of Google, IBM and Microsoft pushing quantum computing to go from advantage to supremacy, no one knows where the big innovation will come from, Pizzolato says. The MVP is probably a guy in a lab.

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Regional Analysis and Strategies of Quantum Computing Technology Market during the Forecasted Period 2020-2030 – 3rd Watch News

The Quantum Computing Technology Market Research Report 2020 published by Prophecy Market Insights is an all-inclusive business research study on the current state of the industry which analyzes innovative strategies for business growth and describes significant factors such as top developers/manufacturers, production value, key regions, and growth rate. Impact of Covid-19 pandemic on the market will be completely analyzed in this report and it will also quantify the impact of this pandemic on the market.

The research study encompasses an evaluation of the market, including growth rate, current scenario, and volume inflation prospects, based on DROT and Porters Five Forces analyses. The market study pitches light on the various factors that are projected to impact the overall market dynamics of the Quantum Computing Technology market over the forecast period (2019-2029).

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The survey report includes a vast investigation of the geographical scene of the Quantum Computing Technology market, which is manifestly arranged into the localities. The report provides an analysis of regional market players operating in the specific market and outcomes related to the target market for more than 20 countries.

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Quantum Computing TechnologyMarket Key Companies:

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Regional Analysis and Strategies of Quantum Computing Technology Market during the Forecasted Period 2020-2030 - 3rd Watch News

Quantum Computing for Enterprise Market is thriving worldwide with Top Key Players like D-Wave Systems Inc. (Canada), QX Branch (US), International…

Quantum computers are based on the principle of superposition which allows them to achieve high computational power necessary for advanced applications such as cryptography, drug discovery, and machine learning. Presently, cryptography is based on public key algorithms such as AES-256, RSA, and ECDSA. These algorithms are secure as per the existing computing needs but are expected to be rendered useless as quantum computing advances. Quantum computing application developers have started testing encryption algorithms with quantum keys which is expected to offer secure encryption for the protection of data against the computational power of future systems.

The global Quantum Computing for Enterprise market is expected to expand at a CAGR of +24% over the forecast period 2020-2026.

The report, titled Global Quantum Computing for Enterprise Market defines and briefs readers about its products, applications, and specifications. The research lists key companies operating in the global market and also highlights the key changing trends adopted by the companies to maintain their dominance. By using SWOT analysis and Porters five force analysis tools, the strengths, weaknesses, opportunities, and threats of key companies are all mentioned in the report. All leading players in this global market are profiled with details such as product types, business overview, sales, manufacturing base, competitors, applications, and specifications.

Top Key Vendors in Market:

D-Wave Systems Inc. (Canada), QX Branch (US), International Business Machines Corporation (US), Cambridge Quantum Computing Limited (UK), 1QB Information Technologies (Canada), QC Ware, Corp. (US), StationQ Microsoft (US), Rigetti Computing (US), Google Inc. (US), River Lane Research (US)

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The Quantum Computing for Enterprise market comprises in-depth assessment of this sector. This statistical report also provides a detailed study of the demand and supply chain in the global sector. The competitive landscape has been elaborated by describing the various aspects of the leading industries such as shares, profit margin, and competition at the domestic and global level.

Different global regions such as North America, Latin America, Asia-Pacific, Europe, and India have been analyzed on the basis of the manufacturing base, productivity, and profit margin. This Quantum Computing for Enterprise market research report has been scrutinized on the basis of different practical oriented case studies from various industry experts and policymakers. It uses numerous graphical presentation techniques such as tables, charts, graphs, pictures and flowchart for easy and better understanding to the readers.

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Table of Content:

Global Quantum Computing for Enterprise Market Research Report 2020-2026

Chapter 1: Industry Overview

Chapter 2: Quantum Computing for Enterprise Market International and China Market Analysis

Chapter 3: Environment Analysis of Quantum Computing for Enterprise.

Chapter 4: Analysis of Revenue by Classifications

Chapter 5: Analysis of Revenue by Regions and Applications

Chapter 6: Analysis of Quantum Computing for Enterprise Market Revenue Market Status.

Chapter 7: Analysis of Quantum Computing for Enterprise Industry Key Manufacturers

Chapter 8: Sales Price and Gross Margin Analysis

Chapter 9: Marketing Trader or Distributor Analysis of Quantum Computing for Enterprise.

Chapter 10: Development Trend of Quantum Computing for Enterprise Market 2020-2026.

Chapter 11: Industry Chain Suppliers of Quantum Computing for Enterprise with Contact Information.

Chapter 12: New Project Investment Feasibility Analysis of Market.

Chapter 13: Conclusion of the Quantum Computing for Enterprise Market Industry 2024 Market Research Report.

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Why Indian IT Professionals Are Looking To Upskill Themselves In Cloud Computing – Analytics India Magazine

This internet boom over the last two has led to the growth in the demand for bandwidth from data centres. Lack of access to quality data networks and fully amped data centres in India is truly felt among organisations during this novel Coronavirus pandemic. To counter the pressure of work from home scenarios, Indian organisations are investing many times more than traditional IT spending in cloud infrastructure. In addition, cloud companies are expanding fast in the nation.

Even global companies are flocking towards India. For instance, Oracle has come up with its second cloud region in Hyderabad to support customers demand for enterprise cloud services in India. The launch follows the launch of its Mumbai Cloud region in 2019, making India Oracles latest nation with multiple cloud regions available. India has also become the next big hot market for internet giants such as Netflix, Spotify, Facebook and Amazon, fuelling demand for cloud professionals who could manage the digital infrastructure.

Amid this boom, training providers are witnessing a surge in enrolment in their information technology training programmes, including emerging technologies like cloud and data science. The jobs of the future will need expertise specific niche skills, and upskilling is the only way for a long term career growth for technologists. Hence certification programs are getting popularity among the IT professionals. According to analysts, COVID-19 lockdown has catalysed the enthusiasm of techies to getting certified. Indian software programmers are going for cloud certifications amidst COVID-19 lockdown, revealed a survey report from TechGig.

Also Read: 10 Leading Courses & Training Programmes For Cloud Computing In India

Extensive understanding of a new-age technology appeared the most crucial reason for techies to take certifications. Also, freshers and new joiners are more interested in acquiring certifications than working professionals. Cloud technology which is helping communication and remote working amid the present COVID-19 lockdown is also the preferred option for upskilling for the Indian developers, notes TechGig. The preference for cloud came on top of other advanced technologies like artificial intelligence and machine learning.

In todays unique COVID-19 time, technology is the only string which is keeping the world together. From cloud computing, which is supporting work-from-home to artificial intelligence, which is backing banking, retail, and important sectors run operations. Besides, cloud computing is crucial for robotics that is helping the front-line hospital personnel; new-age technologies are assisting the globe to connect in the existing time. The TechGig survey shows the enthusiasm of Indian developers to upskill on these new-age technologies, said Sanjay Goyal, Vice President & Head of Product and Technology at TechGig

Looking for people with cloud skills is a complex endeavour. Organisations these days are finding it very difficult to hire and retain cloud specialists, particularly in roles requiring advanced cloud skills and cloud architecture. Therefore, companies are giving due importance to both finding and creating the skills in-house so they do not face infrastructure challenges. Also, given the introduction of new services from the three major cloud platforms Google Cloud Platform, Amazon Web Services, Microsoft Azure and others, cloud training has to be constant so people can stay on top of the technology. Training providers are witnessing a surge in enrolment in their information technology training programmes, including emerging technologies like cloud and data science.

Cloud technology is one of the leading tech domains for upskilling among the techies and other technologies like artificial intelligence, machine learning, and quantum computing, getting the highest preference in terms of the need for upskilling. According to TechGig IT Certification Survey, one of the most important findings was that 90% of the respondents revealed that they are planning to have an IT certification soon to support and boost their career prospects. Thats why the adoption of certification courses is on the rise.

Also Read: 10 Leading Courses & Training Programmes For Cloud Computing In India

Cloud computing has risen to be the most sought-after skills set in the world for the last few years, and in particular, in 2020, companies are migrating their infrastructure and apps to cloud platforms. As a consequence, cloud jobs are also growing at a swift pace, making it one of the hottest fields in information technology. Now, with the demand for cloud experts, it has fuelled the need for niche skills, and IT professionals know that well.

It is clear that IT professionals will not face any issue with employment opportunities if they are skilled in cloud technologies space, particularly for platforms such as AWS, Google Cloud, Microsoft Azure. Consequently, learners are developing skills so they can grab the jobs as a cloud developer/administrator or system operators for cloud platforms after finishing their training programs. The platforms are utilised by thousands and thousands of businesses worldwide for hosting their products and services.

Home Why Indian IT Professionals Are Looking To Upskill Themselves In Cloud Computing

Cloud training courses will provide professionals with the opportunity to learn the best techniques and practices in cloud computing and acquire live feedback from an expert instructor. Training will help learners to take cloud certification exams from vendors- AWS, Azure or Oracle certifications to get recognised by hiring managers.

The upskilling is spread across advanced classroom training programs run by specialised institutes like Jigsaw Academy and Great Learning, etc, which have also witnessed a surge in demand for enrollment. Apart from training institutes, learners are also flocking to cheaper and/or free courses from cloud vendors or those found on Udemy. In fact, in a recent survey done by Analytics India Magazine, 76.9% of the analytics professionals are spending their time on training through self-learning.

While IT professionals not already working with cloud technologies will gain a solid foundation, those with some cloud experience will gain a more structured and hands-on understanding of cloud technologies, including issues such as migration, deployment, integration, platform choice, and architecture.

According to reports, COVID-19 pandemic has caused the desire to get certified, and professionals understand that certification is a need of the hour amid mass layoffs. DevOps, infrastructure-as-a-service, software-as-a-service, automation, agile and software-defined networks are going to be critical for IT professionals to land these jobs. Some platforms are offering interesting courses for learners to build their cloud tech skills, including many free courses to build cloud tech skills.

Also Read: 10 Leading Courses & Training Programmes For Cloud Computing In India

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Vishal Chawla is a senior tech journalist at Analytics India Magazine and writes about AI, data analytics, cybersecurity, blockchain and startup ecosystem. Vishal also hosts AIM's video podcast called Simulated Reality- featuring tech leaders, AI experts, and innovative startups of India. Reach out at vishal.chawla@analyticsindiamag.com

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Why Indian IT Professionals Are Looking To Upskill Themselves In Cloud Computing - Analytics India Magazine

Quantum computing is the next big leap – Lexology

Traditional network infrastructures and cybersecurity standards will be compromised if quantum computing becomes viable, the reason why quantum R&D is a key factor of EUs digital strategy

Our most sensitive information, say banking or browsing data, is kept secure by rather resilient encryption methods. With current computing capabilities, it is a very difficult task for a computer to run the necessary math in order to extract information from encrypted data. That is not the case, however, with quantum computing.

