Archive for the ‘Quantum Computer’ Category

Xanadu and KISTI Partner to Create South Korea’s 1st Quantum … – HPCwire

TORONTO and DAEJEON, South Korea, Sept. 19, 2023 Xanadu, a world leader in photonic quantum computing, and the Korea Institute of Science and Technology Information (KISTI), a leading national research institute, have partnered to create South Koreas first quantum-classical hybrid computing infrastructure for providing the regional scientific community with new research capabilities.

The quantum-classical hybrid circuit software development kit (SDK) developed through this partnership will establish the backend infrastructure to KISTIs cloud service for connecting various classical and quantum hardware platforms. Xanadus open-source software library, PennyLane, and its high-performance quantum simulator, Lightning, will be employed as foundational tools for developing this SDK, empowering South Korean researchers with seamless access to hybrid computing resources and performing state-of-the-art research.

Since 1962, KISTI has played a pivotal role in bolstering South Koreas global leadership in science and technology innovation. Over the past decade, KISTI has been actively involved in a wide range of quantum projects. These include research in computational designs of quantum logic devices, as well as extending the scope of quantum circuit simulations with parallel computing in large classical computing environments. Combining Xanadus and KISTIs quantum expertise unlocks the potential to leverage the power of both classical and quantum computing technologies.

Were excited to partner with KISTI to develop South Koreas first hybrid quantum-classical infrastructure, said Christian Weedbrook, Xanadu founder and Chief Executive Officer. PennyLanes ability to run on all major quantum hardware makes it an excellent framework to base development on, and we look forward to seeing the projects that come of this.

Our mission is to build a better future with science and technology infrastructure and data, said Dr. Kim Jaesoo, President of KISTI. We are thrilled to expand our research capabilities and bring this new technology to South Korea by partnering with Xanadu.

About Xanadu

Xanadu is a Canadian quantum computing company with the mission to build quantum computers that are useful and available to people everywhere. Founded in 2016, Xanadu has become one of the worlds leading quantum hardware and software companies. The company also leads the development of PennyLane, an open-source software library for quantum computing and application development.

About the Korea Institute of Science and Technology Information

KISTI is a Korean national research institute that leads high performance computing (HPC) R&D activities in South Korea. Founded in 1962, KISTI has been participating in the national flagship project launched to develop a 50-qubit full-stack quantum computer, with a major role in the development of a parallelized quantum circuit simulator and a cloud service framework for quantum computing.

Source: Xanadu

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Xanadu and KISTI Partner to Create South Korea's 1st Quantum ... - HPCwire

Recent Updates on Foreign Investment Restrictions and Export … – Pillsbury Winthrop Shaw Pittman

Simultaneously, while Raimondo acknowledged that the United States does not want to decouple from China, she held firm that the United States would not be compromising or negotiating on matters of national security. Period. Accordingly, the visit offers useful insight into U.S. policy at a critical time for the Chinese-U.S. relationship. While additional trade controls are likely in coming months, the visit demonstrates the possibility of continued dialog between both nations, informed by relevant industry stakeholders.

A Focus on Exports to ChinaThe past several years have seen significant restrictions placed on trade between the United States and China. In October 2022, the U.S. Department of Commerces Bureau of Industry (BIS) issued restrictions on exports of certain advanced computing chips to China and Russia. The BIS cited concerns about foreign adversaries use of computer chips, such as for military modernization efforts. (See Pillsburys initial analysis of these rules.)

Reports indicate that the BIS is considering amendments to its regulations which could include additional limitations, such as restrictions on cloud computing services that provide a China-located user with access to advanced chips. These reports also suggest that further revisions could be made to the technical control parameters of what is considered an advanced computing integrated circuit.

Investment Regulation In August 2023, the Biden Administration issued a long-awaited Executive Order (EO) on outbound investment, which lays the groundwork for forthcoming regulations to require notifications or, in some cases, outright prohibit U.S. companies from making certain investments in countries of concern, including China. The EO identifies semiconductors, quantum computing and artificial intelligence (AI) as the primary areas of focus. (See Pillsburys initial analysis of the Executive Order.) Comments on the Department of Treasurys notice of proposed rulemaking carrying out the EO are due September 28.

Congress has also focused on outbound investment regulation. Included in the National Defense Authorization Act (NDAA), as passed out of the Senate, is the Outbound Investment Transparency Act (OITA), which would require companies exporting advanced semiconductors (among other covered sector technologies) to notify the Treasury Department 14 days prior to making investments in countries of concern. During Senator Caseys statements on the floor of the Senate supporting the OITA, he commented that outbound investment harms U.S. strategic interests when it facilitates technology transfer and that these investments can undermine the long-term competitiveness of American firms. Independent of the NDAAs passage, it appears likely that Congress will implement some form of outbound investment restriction or monitoring, though questions remain whether any legislation will go beyond what is already called for in the Administrations EO.

Separately, in January 2023, the U.S. House of Representatives voted to create the House Select Committee on Strategic Competition Between the United States and the Chinese Communist Party, commonly referred to simply as the Select Committee on the CCP. Over the summer, the Select Committee has launched a number of investigations into U.S. investments and business relations in China. Prior to Raimondos trip to China, the Committee wrote to Raimondo, urging her to declare that compromising on U.S. export controls with China is non-negotiablean action Raimondo did take. The Committee has made clear that they believe it is paramount to keep advanced semiconductors out of Chinas reach.