At their smallest, computers are made up of transistors, which process the smallest form of data: bits or 0s and 1s. Contrary to regular machines, which operate in bits, quantum computers process qubits, which carry not one of those two values, but any of those two. Because they operate in qubits, they are able to process data unseemingly faster.

If a regular computer were to guess the combination of two bits, it would take, at worst, four different tries (22 00, 01, 10, 11) before guessing it. A quantum computer would only require the square root of that, because each qubit carries any of the two values. When processing large numbers this makes a huge difference.

While it is not expected that quantum computers will be commercially viable or even sufficiently developed anytime soon to squander computing as it is today, a number of the encryption algorithms used today are not quantum-resistant.

Having considered the above, it is not uncalled for that organizations are rethinking their cybersecurity standards in order to protect their data in view of new developing technologies, namely quantum computing.

Portugal signed up for EU's Quantum Communication Infrastructure initiative ("EuroQCI"). The initiative trusts on developing a network over the next ten years for sensitive information to be shared. As with anything that may be ill-used, quantum computing poses a serious cyberthreat. EuroQCI will use quantum technologies to ensure the secure transfer and storage of sensitive information. As computer parts are now as small as the size of an atom and current computing is reaching its physical limits, the EuroQCI aims at making quantum computing and cryptography a part of conventional communication networks, which is in line with Portugal's strategy to strengthen the country's digital ecosystem.

Objective number one of Portugal's National Cybersecurity Strategy is to ensure national digital resilience by leveraging inclusion and cooperation in order to bolster the security of cyberspace in view of threats which may jeopardize or cause disruption of networks and information systems essential to society. Currently, the EU's Study on the System Architecture of a Quantum Communication Infrastructure (within the EuroQCI initiative) is open for contributions on the future of quantum network infrastructures. The consultation is open until 10 June 2020.

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Quantum computing is the next big leap - Lexology

Atos takes the most powerful quantum simulator in the world to the next level with Atos QLM E – Stockhouse

Paris, 23 June 2020 Atos, a global leader in digital transformation, extends its portfolio of quantum solutions with Atos QLM Enhanced (Atos QLM E), a new GPU-accelerated range of its Atos Quantum Learning Machine (Atos QLM) offer, the world's highest-performing commercially available quantum simulator. Offering up to 12 times more computation speed, Atos QLM E paves the way to optimized digital quantum simulation on the first, intermediate-scale quantum computers to be commercialized in the next few years (called NISQ - Noisy Intermediate-Scale Quantum).

By promising to apply, in the near-term, computation capabilities that are beyond the reach of even the most powerful existing computers to solve complex, real-life problems, NISQ devices will play an important role in determining the commercial potential of quantum computing. Herein lies a double challenge for the industry: developing NISQ-optimized algorithms is as important as building the machines, since both are required to identify concrete applications.

Integrating NVIDIA’s V100S PCIe GPUs, Atos QLM E has been optimized to drastically reduce the simulation time of hybrid classical-quantum algorithms simulations, leading to quicker progress in application research. It will allow researchers, students and engineers to leverage some of the most promising variational algorithms (like VQE or QAOA) to further explore models fostering new drugs discovery, tackling pollution with innovative materials or better anticipation of climate change and severe weather phenomena, etc.

Bob Sorensen, Chief Analyst for Quantum Computing at Hyperion Research, said: Atos’ continues to play a key role in the advancement of the quantum computing sector by offering yet another world-class digital quantum simulator with increasingly powerful capabilities, this time through the inclusion of leading-edge NVIDIA GPUs. This latest Atos QLM offering uses a quantum hardware agnostic architecture that is well suited to support faster development of new quantum systems and related architectures as well as new and innovative quantum algorithms, architectures, and use cases. Since launching the first commercially available quantum system in 2017, Atos has concentrated its efforts on helping an increasing base of users better explore a wide range of practical business and scientific applications, a critical requirement for the overall advancement and long-term viability of the quantum computing sector writ large. The launch of the Atos QLM E is an exciting step for Atos but also for its clients and potential new end users, both of whom could benefit from access to these leading-edge digital quantum simulation capabilities”.

Agns Boudot, Senior Vice President, Head of HPC & Quantum at Atos, explained: We are proud to help imagine tomorrow’s quantum applications. As we are entering the NISQ era, the search for concrete problems that can be solved by quantum computing technologies becomes critical, as it will determine the role they will play in helping society shape a better future. Combining unprecedented simulation performances and a programming and execution environment for hybrid algorithms, Atos QLM E represents a major step towards achieving near time breakthroughs”

Atos QLM E is available in six configurations, ranging from 2 to 32 NVIDIA V100S PCIe GPUs. Atos QLM customers have the possibility to upgrade to Atos QLM E at any moment.

The Atos QLM user community continues to grow. Launched in 2017, this platform is being used in numerous countries worldwide including Austria, Finland, France, Germany, India, Italy, Japan, the Netherlands, Senegal, UK and the United States, empowering major research programs in various sectors like industry or energy. Atos’ ambitious program to anticipate the future of quantum computing the Atos Quantum’ program was launched in November 2016. As a result of this initiative, Atos was the first organization to offer a quantum noisy simulation module within its Atos QLM offer.

***

About Atos Atos is a global leader in digital transformation with 110,000 employees in 73 countries and annual revenue of 12 billion. European number one in Cloud, Cybersecurity and High-Performance Computing, the Group provides end-to-end Orchestrated Hybrid Cloud, Big Data, Business Applications and Digital Workplace solutions. The Group is the Worldwide Information Technology Partner for the Olympic & Paralympic Games and operates under the brands Atos, Atos|Syntel, and Unify. Atos is a SE (Societas Europaea), listed on the CAC40 Paris stock index.

The purpose of Atos is to help design the future of the information space. Its expertise and services support the development of knowledge, education and research in a multicultural approach and contribute to the development of scientific and technological excellence. Across the world, the Group enables its customers and employees, and members of societies at large to live, work and develop sustainably, in a safe and secure information space.

Press contact

Marion Delmas | marion.delmas@atos.net | +33 6 37 63 91 99 |

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Atos takes the most powerful quantum simulator in the world to the next level with Atos QLM E - Stockhouse

Registration Open for Inaugural IEEE International Conference on Quantum Computing and Engineering – HPCwire

LOS ALAMITOS, Calif.,May 14, 2020 Registration is now open for the inauguralIEEE International Conference on Quantum Computing and Engineering (QCE20), a multidisciplinary event focusing on quantum technology, research, development, and training. QCE20, also known as IEEE Quantum Week, will deliver a series ofworld-class keynotes,workforce-building tutorials,community-building workshops, andtechnical paper presentations and postersonOctober 12-16inDenver, Colorado.

Were thrilled to open registration for the inaugural IEEE Quantum Week, founded by the IEEE Future Directions Initiative and supported by multiple IEEE Societies and organizational units, said Hausi Mller, QCE20 general chair and co-chair of the IEEE Quantum Initiative.Our initial goal is to address the current landscape of quantum technologies, identify challenges and opportunities, and engage the quantum community. With our current Quantum Week program, were well on track to deliver a first-rate quantum computing and engineering event.

QCE20skeynote speakersinclude the following quantum groundbreakers and leaders:

The week-longQCE20 tutorials programfeatures 15 tutorials by leading experts aimed squarely at workforce development and training considerations. The tutorials are ideally suited to develop quantum champions for industry, academia, and government and to build expertise for emerging quantum ecosystems.

Throughout the week, 19QCE20 workshopsprovide forums for group discussions on topics in quantum research, practice, education, and applications. The exciting workshops provide unique opportunities to share and discuss quantum computing and engineering ideas, research agendas, roadmaps, and applications.

The deadline for submittingtechnical papersto the eight technical paper tracks isMay 22. Papers accepted by QCE20 will be submitted to the IEEE Xplore Digital Library. The best papers will be invited to the journalsIEEE Transactions on Quantum Engineering(TQE)andACM Transactions on Quantum Computing(TQC).

QCE20 provides attendees a unique opportunity to discuss challenges and opportunities with quantum researchers, scientists, engineers, entrepreneurs, developers, students, practitioners, educators, programmers, and newcomers. QCE20 is co-sponsored by the IEEE Computer Society, IEEE Communications Society, IEEE Council on Superconductivity,IEEE Electronics Packaging Society (EPS), IEEE Future Directions Quantum Initiative, IEEE Photonics Society, and IEEETechnology and Engineering Management Society (TEMS).

Registerto be a part of the highly anticipated inaugural IEEE Quantum Week 2020. Visitqce.quantum.ieee.orgfor event news and all program details, including sponsorship and exhibitor opportunities.

About the IEEE Computer Society

The IEEE Computer Society is the worlds home for computer science, engineering, and technology. A global leader in providing access to computer science research, analysis, and information, the IEEE Computer Society offers a comprehensive array of unmatched products, services, and opportunities for individuals at all stages of their professional career. Known as the premier organization that empowers the people who drive technology, the IEEE Computer Society offers international conferences, peer-reviewed publications, a unique digital library, and training programs. Visitwww.computer.orgfor more information.

About the IEEE Communications Society

TheIEEE Communications Societypromotes technological innovation and fosters creation and sharing of information among the global technical community. The Society provides services to members for their technical and professional advancement and forums for technical exchanges among professionals in academia, industry, and public institutions.

About the IEEE Council on Superconductivity

TheIEEE Council on Superconductivityand its activities and programs cover the science and technology of superconductors and their applications, including materials and their applications for electronics, magnetics, and power systems, where the superconductor properties are central to the application.

About the IEEE Electronics Packaging Society

TheIEEE Electronics Packaging Societyis the leading international forum for scientists and engineers engaged in the research, design, and development of revolutionary advances in microsystems packaging and manufacturing.

About the IEEE Future Directions Quantum Initiative

IEEE Quantumis an IEEE Future Directions initiative launched in 2019 that serves as IEEEs leading community for all projects and activities on quantum technologies. IEEE Quantum is supported by leadership and representation across IEEE Societies and OUs. The initiative addresses the current landscape of quantum technologies, identifies challenges and opportunities, leverages and collaborates with existing initiatives, and engages the quantum community at large.

About the IEEE Photonics Society

TheIEEE Photonics Societyforms the hub of a vibrant technical community of more than 100,000 professionals dedicated to transforming breakthroughs in quantum physics into the devices, systems, and products to revolutionize our daily lives. From ubiquitous and inexpensive global communications via fiber optics, to lasers for medical and other applications, to flat-screen displays, to photovoltaic devices for solar energy, to LEDs for energy-efficient illumination, there are myriad examples of the Societys impact on the world around us.

About the IEEE Technology and Engineering Management Society

IEEE TEMSencompasses the management sciences and practices required for defining, implementing, and managing engineering and technology.

Source: IEEE Computer Society

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Registration Open for Inaugural IEEE International Conference on Quantum Computing and Engineering - HPCwire

America Is in a New Cold War and This Time the Communists Might Win – Newsweek

It had been a bedrock belief of U.S. policy for 40 years that it was possible to bring the People's Republic of China smoothly into the family of nationsand now, one of the architects of that policy was finally acknowledging the obvious.

In a speech six months ago, former World Bank President and Deputy Secretary of State Robert Zoellick reminded listeners of his own famous 2005 call on Beijing to become a "responsible stakeholder." He ticked off a few of the ways in which China had done just that: voting for sanctions on North Korea and limiting missile exports, for instance. But he acknowledged that the project had gone off the rails.

"Xi Jinping's leadership," Zoellick said of the PRC president, "has prioritized the Communist Party and restricted openness and debate in China. China hurts itself by forging a role model for dystopian societies of intrusive technologies and reeducation camps." He added: "The rule of law and openness upon which Hong Kong's 'One Country, Two Systems' model rests may topple or be trampled. If China crushes Hong Kong, China will wound itselfeconomically and psychologicallyfor a long time."

Zoellick had that right. A global pandemic has brought relations between Beijing and Washington to its lowest point since China reopened to the world in 1978even lower even than in those extraordinary days following the 1989 Tiananmen massacre.

What had been a more confrontational, trade-centric relationship since the start of President Donald Trump's term, has now descended into bitterness in the midst of a presidential reelection campaign Trump fears is slipping away. Any chance that the pandemic might spur Washington and Beijing to set differences aside and work together on treatments and other aspects of the pandemicsuch as how exactly it startedis long gone.

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Last week, the Trump administration moved to block shipments of semiconductors to Huawei Technologies. The Commerce Department said it was amending an export rule to "strategically target Huawei's acquisition of semiconductors that are the direct product of certain U.S. software and technology." Previously on May 13, the FBI announced an investigation into Chinese hackers that it believes are targeting American health care and pharmaceutical companies in an effort to steal intellectual property relating to coronavirus medicines. Without specifying how, the Bureau said the hacks may be disrupting progress on medical research.

President Trump had already made it clear just how bitter he is at Beijing on May 7 when meeting with reporters at the White House. "We went through the worst attack we've ever had on our country," he said, "this is the worst attack we've ever had. This is worse than Pearl Harbor, this is worse than the World Trade Center. There's never been an attack like this. And it should have never happened. Could've been stopped at the source. Could've been stopped in China...And it wasn't."

The comparison of a virus, which originated in China and then spread globally, to the two most infamous attacks in U.S. history, stunned Trump's foreign policy adviserseven Beijing hard-liners. It will be impossible, U.S. officials acknowledge, for Trump to soften his hard line toward Beijing should he win reelection in November.

The president is right to reach for historical metaphor, given the weight of the moment. But the aftermath of the Wuhan outbreak more closely resembles the building of the Berlin Wall in 1961 than either Pearl Harbor or 9/11. What follows will not be a sharp burst of savage conflict, but a global scramble to shape the new order rising from the rubble of old. As with the Wall, the forces that led to the dispute over the Wuhan outbreak were unleashed years before the events that made history. And the change they represent is likely irreversible, no matter who sits in the White House.

Though Joe Biden has on occasion downplayed Beijing's rise as a threat to the U.S., and for sure would not be so rhetorically reckless as Trump, his foreign policy advisers acknowledge there's no turning back. Since Xi Jinping came to power seven years ago, China has imprisoned more than one million ethnic Muslims in "reeducation" camps, imposed an ever-tightening surveillance state on its own citizens and cracked down on all dissent. Overseas, Beijing's goal is to entice authoritarian regimes in the developing world to view it as a "model'' to be followed. And, of course, selling the technology those leaders need to create their own surveillance states.

"No one on either side of the political aisle in Washington is ignoring any of that," says one Biden adviser. "The era of hope that China might evolve into a normal country is over. No one with any brains denies that."

That notion has fully settled in here. Sixty-six percent of Americans now have a negative view of China, according to a recent Pew Research poll. At the same time, in China, state-owned media and a government-controlled internet whip up nationalism and anti-Americanism to levels unseen since the U.S. accidentally bombed Beijing's embassy in Belgrade during the Balkan wars in 1999.The world's two most powerful nations are now competing in every realm possible: militarily, for one, with constant cat-and-mouse games in the South China Sea and cyber warfare. The competition to dominate the key technologies of the 21st century is intensifying, too. This type of rivalry hasn't been seen since the Soviet Union collapsed in 1991.

Thus, a growing number of policymakers, current and former, and China hands old and new, acknowledge the obvious: Cold War 2.0 is here. To the generation of Americans who remember duck-and-cover drills in elementary school at the peak of the Cold War with the Soviet Union, the new global struggle will look very different. It will also, many U.S. strategists believe, be much harder for the West to wage successfully. "Another long twilight struggle may be upon us," says former Pentagon China planner Joseph Bosco, "and it may make the last one look easy."Now, U.S. policymakers are trying to discern what that struggle will look like, and how to win it.

New-Age War

The first major difference in the coming Cold War with Beijing is in the military realm. Beijing spends far less than the U.S. on its military, though its annual rate of spending is fast increasing. According to the Center For Strategic and International Studies, a Washington think tank, Beijing spent $50 billion on its military in 2001, the year it joined the World Trade Organization. In 2019 it spent $240 billion, compared to the U.S.' $633 billion.

For a few decades at least, the U.S.-China military competition will look vastly different from the hair-trigger nuclear standoff with Moscow. Instead, China will seek asymmetric advantages, rooted where possible in technology. It has, for example, already developed an arsenal of hypersonic missiles, which fly low and are hard for radar to detect. They are known as "carrier killers" because of their ability to strike U.S. aircraft carriers in the Pacific from long distances. These weapons could be critical in "area denial" operations, as military planners put it. For example, should the day come when Beijing seeks to take Taiwan by force, hyper-sonics could keep U.S. carriers far from the island nation once a war began.

China's pursuit of preeminence across a wide range of technologies, in areas like quantum computing and artificial intelligence, are central to the economic clash with the U.S. But they also have significant military components. Since the 1990s, when Chinese military planners were stunned by the U.S.' lightning victory in the first Iraq war, they have consistently focused their efforts on developing war-fighting capabilities relevant to their immediate strategic goalsTaiwan is an examplewhile creating the ability to one day leapfrog U.S. military technologies.That may be drawing nearer. Quantum computing is an example. In an era in which digital networks underpin virtually every aspect of war, "quantum is king," says Elsa Kania, a former DOD official who is now a Senior Fellow at the Center for a New American Security. Take cyber warfarethe ability to protect against an enemy disrupting your own networks, while maintaining the ability to disrupt the adversary's. Quantum networks are far more secure against cyber espionage, and Kania believes China's "future quantum capacity has the potential to leapfrog U.S. cyber capabilities."

That's not the only advantage of quantum technology. Beijing is also exploring the potential for quantum-based radar systems that can defeat stealth technology, a critical U.S. war-fighting advantage. "These disruptive technologiesquantum communications, quantum computing and potentially quantum radarmay have the potential to undermine cornerstones of U.S. technological dominance in information-age warfare, its sophisticated intelligence apparatus, satellites and secure communications networks and stealth technologies," says Kania. "China's concentrated pursuit of quantum technologies could have much more far-reaching impacts than the asymmetric approach to defense that has characterized its strategic posture thus far." That is a big reason why Pan Jianwei, the father of China's quantum computing research effort, has said the nation's goal is nothing less than "quantum supremacy."

Washington, and its allies in East Asia and Europe, are paying attention. In a just-published bookThe Dragons and the Snakes: How the Rest Learned to Fight the WestDavid Kilcullen, a former Australian military officer who served as special adviser to U.S. General David Petraeus in Iraq, writes: "our enemies have caught up or overtaken us in critical technologies, or have expanded their concept of war beyond the narrow boundaries within which our traditional approach can be brought to bear. They have adapted, and unless we too adapt, our decline is only a matter of time."

The book is being widely read in U.S. national security circles.China is not yet a "peer power," as U.S. national defense analysts put it. But the steadily aggressive pursuit of quantum technologiesand a wide array of others that also have dual-use applicationsincreasingly convince Pentagon planners that Beijing will one day be one. China, says Michael Pillsbury, one of Trump's key informal advisers on relations with Beijing, "is nothing if not patient." The year 2049 will mark the Chinese Communist Party's 100th anniversary of taking power in Beijing. That's the year Chinese propaganda outlets have said will see the completion of China's rise to the dominant power on earth.

An Economic Divorce?

The most significant difference in the emerging geopolitical standoff between Washington and Beijing is obvious: China is economically powerful, and deeply integrated with both the developed and developing worlds. That was never the case with the former Soviet Union, which was largely isolated economically, trading only with its east bloc neighbors. China, by contrast, trades with everyone, and it continues to grow richer. It is sophisticated across a wide range of critical technologies, including telecommunications and artificial intelligence. It has set as a national goalin its so-called Made in China 2025 planpreeminence not just in quantum computing and AI, but in biotech, advanced telecommunications, green energy and a host of others.

But the U.S. and the rest of the world have problems in the present as well. The pandemic has exposed the vulnerability of locating supply chains for personal protective equipment as well as pharmaceutical supplies in China. That's a significant strategic vulnerability. If China shut the door on exports of medicines and their key ingredients and raw material, U.S. hospitals, military hospitals and clinics would cease to function within months if not days, says Rosemary Gibson, author of a book on the subject, China Rx. Late last month, Arkansas Senator Tom Cotton introduced legislation mandating that U.S. pharmaceutical companies bring production back from China to the U.S.

China's explicit desire to dominate the industries of the future is bad news for foreign multinational companies that have staked so much on the allure of the China market. If China's steep rise up the technology ladder continues, American and other foreign multinationals are likely to get turfed out of the market entirely. "China 2025 is all about replacing anything that American companies sell of any value, just taking the Americans out of that," says Stewart Paterson, author of China, Trade and Power, Why the West's Economic Engagement Has Failed.Donald Trump's tariffs, and China's public desire to dominate key industries, have pushed American multinational and U.S. policymakers to ask: should the U.S. get an economic divorce from Beijing? And if so, what would that look like?

The COVID-19 outbreak and China's response to it has greatly intensified that debate. Trump's trade war had triggered a slow-motion move toward an economic "decoupling," as companies in low-tech, low- margin industries began to move production out of China to avoid tariffs. The textile, footwear and furniture business have all seen significant movement out of China so far. But pre-pandemic, there was no mad rush for the exits and there was no reason to expect one anytime soon. As recently as last October, 66 percent of American companies operating in China surveyed by the American Chamber of Commerce in Beijing said "decoupling" would be impossible, so interlinked are the world's two largest economies.

Things have changed. The number who now believe decoupling is impossible, according to the same survey, has dropped to 44 percent. If reelected, Trump's advisers say, the president will likely pressure other industries beyond pharmaceuticals and medical equipment to bring back production. How he would actually do that is unclear, but aides are looking at the example of Japan. The Japanese legislature recently approved a program in which the government will offer subsidiesup to $2.25 billion worthto any company that brings its supply chain back home.

As negative perceptions of China harden in the U.S., executives are faced with a stark choice: as Paterson puts it, "do you really want to be seen doing business with an adversary?"

The answer isn't that easy. In the U.S., a lot of companies simply do not want to reduce their exposure to China. They spent yearsand billionsbuilding up supply lines and are loath to give them up. Consider the semiconductor industry, a critical area in which the U.S. is still technologically more advanced than China. A complete cessation of semiconductor sales to China would mean U.S. firms lose about 18 percent of their global market shareand an estimated 37 percent of overall revenues. That in turn would likely force reductions in research and development. The U.S. spent $312 billion on R&D over the last decade, more than double the amount spent by its foreign competitorsand it's that R&D which allows them to stay ahead of competitors.

Paterson argues that the costs of total divorce from China is often overstated. He calculates that about 2 percent of U.S. corporate profits come from sales in the Chinese market, mostly from companies that manufacture there in order to sell there. Corporate profits overall are 10 percent of U.S. GDP. Eliminating the China portion of that "is a rounding error," he says.

But getting companies such as Caterpillar Inc., which operates 30 factories in China and gets 10 percent of its annual revenue from sales there, is an uphill lift. There are scores of companies like Caterpillar, who have no intention of leaving China, even if relations between Washington and Beijing are at new lows. And there are also scores of companies like Starbucks, which operates 42,000 stores across China, or Walmart, whose revenue in the country is more than $10 billion annually. Those companies don't have critical technology to steal and may be little worry to the U.S. if they continue to operate in China.

But other companies do. Tesla, to take one example, is a company whose advanced technology should be protected at all costs. Which is why some in Washington are scratching their heads at both Elon Musk and the Trump administration. Musk said on May 10th that he was so angry at the shutdown orders in the state of California, he might move the Tesla factory in Fremont to Texas. Meanwhile, he manufactures his cars in Shanghai, which is an obvious target for intellectual property theft and industrial espionage, given that electric vehicles are one of the industries targeted in the China 2025 plan. "California bad, Shanghai good is not a formulation that's going to hold up well in the post-COVID environment," says Paterson.

A smarter U.S. strategy than "divorce" is "economic distancing," says John Lee, a Senior Fellow at the Hudson Institute, a Washington think tank. The goal of U.S. industrial policy should be "ensuring that China is not in a position to dominate key technologies and assume the leading role in dominating supply and value chains for these emerging technologies," he says. Rationing access to large and advanced markets is critical. "It becomes much more challenging [for Beijing] if China's access to markets in the U.S. Europe and East Asia is restricted, and it is denied key inputs from those areas."

That presumes coordination with allies, which has not been a Trump administration strong suit. But that would change under a President Joe Biden. Even before the pandemic, key European and Asian allies were souring on their relations with China. That includes Canada as well. A former senior Canadian official said Ottawa wanted to work with Trump and the Europeans to map out a tougher, united front on trade. The only problem? "You were sanctioning our steel exports on 'national security grounds,'" this official says. "We are a NATO ally, for godssake!"

The opportunity to work more closely to form a united front versus Beijing is something Biden advisers are intent on doing. A reconfigured Trans Pacific Partnership, which Barack Obama pushed, is likely the first order of business in a Biden administrationthis time more explicitly targeted at excluding Beijing from free trade deals among U.S. allies.That is, if there is a Biden administration.

What's Next?

In the context of the new Cold War, the move toward a smart economic distancing, as Hudson's Lee and others call for, will gain momentum. "Washington put too much faith in its power to shape China's trajectory. All sides of the policy debate [in the U.S.] erred," says Kurt Campbell, former assistant secretary of state under Obama. Biden's people are already spreading the word that there will be no return to the laissez faire attitudes that governed Washington's approach to China. The U.S. may also have to overtly subsidize companies in the Made in China 2025 industries that Beijing has targeted.

Beijing had resisted suspending its own industrial subsidies to state-owned industries in the Trump trade negotiations and had shown few signs of backing off from the goals expressed in Made in China 2025. In the wake of the global fury kicked up by the coronavirus, an economic rapprochement appears unthinkable.Militarily and geopolitically, no matter who wins the next election, the U.S. will work hard to bring India, which has hedged its bets between Washington and Beijing as China rose, more closely into the fold of a "free and open Indo-Pacific," as the Trump administration has called its policy toward Asia. The ability to work more closely with allies, both in East Asia and in Europe, in creating a united front against Beijing has never been stronger.

"No one that we talk to is happy," says Rand Corporation's Scott Harold.

What many look for is steadier and clearer public messaging from Washington. As Harold puts it, as the ideological competition with Beijing intensifies, "the defenders of the liberal international order, like-minded democracies, should grow more active in defense of their interests and values.''

In the wake of the pandemic, the U.S. is suffering a defeat that should be unthinkable: it is losing the propaganda war, particularly in the developing world. Both internally and abroad, the Chinese Communist party's propaganda outlets, digital and broadcast, are trumpeting Xi Jinping's handling of COVID-19, and contrasting it with the Trump administration's shambolic efforts to deal with the virus. State media outlets chronicled how badly the U.S. and others have managed the crisis. Their message: Those countries should copy China's model.

As competition between the United States and China grows, the information wars will be critical. In this, the "America First" Trump administration has been mostly AWOLthe President has not been able to rouse himself to support pro-democracy demonstrators in Hong Kong, so desperate was he for a trade deal with Xi Jinping. But, Trump and Biden have some good role models and, thus, there's hope. U.S. presidents have defended the country's values quite well, and steadily, throughout the last Cold War, none more ably than Ronald Reagan, who left office a year before the Berlin Wall came down.

We will see, of course, if the next administration is up for the fight. Washington has at least recognized, as Kurt Campbell observes, that it overvalued its ability to influence China's development" Presumably it won't make that mistake again. Instead, Washington and its allies need to focus more on how to cope effectively with a powerful rival.

The mission: Wage the 21st century's Cold War, while ensuring it never turns hot.

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America Is in a New Cold War and This Time the Communists Might Win - Newsweek

Quantum Computing Market Growth Trends, Key Players, Analysis, Competitive Strategies and Forecasts to 2026 – News Distinct

1qb Information Technologies

Quantum Computing Market Competitive Analysis:

Consistent technological developments, surging industrialization, raw material affluence, increasing demand for the Quantum Computing , and rising disposable incomes, soaring product awareness are adding considerable revenue to the market. According to the report, the Quantum Computing market is expected to report a healthy CAGR from 2020 to 2026. Affairs such as product innovations, industrialization, increasing urbanization in the developing and developed countries are likely to boost market demand in the near future.

The report further sheds light on the current and forthcoming opportunities and challenges in the Quantum Computing market and provide succinct analysis that assists clients in improving their business gains. Potential market threats, risks, uncertainties, and obstacles are also highlighted in this report that helps market players to lower the possible losses to their Quantum Computing business. The report also employs various analytical models such as Porters Five Forces and SWOT analysis to evaluate several bargaining powers, threats, and opportunities in the market.

Quantum Computing Market Segments:

Moreover, the leading Quantum Computing manufacturers and companies are illuminated in the report with extensive market intelligence. The report enfolds detailed and precise assessments of companies based on their financial operations, revenue, market size, share, annual growth rates, production cost, sales volume, gross margins, and CAGR. Their manufacturing details are also enlightened in the report, which comprises analysis of their production processes, volume, product specifications, raw material sourcing, key vendors, clients, distribution networks, organizational structure, and global presence.

The report also underscores their strategics planning including mergers, acquisitions, ventures, partnerships, product launches, and brand developments. Additionally, the report renders the exhaustive analysis of crucial market segments, which includes Quantum Computing types, applications, and regions. The segmentation sections cover analytical and forecast details of each segment based on their profitability, global demand, current revue, and development prospects. The report further scrutinizes diverse regions including North America, Asia Pacific, Europe, Middle East, and Africa, and South America. The report eventually helps clients in driving their Quantum Computing business wisely and building superior strategies for their Quantum Computing businesses.

To get Incredible Discounts on this Premium Report, Click Here @ https://www.verifiedmarketresearch.com/ask-for-discount/?rid=24845&utm_source=NDN&utm_medium=003

Table of Content

1 Introduction of Quantum Computing Market

1.1 Overview of the Market1.2 Scope of Report1.3 Assumptions

2 Executive Summary

3 Research Methodology

3.1 Data Mining3.2 Validation3.3 Primary Interviews3.4 List of Data Sources

4 Quantum Computing Market Outlook

4.1 Overview4.2 Market Dynamics4.2.1 Drivers4.2.2 Restraints4.2.3 Opportunities4.3 Porters Five Force Model4.4 Value Chain Analysis

5 Quantum Computing Market, By Deployment Model

5.1 Overview

6 Quantum Computing Market, By Solution

6.1 Overview

7 Quantum Computing Market, By Vertical

7.1 Overview

8 Quantum Computing Market, By Geography

8.1 Overview8.2 North America8.2.1 U.S.8.2.2 Canada8.2.3 Mexico8.3 Europe8.3.1 Germany8.3.2 U.K.8.3.3 France8.3.4 Rest of Europe8.4 Asia Pacific8.4.1 China8.4.2 Japan8.4.3 India8.4.4 Rest of Asia Pacific8.5 Rest of the World8.5.1 Latin America8.5.2 Middle East

9 Quantum Computing Market Competitive Landscape

9.1 Overview9.2 Company Market Ranking9.3 Key Development Strategies

10 Company Profiles

10.1.1 Overview10.1.2 Financial Performance10.1.3 Product Outlook10.1.4 Key Developments

11 Appendix

11.1 Related Research

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Our 250 Analysts and SMEs offer a high level of expertise in data collection and governance use industrial techniques to collect and analyse data on more than 15,000 high impact and niche markets. Our analysts are trained to combine modern data collection techniques, superior research methodology, expertise and years of collective experience to produce informative and accurate research.

We study 14+ categories from Semiconductor & Electronics, Chemicals, Advanced Materials, Aerospace & Defence, Energy & Power, Healthcare, Pharmaceuticals, Automotive & Transportation, Information & Communication Technology, Software & Services, Information Security, Mining, Minerals & Metals, Building & construction, Agriculture industry and Medical Devices from over 100 countries.

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Tags: Quantum Computing Market Size, Quantum Computing Market Trends, Quantum Computing Market Growth, Quantum Computing Market Forecast, Quantum Computing Market Analysis NMK, Majhi Naukri, Sarkari Naukri, Sarkari Result

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Quantum Computing Market Growth Trends, Key Players, Analysis, Competitive Strategies and Forecasts to 2026 - News Distinct

David Graves to Head New Research at PPPL for Plasma Applications in Industry and Quantum Information Science – Quantaneo, the Quantum Computing…

Graves, a professor at the University of California, Berkeley, since 1986, is an expert in plasma applications in semiconductor manufacturing. He will become the Princeton Plasma Physics Laboratorys (PPPL) first associate laboratory director for Low-Temperature Plasma Surface Interactions, effective June 1. He will likely begin his new position from his home in Lafayette, California, in the East Bay region of San Francisco.

He will lead a collaborative research effort to not only understand and measure how plasma is used in the manufacture of computer chips, but also to explore how plasma could be used to help fabricate powerful quantum computing devices over the next decade.

This is the apex of our thrust into becoming a multipurpose lab, said Steve Cowley, PPPL director, who recruited Graves. Working with Princeton University, and with industry and the U.S. Department of Energy (DOE), we are going to make a big push to do research that will help us understand how you can manufacture at the scale of a nanometer. A nanometer, one-billionth of a meter, is about ten thousand times less than the width of a human hair.

The new initiative will draw on PPPLs expertise in low temperature plasmas, diagnostics, and modeling. At the same time, it will work closely with plasma semiconductor equipment industries and will collaborate with Princeton University experts in various departments, including chemical and biological engineering, electrical engineering, materials science, and physics. In particular, collaborations with PRISM (the Princeton Institute for the Science and Technology of Materials) are planned, Cowley said. I want to see us more tightly bound to the University in some areas because that way we get cross-fertilization, he said.

Graves will also have an appointment as professor in the Princeton University Department of Chemical and Biological Engineering, starting July 1. He is retiring from his position at Berkeley at the end of this semester. He is currently writing a book (Plasma Biology) on plasma applications in biology and medicine. He said he changed his retirement plans to take the position at PPPL and Princeton University. This seemed like a great opportunity, Graves said. Theres a lot we can do at a national laboratory where theres bigger scale, world-class colleagues, powerful computers and other world-class facilities.

Exciting new direction for the Lab

Graves is already working with Jon Menard, PPPL deputy director for research, on the strategic plan for the new research initiative over the next five years. Its a really exciting new direction for the Lab that will build upon our unique expertise in diagnosing and simulating low-temperature plasmas, Menard said. It also brings us much closer to the university and industry, which is great for everyone.

The staff will grow over the next five years and PPPL is recruiting for an expert in nano-fabrication and quantum devices. The first planned research would use converted PPPL laboratory space fitted with equipment provided by industry. Subsequent work would use laboratory space at PRISM on Princeton Universitys campus. In the longer term, researchers in the growing group would have brand new laboratory and office space as a central part the Princeton Plasma Innovation Center (PPIC), a new building planned at PPPL.

Physicists Yevgeny Raitses, principal investigator for the Princeton Collaborative Low Temperature Plasma Research Facility (PCRF) and head of the Laboratory for Plasma Nanosynthesis, and Igor Kavanovich, co-principal investigator of PCRF, are both internationally-known experts in low temperature plasmas who have forged recent partnerships between PPPL and various industry partners. The new initiative builds on their work, Cowley said.

A priority research area

Research aimed at developing quantum information science (QIS) is a priority for the DOE. Quantum computers could be very powerful in solving complex scientific problems, including simulating quantum behavior in material or chemical systems. QIS could also have applications in quantum communication, especially in encryption, and quantum sensing. It could potentially have an impact in areas such as national security. A key question is whether plasma-based fabrication tools commonly used today will play a role in fabricating quantum devices in the future, Menard said. There are huge implications in that area, Menard said. We want to be part of that.

Graves is an expert on applying molecular dynamics simulations to low temperature plasma-surface interactions. These simulations are used to understand how plasma-generated ions, atoms and molecules interact with various surfaces. He has extensive research experience in academia and industry in plasma-related semiconductor manufacturing. That expertise will be useful for understanding how to make very fine structures and circuits at the nanometer, sub-nanometer and even atom-by-atom level, Menard said. Davids going to bring a lot of modeling and fundamental understanding to that process. That, paired with our expertise and measurement capabilities, should make us unique in the U.S. in terms of what we can do in this area.

Graves was born in Daytona Beach, Florida, and moved a lot as a child because his father was in the U.S. Air Force. He lived in Homestead, Florida; near Kansas City, Missouri; and in North Bay Ontario; and finished high school near Phoenix, Arizona.

Graves received bachelors and masters degrees in chemical engineering from the University of Arizona and went on to pursue a doctoral degree in the subject, graduating with a Ph.D. from the University of Minnesota in 1986. He is a fellow of the Institute of Physics and the American Vacuum Society. He is the author or co-author of more than 280 peer-reviewed publications. During his long career at Berkeley, he has supervised 30 Ph.D. students and 26 post-doctoral students, many of whom are now in leadership positions in industry and academia.

A leader since the 1990s

Graves has been a leader in the use of plasma in the semiconductor industry since the 1990s. In 1996, he co-chaired a National Research Council (NRC) workshop and co-edited the NRCs Database Needs for Modeling and Simulation of Plasma Processing. In 2008, he performed a similar role for a DOE workshop on low-temperature plasmas applications resulting in the report Low Temperature Plasma Science Challenges for the Next Decade.

Graves is an admitted Francophile who speaks (near) fluent French and has spent long stretches of time in France as a researcher. He was named Matre de Recherche (master of research) at the cole Polytechnic in Palaiseau, France, in 2006. He was an invited researcher at the University of Perpignan in 2010 and received a chaire dexcellence from the Nanoscience Foundation in Grenoble, France, to study plasma-graphene interactions.

He has received numerous honors during his career. He was appointed the first Lam Research Distinguished Chair in Semiconductor Processing at Berkeley for 2011-2016. More recently, he received the Will Allis Prize in Ionized Gas from the American Physical Society in 2014 and the 2017 Nishizawa Award, associated with the Dry Process Symposium in Japan. In 2019, he was appointed foreign expert at Huazhong University of Science and Technology in Wuhan, China. He served as the first senior editor of IEEE Transactions on Radiation and Plasma Medical Science.

Graves has been married for 35 years to Sue Graves, who recently retired from the City of Lafayette, where she worked in the school bus program. The couple has three adult children. Graves enjoys bicycling and yoga and the couple loves to travel. They also enjoy hiking, visiting museums, listening to jazz music, and going to the theater.

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Quantum Computing Market Growth Opportunities, Challenges, Key Companies, Drivers and Forecast to 2026 Cole Reports – Cole of Duty

1qb Information Technologies

Global Quantum Computing Market: Competitive Landscape

This section of the report lists various major manufacturers in the market. The competitive analysis helps the reader understand the strategies and collaborations that players focus on in order to survive in the market. The reader can identify the players fingerprints by knowing the companys total sales, the companys total price, and its production by company over the 2020-2026 forecast period.

Global Quantum Computing Market: Regional Analysis

The report provides a thorough assessment of the growth and other aspects of the Quantum Computing market in key regions, including the United States, Canada, Italy, Russia, China, Japan, Germany, and the United Kingdom United Kingdom, South Korea, France, Taiwan, Southeast Asia, Mexico, India and Brazil, etc. The main regions covered by the report are North America, Europe, the Asia-Pacific region and Latin America.

The Quantum Computing market report was prepared after various factors determining regional growth, such as the economic, environmental, technological, social and political status of the region concerned, were observed and examined. The analysts examined sales, production, and manufacturer data for each region. This section analyzes sales and volume by region for the forecast period from 2020 to 2026. These analyzes help the reader understand the potential value of investments in a particular country / region.

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Key Benefits for Stakeholders:

The report provides an in-depth analysis of the size of the Quantum Computing world market, as well as recent trends and future estimates, in order to clarify the upcoming investment pockets.

The report provides data on key growth drivers, constraints and opportunities, as well as their impact assessment on the size of the Quantum Computing market.

Porters 5 Strength Rating shows how effective buyers and suppliers are in the industry.

The quantitative analysis of the Quantum Computing world industry from 2020 to 2026 is provided to determine the potential of the Quantum Computing market.

This Quantum Computing Market Report Answers To Your Following Questions:

Who are the main global players in this Quantum Computing market? What is the profile of your company, its product information, its contact details?

What was the status of the global market? What was the capacity, the production value, the cost and the profit of the market?

What are the forecasts of the global industry taking into account the capacity, the production and the value of production? How high is the cost and profit estimate? What will be the market share, supply, and consumption? What about imports and export?

What is market chain analysis by upstream raw materials and downstream industry?

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Verified Market Research is a leading Global Research and Consulting firm servicing over 5000+ customers. Verified Market Research provides advanced analytical research solutions while offering information enriched research studies. We offer insight into strategic and growth analyses, Data necessary to achieve corporate goals and critical revenue decisions.

Our 250 Analysts and SMEs offer a high level of expertise in data collection and governance use industrial techniques to collect and analyse data on more than 15,000 high impact and niche markets. Our analysts are trained to combine modern data collection techniques, superior research methodology, expertise and years of collective experience to produce informative and accurate research.

We study 14+ categories from Semiconductor & Electronics, Chemicals, Advanced Materials, Aerospace & Defence, Energy & Power, Healthcare, Pharmaceuticals, Automotive & Transportation, Information & Communication Technology, Software & Services, Information Security, Mining, Minerals & Metals, Building & construction, Agriculture industry and Medical Devices from over 100 countries.

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Tags: Quantum Computing Market Size, Quantum Computing Market Trends, Quantum Computing Market Growth, Quantum Computing Market Forecast, Quantum Computing Market Analysis

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Quantum Computing Market Growth Opportunities, Challenges, Key Companies, Drivers and Forecast to 2026 Cole Reports - Cole of Duty

Online course trains students in the bizarre world of quantum computing – Livescience.com

When the bizarre world of quantum physics where a "cat" can be both alive and dead, and particles a galaxy apart are connected is merged with computer technology, the result is unprecedented power to anyone who masters this technology first.

There is an obvious dark side. Imagine a world where online bank accounts could be easily hacked into and robbed. But this power can also be turned to good, allowing new drugs to be designed with unprecedented speed to cure disease. To prepare for such a future, many countries are investing billions to unlock the potential of what is called quantum computing. With an eye toward the future, a group of researchers at Fermilab,a particle physics laboratory in Batavia, Ill., has worked with high-school teachers to develop a program to train their students in this emerging field.

This program, called "Quantum Computing as a High School Module," was developed in collaboration with young students in mind. But it's also a perfect diversion for science enthusiasts of any age who suddenly have a lot of time on their hands.

This online training course introduces students to quantum concepts, including superposition, qubits, encryption, and many others. These additional concepts include quantum measurement, entanglement and teleportation; students will also learn and how to use quantum computers to prevent hacking. The course is also appropriate for community college or undergraduate students in areas outside of physics, such as computer science, engineering or mathematics, as well as a science literate public. One of the course's teachers, Ranbel Sun wrote, "It was great to work with a couple of America's smartest researchers to make sure that the science was right. Combining their knowledge and our teaching experience, we have developed an understandable learning program which bridges the gap between popular media and college textbooks."

Related: 12 stunning quantum physics experiments

Quantum computing uses the principles of quantum physics, which were developed in the early 1900s. Quantum physics describes the tiny realm of atoms, where the laws of nature seem to be very different from the world we can see. In this microcosm, electrons and particles of light called photons simultaneously act as both waves and particles a seeming absurdity, but one that is well accepted among scientists.

This non-intuitive quantum behavior has been exploited to develop powerful technologies, like the lasers and transistors that form the backbone of our technological society. Nobel Prize winning physicist Richard Feynman was the first to suggest that computers could be built to directly exploit the laws of quantum mechanics. If successful, these quantum computers could solve incredibly important and difficult problems that are too complex for even the most powerful modern supercomputers to solve. Last year, Google used a quantum computer called Sycamore to solve a problem thought to be virtually unsolvable by conventional computers; a calculation that would take the most powerful supercomputers 10,000 years to finish was solved in just 200 seconds by Sycamore.

The familiar computer on your desk uses a vast array of objects called bits to operate. Bits are basically simple switches that can be either on or off, which is mathematically equivalent to ones and zeros. Quantum computers rely on qubits, which can simultaneously be both on and off at the same time. This peculiar feature is common in the quantum world and is called superposition: being in two states at once. Researcher Ciaran Hughes said, "The quantum world is very different from the familiar one, which leads to opportunities not available using classical computers."

In 1994, Peter Shor invented an algorithm that revealed the power of quantum computing. His algorithm would allow quantum computers to factorize a number enormously faster than any classically known algorithm. Factorizing numbers is important because the encryption system used by computers to communicate securely relies on the mathematics of prime numbers. Prime numbers are numbers that are divisible only by one and themselves.

In a standard encryption algorithm, two very large prime numbers are multiplied together, resulting in an even larger number. The key to breaking the security code is to take the large number and find the two prime numbers that were multiplied together to make it. Finding these prime numbers is extremely hard for ordinary computers and can take centuries to accomplish.

However, using Shor's quantum algorithm, finding these prime factors is much easier. A working quantum computer would make our standard method of encryption no longer secure, resulting in the need for new encryption methods. Fermilab researcher Jessica Turner said, "Quantum computing is a very new way of thinking and will be revolutionary, but only if we can develop programmers with quantum intuition."

Obviously, any nation state or individual who is able to crack encryption codes will have a huge information advantage. The competition to develop working quantum computers is the new space race.

Quantum computing has the potential to overturn how computers securely communicate: from health care, to financial services and online security. Like it or not, the future is quantum computing. To fully reap the rewards of this quantum revolution requires a quantum fluent workforce. This new program is a very helpful step towards that goal.

The researchers have made their training program freely available.

Originally published on Live Science.

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Online course trains students in the bizarre world of quantum computing - Livescience.com

A Discovery That Long Eluded Physicists: Superconductivity to the Edge – SciTechDaily

Researchers at Princeton have discovered superconducting currents traveling along the outer edges of a superconductor with topological properties, suggesting a route to topological superconductivity that could be useful in future quantum computers. The superconductivity is represented by the black center of the diagram indicating no resistance to the current flow. The jagged pattern indicates the oscillation of the superconductivity which varies with the strength of an applied magnetic field. Credit: Stephan Kim, Princeton University

Princeton researchers detect a supercurrent a current flowing without energy loss at the edge of a superconductor with a topological twist.

A discovery that long eluded physicists has been detected in a laboratory at Princeton. A team of physicists detected superconducting currents the flow of electrons without wasting energy along the exterior edge of a superconducting material. The finding was published May 1 in the journal Science.

The superconductor that the researchers studied is also a topological semi-metal, a material that comes with its own unusual electronic properties. The finding suggests ways to unlock a new era of topological superconductivity that could have value for quantum computing.

To our knowledge, this is the first observation of an edge supercurrent in any superconductor, said Nai Phuan Ong, Princetons Eugene Higgins Professor of Physics and the senior author on the study.

Our motivating question was, what happens when the interior of the material is not an insulator but a superconductor? Ong said. What novel features arise when superconductivity occurs in a topological material?

Although conventional superconductors already enjoy widespread usage in magnetic resonance imaging (MRI) and long-distance transmission lines, new types of superconductivity could unleash the ability to move beyond the limitations of our familiar technologies.

Researchers at Princeton and elsewhere have been exploring the connections between superconductivity and topological insulators materials whose non-conformist electronic behaviors were the subject of the 2016 Nobel Prize in Physics for F. Duncan Haldane, Princetons Sherman Fairchild University Professor of Physics.

Topological insulators are crystals that have an insulating interior and a conducting surface, like a brownie wrapped in tin foil. In conducting materials, electrons can hop from atom to atom, allowing electric current to flow. Insulators are materials in which the electrons are stuck and cannot move. Yet curiously, topological insulators allow the movement of electrons on their surface but not in their interior.

To explore superconductivity in topological materials, the researchers turned to a crystalline material called molybdenum ditelluride, which has topological properties and is also a superconductor once the temperature dips below a frigid 100 milliKelvin, which is -459 degrees Fahrenheit.

Most of the experiments done so far have involved trying to inject superconductivity into topological materials by putting the one material in close proximity to the other, said Stephan Kim, a graduate student in electrical engineering, who conducted many of the experiments. What is different about our measurement is we did not inject superconductivity and yet we were able to show the signatures of edge states.

The team first grew crystals in the laboratory and then cooled them down to a temperature where superconductivity occurs. They then applied a weak magnetic field while measuring the current flow through the crystal. They observed that a quantity called the critical current displays oscillations, which appear as a saw-tooth pattern, as the magnetic field is increased.

Both the height of the oscillations and the frequency of the oscillations fit with predictions of how these fluctuations arise from the quantum behavior of electrons confined to the edges of the materials.

When we finished the data analysis for the first sample, I looked at my computer screen and could not believe my eyes, the oscillations we observed were just so beautiful and yet so mysterious, said Wudi Wang, who as first author led the study and earned his Ph.D. in physics from Princeton in 2019. Its like a puzzle that started to reveal itself and is waiting to be solved. Later, as we collected more data from different samples, I was surprisedat how perfectly the data fit together.

Researchers have long known that superconductivity arises when electrons, which normally move about randomly, bind into twos to form Cooper pairs, which in a sense dance to the same beat. A rough analogy is a billion couples executing the same tightly scripted dance choreography, Ong said.

The script the electrons are following is called the superconductors wave function, which may be regarded roughly as a ribbon stretched along the length of the superconducting wire, Ong said. A slight twist of the wave function compels all Cooper pairs in a long wire to move with the same velocity as a superfluid in other words acting like a single collection rather than like individual particles that flows without producing heating.

If there are no twists along the ribbon, Ong said, the Cooper pairs are stationary and no current flows. If the researchers expose the superconductor to a weak magnetic field, this adds an additional contribution to the twisting that the researchers call the magnetic flux, which, for very small particles such as electrons, follows the rules of quantum mechanics.

The researchers anticipated that these two contributors to the number of twists, the superfluid velocity and the magnetic flux, work together to maintain the number of twists as an exact integer, a whole number such as 2, 3 or 4 rather than a 3.2 or a 3.7. They predicted that as the magnetic flux increases smoothly, the superfluid velocity would increase in a saw-tooth pattern as the superfluid velocity adjusts to cancel the extra .2 or add .3 to get an exact number of twists.

The team measured the superfluid current as they varied the magnetic flux and found that indeed the saw-tooth pattern was visible.

In molybdenum ditelluride and other so-called Weyl semimetals, this Cooper-pairing of electrons in the bulk appears to induce a similar pairing on the edges.

The researchers noted that the reason why the edge supercurrent remains independent of the bulk supercurrent is currently not well understood. Ong compared the electrons moving collectively, also called condensates, to puddles of liquid.

From classical expectations, one would expect two fluid puddles that are in direct contact to merge into one, Ong said. Yet the experiment shows that the edge condensates remain distinct from that in the bulk of the crystal.

The research team speculates that the mechanism that keeps the two condensates from mixing is the topological protection inherited from the protected edge states in molybdenum ditelluride. The group hopes to apply the same experimental technique to search for edge supercurrents in other unconventional superconductors.

There are probably scores of them out there, Ong said.

Reference: Evidence for an edge supercurrent in the Weyl superconductor MoTe2 by Wudi Wang, Stephan Kim, Minhao Liu, F. A. Cevallos, Robert. J. Cava and Nai Phuan Ong, 1 May 2020, Science.DOI: 10.1126/science.aaw9270

Funding: The research was supported by the U.S. Army Research Office (W911NF-16-1-0116). The dilution refrigerator experiments were supported by the U.S. Department of Energy (DE- SC0017863). N.P.O. and R.J.C. acknowledge support from the Gordon and Betty Moore Foundations Emergent Phenomena in Quantum Systems Initiative through grants GBMF4539 (N.P.O.) and GBMF-4412 (R.J.C.). The growth and characterization of crystals were performed by F.A.C. and R.J.C., with support from the National Science Foundation (NSF MRSEC grant DMR 1420541).

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A Discovery That Long Eluded Physicists: Superconductivity to the Edge - SciTechDaily

NGA Knows Its Challenges, Now It Needs the Tech to Address Them – Nextgov

The National Geospatial-Intelligence Agency released its second annual Tech Focus Areas, highlighting top problem areas the agency wants to address using technology in the coming year.

While NGA published a similar list in 2019, this years authors note the world has changed significantly.

The year 2020 will represent a historic inflection point for our agency, our community, and our nation. In addition to the challenges we currently face from the COVID-19 pandemic, great power competition has reemerged as another challenge to U.S. prosperity and security, the document states.

The nature of geospatial-intelligence, or GEOINT, has changed significantly as well. In the past, the U.S. government was the undisputed leader in global surveillance.

Today, with commercial GEOINT available worldwide, we face a much more level playing field, the document states.

Several near-peer adversaries are investing significantly in new technologies to close the gap with U.S. and allied capabilities, NGA Chief Technology Officer Mark Munsell wrote in an introductory note. To stay ahead of these adversaries, we must bring together our world-class experts at NGA, industry partners with exquisite domain expertise and technical capabilities, and companies who have never worked with government before but whose products could help advance NGAs mission.

As such, Munsell said the document was designed to focus on areas of need, rather than specific technologies. While the document does not address specific technological solutions, it is explicitin broad termsabout the kinds of technologies NGA wants to explore.

In order to maintain leadership in this realm, NGA plans to foster partnerships with other agencies, industry and academia.

The tech focus areas arent shelfwarewe are identifying opportunities to leverage non-traditional acquisition capabilities to address the needs outlined in this document, Christy Monaco, NGA chief ventures officer, said in a release Wednesday.

The extensive list of needs includes things like analyzing immense data sets to provide useful models; managing and integrating data from diverse sources; improving the software development pipeline; taking advantage of advances in artificial intelligence and quantum computing; and preparing the agency for the future of work, including managing a distributed workforce.

The document condenses all this into five focus areas, each with several subsections explaining the agencys needs. From the document:

Advanced Analytics and Modeling

Data Management

Modern Software Engineering

Artificial Intelligence

Future of Work

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NGA Knows Its Challenges, Now It Needs the Tech to Address Them - Nextgov

COMMENTARY: Biden should campaign on theme: Is this really the best we can do? – Utica Observer Dispatch

In speeches during the 1960 presidential campaign, John Kennedy addressed Americans' anxiety about national lassitude at the end of eight years under Dwight Eisenhower by mildly saying: "I believe we can do better."

Joe Biden, responding to national embarrassment about the least presidential president, can campaign on a modest theme: "Is 'this' really the best we can do?"

This question answers itself, particularly concerning foreign policy. Fortunately for Biden, events and his opponent are making this central to the 2020 election.

It is axiomatic that Americans' preference regarding foreign policy is to have as little of it as possible. Hence most of this cycle's Democratic presidential aspirants avoided reminding people that the world is a dangerous place. However, in the Feb. 25 debate in Charleston, South Carolina, Biden called China's President Xi Jinping "a thug": "This is a guy who doesn't have a democratic-with-a-small-'d' bone in his body."

Economist John Maynard Keynes supposedly said, "When the facts change, I change my mind." Biden, citing new facts, including aggression against Hong Kong's freedom and "a million Uighurs" in "concentration camps," has jettisoned his 2016 talk of his "enhanced cooperation" with Xi.

In 34 of Biden's 36 Senate years, he was on the Foreign Relations Committee, which he chaired for four years. Donald Trump's foreign policy judgments have ranged from the contemptible (siding with Vladimir Putin at Helsinki in 2018 against U.S. intelligence officials regarding Russian interference in the 2016 election) to the preposterous ("There is no longer a Nuclear Threat from North Korea") to the weird (he and North Korea's Kim Jong Un "fell in love" after exchanging "beautiful letters").

Trump now wants to make relations with China central to this campaign. His rhetorical skills -- probably honed where they evidently peaked, on grammar school playgrounds are emulated by his campaign in references to "Beijing Biden." Biden can, however, turn China to his advantage by showing Trump what a policy of national strength would look like.

Biden served in the Senate for a decade with Sen. Henry Jackson, D-Wash., a liberal Cold Warrior who helped to make the Soviet Union's human-rights abuses costly to the regime. Today, Biden should speak forcefully against China's arrests of Martin Lee, 81, Jimmy Lai, 71, Margaret Ng, 72, and other leaders of Hong Kong's democracy movement.

Biden can practice what he preaches about bipartisanship by associating himself with Arkansas Republican Sen. Tom Cotton's measured but insistent support for the investigation of the possible role of a Wuhan research laboratory in the coronavirus outbreak. And with former U.S. ambassador to the United Nations Nikki Haley's call to require U.S. universities to disclose China's funding of their professors and research.

Cotton questions the visas for Chinese to pursue postgraduate studies here in advanced science and technology fields: If Chinese students want to study "Shakespeare and the Federalist Papers, that's what they need to learn from America. They don't need to learn quantum computing and artificial intelligence from America."

In February, a senior adviser for the World Health Organization's director-general praised China's "bold approach" that "changed the course" of the epidemic. Indeed China did: Its first approach was to deny that there is human-to-human transmission.

Biden should say that continued U.S. participation in this organization will be contingent upon its granting Taiwan membership. Biden should also promise to discuss Taiwan's exemplary response to COVID-19 with Tsai Ing-wen "in the Oval Office. She would be the first Taiwanese president welcomed in the United States since the 1979 "normalization" of relations with China.

By taking such steps, Biden can reconnect his party with its luminous post-1945 achievement. In that golden moment in the history of this nation's engagement with the world, the talents of Dean Acheson, George Marshall, George Kennan, Averell Harriman, Robert Lovett, Charles Bohlen, John McCloy and others created the structures of free trade and collective military security that produced the related phenomena of global enrichment and Soviet collapse.

The winners of the past seven presidential elections (1992-2016) have averaged 330 electoral votes. If today's state-by-state polls are correct, and if the election were held today, Biden would win 333 electoral votes: 227 from Hillary Clinton's states plus those from Wisconsin, Michigan, Pennsylvania, Florida, Arizona and North Carolina.

More than any particular policy outcome, Americans want a sense that their nation can regain the spring in its step, and can adopt a robust realism regarding the Leninist party-state that is its principal adversary. The first step toward a jauntier, safer America is to make the election a referendum on the right question: "Is 'this' really the best we can do?"

George Will is a columnist for the Washington Post. Email him at georgewill@washpost.com

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COMMENTARY: Biden should campaign on theme: Is this really the best we can do? - Utica Observer Dispatch

What’s the point: Ansible, Datadog, Amazon, Lens, Rust, and DeepMind DEVCLASS – DevClass

The team behind Red Hats IT automation tool Ansible is on track for the 2.10 release on September 22nd, and has just finished work on the base component for the upcoming version. Ansible 2.10 is the first to have the Ansible engine, which is made up of some core programs (ansible-galaxy, ansible-test, etc), a subset of modules and plugins, and some documentation, in a separate ansible-base repository.

The rest of the plugins and modules have been pushed into a variety of collections, a format for bundling Ansible artifacts. Collections are independently developed and updated, with some sought out ones becoming bundled with ansible-base for the final Ansible package. To make sure moved components wont break setups, Ansible 2.10 comes with appropriate routing data.

At Datadogs yearly user conference last week, the monitoring company introduced some additions to its portfolio that are well worth a look. One of the most sought after enhancements seems to be the Datadog mobile app for iOS and Android devices. The application is meant to provide on-call workers with dashboard and alert access. It also allows users to check the new Incidents UI, which grants a central overview of the state of all incidents. Other enhancements to the Datadog platform include investigation dashboards and threat intelligence for Security Monitoring, and compliance monitoring.

A good eight month after introducing devs interested in quantum computing to its Braket service, AWS has decided its time to make it generally available. The product aims to support researchers by providing them with a development environment to explore and build quantum algorithms, test them on quantum circuit simulators, and run them on different quantum hardware technologies. Amazon Braket comes packed with pre-built quantum computing algorithms, though implementing some from scratch is promised to be an option as well, and simulators for testing and troubleshooting different approaches.

Mirantis, recent home of Docker Enterprise, has continued on its cloud native acquisition journey by buying Kubernetes integrated development environment Lens from its authors. Lens is a MIT-licensed project which was launched in March 2020 and is supposed to run on MacOS, Windows, and Linux. It was originally developed by Kontena, whose team also became part of Mirantis earlier this year. In its announcement, Mirantis promised to keep Lens free and open source and invest in the future development of the tool.

Lovers of programming language Rust might have started to worry given the string of Mozilla layoffs announced last week. The language team therefore took to Twitter to assure users that Rust isnt in existential danger, ensuring to share more information on the topic in the coming weeks.

Developers working with just-in-time compiler JAX in their machine learning projects can now add two more helpers to their open-source toolbelt. Optax and Chex both stem from Googles DeepMind team and are meant to support users in properly using JAX, which funnily enough is also a Google research project.

Chex includes utils to instrument, test, and debug JAX code in order to make it more reliable. Meanwhile Optax was dreamt up to provide simple, well-tested, efficient implementations of gradient processing and optimisation approaches. Both projects can be found on GitHub, where the projects are protected under a Apache-2.0 License.

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What's the point: Ansible, Datadog, Amazon, Lens, Rust, and DeepMind DEVCLASS - DevClass

U.S. continues on economic road to recovery under Trump – Boston Herald

In less than two months, Americans will choose a president for the next four years. If your vote is based on which candidate can rebuild our economy, the choice is clear.

Our economy is roaring back from the depths of the pandemic, because President Trumps pro-growth economic agenda over the last four years laid the groundwork.

On Sept. 4, the Department of Labor announced that 1.4 million jobs were created since April. The national unemployment rate fell to 8.4%, a 6.3% improvement during that period. These results exceeded the expectations of economists and even the most bullish Wall Street analysts. Reflecting confidence in the economys recovery, the stock markets have traded at record highs since the nationwide economic closures that began in March.

Under Trump, the Republican Senate and then Republican-controlled House passed the most comprehensive tax cuts and tax reform legislation in a generation. The Tax Cuts and Jobs Act of 2017 reduced taxes for businesses from 35% to 21%. It also provided valuable incentives for manufacturers and small businesses including restaurants to hire more employees and allowed business owners to write off any investment in new equipment and tools for their businesses.

One of the presidents earliest directives was tomandatethat for every one new regulation, two old regulations must be eliminated. InTrumpianstyle,the presidents teamactuallyexceededhis own initialdirectiveand eliminated 22 regulations for every new regulation issued. According to the Council of Economic Advisers, Trump deregulation has reduced regulatory burden on our economy by nearly $50 billion and helped American families save at least$3,100 each year.

Since the pandemic struck, the presidents economic leadership has also been bold and decisive. For example the Pledge to Americas Workers and the White House Initiative on Industries of the Future are centered on jumpstarting high-tech job training and bolstering American dominance in transformational industries such as 5G wireless broadband, quantum computing and artificial intelligence. These are the sectors that will determine long-term American leadership of the global economy.

But as our nation continuesthe transition from pandemic tosustained economic recovery,the contrast between Trumpsoptimistic andpro-worker jobs agendaandformer vice president Joe Bidensembrace ofindefinitequarantine and economic closure is clear.During the Democratic presidential primary,Biden, who wastrailing inenthusiasmamongDemocraticactivists,raced to embrace theGreen New DealchampionedbyRep. AlexandriaOcasio-Cortezof New York.

Included in the Green New Deal is a fracking ban that would eliminate hundreds of thousands of energy, manufacturing and construction jobs in Pennsylvania, Ohio and other states. Biden wont even renounce the Green New Deals mandate to eliminate U.S. commercial airlines within a decade. This would further devastate already suffering high-skilled union jobs in the aviation, aerospace manufacturing and hospitality sectors. According to recent studies, the demise of American aviation alone would cost us 1.6 million jobs and a 1% decline in our gross domestic product.

At the end of the day, actions speak louder than words.Progressives and media naysayersscoffed at the Trump administrations vision for economic growthduring the darkest days of the pandemic. Despite the doomsday projections of sustained economic depression, Trumps economicplatformoftax cuts, deregulation and limited government have been rocket fuel for Americas coronavirusrecovery.

On the flip side, the former vice president would undermine our economy and put American workers back on the ropes.

Joseph Lai served as White House special assistant for legislative affairs from 2017 to 2019.

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U.S. continues on economic road to recovery under Trump - Boston Herald

Meet The Scrappy Space Startup Taking Quantum Security Into Space – Forbes

Loft Orbital is helping take quantum security into space

What do you get when you combine space, lasers, photons, the laws of physics, a Fortune 100 company, the Canadian Space Agency and a scrappy space startup?

The answer, it is hoped, will be a revolution in encrypted communications. Or, at least, the start of one: a mission to test quantum security in space. Why might you want to do that? Let me explain, with the help of a scrappy space startup and a seriously clued-up quantum security boffin.

The Fortune 100 company involved here is Honeywell, the prime contractor for the Canadian Space Agency's Quantum Encryption and Science Satellite mission, QEYSSat. The aim? Quite simply to put space-based quantum key distribution (QKD) to the test. More of that in a moment, but first, let's meet the scrappy space startup.

Loft Orbital is a company that specializes in deploying and operating space infrastructure as a service. Using its Payload Hub technology, Loft Orbital takes a "Yet Another Mission" or YAM approach to payloads with a hardware and software stack to enable plug and play sensors on a standard microsatellite platform.

QEYSSat is, I am informed, the largest contract since Loft Orbital was founded in 2017. By coincidence, the same year that the Chinese Academy of Sciences launched a similar QKD program using the Micius satellite.

So, why should you give a rat's behind if it's all been done before? Because, dear reader, QKD is a nascent technology, so every new test program will, almost inevitably, unlock further and valuable information. A few years is a very long time in quantum technology, to bastardize the political idiom.

There are a bunch of differences between the older Micius approach to QKD and that which QEYSSat is taking. For a start, QEYSSat is aiming to be less than 20% the size of the Micius satellite and will leverage commercial technology. Hence the involvement of Loft Orbital. Does size matter? You betcha. Reductions in size of that scale should lead to significant savings in both cost and time as far as the next generation of test projects is concerned. Size and mass will also be key if you'll forgive the pun, as any QKD implementation at scale will demand a large satellite constellation.

Ultimately, if all goes according to plan, QEYSSat could have broad-reaching impacts as it should prove the capability to deliver QKD over much longer distances than the current ground to ground tests have managed to date. "This mission will demonstrate game-changing technology with far-reaching implications for how information will be shared and distributed in the future," says Loft Orbital CEO, Pierre-Damien Vaujour, "we are honored and thrilled to be supporting it."

Time, I think, to bring in my friendly quantum security expert, mathematician and security researcher, Dr. Mark Carney, who you may remember helped me explain why the math says Person Woman Man Camera TV made such a lousy password. Dr. Carney has a particular interest in quantum key distribution threat modeling, so makes the ideal guide to what we can expect, or not, from the QEYSSat mission.

"There are four ways quantum affects security," Dr. Carney begins, "quantum computers break classical algorithms, post-quantum algorithms try to get around this by using harder math problems in classical crypto, quantum algorithms can be used to accelerate decisions (popular in quantum finance, but nobody in infosec has really looked at what algorithms can help where), and QKD, that uses quantum effects to do cryptography, bypassing the need for 'mathematical crosswords' altogether."

Still with me, good? Because it gets a little more complicated from this point on.

The algorithms that drive QKD are oldish, and the most popular and well-established, BB84 and E91, primarily work in the same way.

"Because regular cryptography goes over regular networks, it is fully error corrected," Dr. Carney says, "the security is in the underlying math. As such, it can be packet-switched without any consequence."

What has all this got to do with QKD in space? I'm getting there, and so is Dr. Carney. "The problem with QKD is that packet switching is somewhere between very very hard and basically impossible," he says, "because unlike the security of classical crypto being in the math, the security of QKD is in the physical photon state."

Time to get your just accept this at face value head screwed on: if you observe a photon, the quantum effects you are using disappear and you may as well just use classical crypto because it is much better at being transmitted in the clear.

So, if not packet switching, then what? "You need a direct fiber link to do light photon-based QKD between every single endpoint you want to exchange a key with," Dr. Carney explains. One major manufacturer of QKD fiber solutions produces building-to-building link equipment so that the internal security of the network is the only concern of the QKD keys produced. "This is where satellites turn out to be really handy," says Dr. Carney, "send up one satellite, and have a load of users communicate with that, and no need to build dozens or hundreds of fiber links."

If you have a laser array and a laser receiver, you can send pulses of photons up to satellites and still do QKD, albeit with higher error rates due to atmospheric diffusion of light that cannot be avoided. Dr. Carney will come back to that shortly, I'm sure.

"Another advantage of space is that you don't need fiber repeaters," he says, "and for distances of over 14km, single fiber connections get kind of useless." There are fiber repeater network designs for QKD, but these are not necessarily immune to tampering, so breaking the trust modeling according to Dr. Carney.

"I mentioned error and atmospheric dispersion on uplink before," Dr. Carney reminds me, as much as bad weather doesn't actually affect cloud computing, cloud cover certainly affects QKD! Dispersion on the way down is also an issue, and targeting your downlink comms is also hard."

It turns out that getting the aperture of that link down to a minimum seems like a tough problem. "I don't think the calculations are favorable if your downlink laser disperses over a broad area," Dr. Carney adds, "Eve would just have to plant a small mirror on your fence or carefully park another satellite quietly next to yours," to break the threat model once more.

Dr. Carney is of the opinion that "going into space solves a few problems, but also introduces others." Not least because QKD has a fundamental problem which is hard to solve under any circumstance: all of the security is in the physicality of the system. "One foot wrong," Dr. Carney says, "and you can fail pretty badly very quickly."

As for the Chinese Micius program and what that taught us about QKD in space, the latest I heard was a June 2020 paper published in Nature that explained "entanglement-based QKD between two ground stations separated by 1,120 kilometers at a finite secret-key rate of 0.12 bits per second, without the need for trusted relays." That paper claims the methods used increased the on the ground secure distance tenfold and increased the "practical security of QKD to an unprecedented level."

And what of Loft Orbital, which seems to think that this new QKD technology should be available to the private sector, and adopted at scale, in the 2030s? Dr. Carney doesn't have a problem with that as a date for adoption, given that Loft Orbital is demonstrating how microsats are getting ever easier to launch.

"Adopted at scale," he says, "this is I think the kicker. There seem to be a lot of variables in the mix that don't have easy engineering solutions. Unless you are launching a satellite per region and getting decent coverage with superb bandwidth to mitigate issues such as cloud cover, it's hard to see how the cost viability is maintained."

One thing is for sure, this is a move forward, and it will be interesting to see where all this takes us. Especially with "private equity making investments that heretofore were only really of interest and in reach of nation-states," Dr. Carney concludes.

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Meet The Scrappy Space Startup Taking Quantum Security Into Space - Forbes

Former Intel exec to be new CEO of Semiconductor Research Corporation – WRAL Tech Wire

DURHAM A former Intel Corporation executive has been appointed as president and CEO ofSemiconductor Research Corporation (SRC), a global semiconductor research consortium based in Durham.

Todd Younkin, who is currently executive director of SRCs Joint University Microelectronics Program (JUMP),replacesKen Hansen who is retiring after leading SRC the past five years. Younkin will starttransitioning to his new role on August 18.

I am honored to lead SRC, a one-of-a-kind consortium with incredible potential and exceptionally talented people, Younkin said in a statement. Together, we will deliver on SRCs mission to bring the best minds together to achieve the unimaginable. SRC is well-positioned to meet our commitment to SRC members, employees, and stakeholders by paving the way for the semiconductor industry. Our strong values, unique innovation model, and unflinching commitment to our members are core SRC principles that we will maintain as we move forward.

Todd Younkin

Prior to SRC, Younkin held senior technical positions at Intel Corporation. Among them, he was an assignee to IMEC, an international semiconductor research and development hub, where he worked closely within the consortium to help move Extreme Ultraviolet Lithography (EUVL) into commercialization.

He holds a Ph.D. from the California Institute of Technology and Bachelor of Science from the University of Florida.

The challenges facing the semiconductor industry today are as exciting and demanding as ever before, said Gil Vandentop, SRC Chairman of the Board, in a statement. At the same time, AI, 5G+, and Quantum Computing promise to provide unfathomable gains and benefits for humanity. The need for research investments that bring these technology advances to bear is paramount. Todd has demonstrated an ability to bring organizations together, tackle common research causes, and advance technologies into industry. He has a clear vision to take SRC to the next level. I am delighted that Todd has accepted this challenge and will become the next SRC CEO.

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Former Intel exec to be new CEO of Semiconductor Research Corporation - WRAL Tech Wire