Given the increasing complexities to engage with trade in China, some U.S. companies have publicly expressed distress regarding the difficulty of operating in both jurisdictions. As noted by Raimondo on her trip to China, American firms still have a desire to do business in China and access the Chinese market.

Comments and Criticism of Limiting Semiconductor ExportsCompanies working with semiconductors at home and abroad should be mindful of the changing market landscape caused by evolving policies.

As outlined in the August 2023 EO, the prohibition on U.S. companies to sell semiconductors to countries of concern will limit Chinas ability to develop AI products in the short term. Companies that export chips to China have made clear that in response to export controls, China will dedicate massive resources to accelerate companies specializing in the development of graphics processing units (GPUs). American companies have also raised concerns about the long-term impacts of overly broad restrictions on exports to China, which can cause China to develop its own capabilities, impact visibility on technology developments in China, and result in displacing U.S. technology worldwide.

Chinas Ministry of Commerce, in reaction to the announcement of the 2022 export block, noted that the restrictions on advanced computer chips to China would hinder international scientific and technological exchanges and economic cooperation, and have an impact on the stability of global industrial and supply chains and the recovery of the world economy. To support the manufacturing strategies of domestic semiconductor companies, the China Integrated Circuit Industry Investment Fund, known as the Big Fund, is set to launch a $40 billion investment fund, backed by the Chinese government. This would be the largest fund to datetwo prior funding rounds were released in 2014 and 2019. The goal of the fund is to make China self-sufficient. While it will take time to raise the investments and see results from the Big Funds initiative, it is indicative of the governments dedication to build up its domestic capacity in light of international restrictions.

Engagement OpportunitiesCompanies that may be impacted by future outbound investment regulations should submit comments and feedback to the Department of Treasury before the September 28 deadline. In addition, some companies may seek the opportunity to meet with members of Congress to help educate on chip supply chain issues as it relates to AI. Senator Schumer (D-NY), who announced the SAFE AI Innovation Framework in June, is hosting the AI Insight Forum this fall. On September 13, Schumer held a closed-door meeting with high-profile tech leaders to discuss potential AI regulation. The meeting was attended by 60 senators who, according to Schumer, all agreed that the government must play a role in regulating AI. Several bills and frameworks have already been proposed or discussed on the Hill, and we expect more to be introduced as the Senators glean more information during forum meetings. Companies may want to reach out to those attending the meeting, as well as coordinate with Senate staff to be involved in future AI Insight Forums.

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Recent Updates on Foreign Investment Restrictions and Export ... - Pillsbury Winthrop Shaw Pittman

SoftBank and the University of Tokyo Collaborate on Quantum … – OPP.Today

Japanese operator SoftBank and the University of Tokyo have entered into a joint research collaboration to explore the business applications of quantum computing. The collaboration includes SoftBanks membership in the Quantum Innovation Initiative Consortium (QII Consortium), which is operatedthe University of Tokyo. The goal of the collaboration is to strengthen industry-academia collaboration, accelerate research and development, and verify use cases using the IBM Quantum System One, a quantum computer with a 127-qubit processor.

In addition to exploring the potential of quantum computing, SoftBank and the University of Tokyo plan to link the system with mobile communication technologies such as 5G, IoT, and future 6G systems. This integration aims to contribute to the social implementation of quantum computers, furthering their practical application in society.

The QII Consortium was established to build an ecosystem of quantum computing technologies and promote relevant research and development activities. SoftBank is currently conducting use case validations in fields like quantum chemistry, quantum machine learning, and optimization.

Both SoftBank and the University of Tokyo have expressed their commitment to advancing quantum research in Japan. By exclusively using a quantum computer with a 127-qubit processor installed in Japan, the University of Tokyo aims to lead in application development in the era of quantum computing.

SoftBank sees its membership in the QII Consortium as an opportunity to contribute to quantum research and pursue the practical use of quantum computing. The company envisions equipping its next-generation social infrastructure with quantum computers to accelerate the digitalization of society.

This collaboration follows SoftBanks previous joint research agreement with Keio University in the field of quantum computers. The initial focus of the research is on quantum chemistry, specifically the analysis of molecules and nuclei using Noisy Intermediate-Scale Quantum (NISQ) computers.

Overall, the collaboration between SoftBank and the University of Tokyo demonstrates their commitment to advancing quantum computing technology and exploring its potential for business utilization. The integration of mobile communication technologies further highlights the goal of implementing quantum computers for societal benefit.

Sources: SoftBank collaborates with University of Tokyo for quantum computing research SoftBank, University of Tokyo partner on quantum computing research

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Quantum Tech Intended for National Security Is Testing U.S. Alliances – The New York Times

The Australian physicist shook the heavy metal box that resembled a beer cooler but held a quantum sensor. A computer screen showed that the cutting-edge device with lasers manipulating atoms into a sensitive state continued functioning despite the rattling.

He and his team had built a hard-to-detect, super-accurate navigation system for when satellite GPS networks are jammed or do not work that was robust and portable enough to be used outside a lab. It could potentially guide military equipment, from submarines to spacecraft, for months with a minuscule risk of directional error a significant improvement over what is available today.

The fact that we can do that is probably a wild, insane surprise, said Russell Anderson, the head of quantum sensing at Q-CTRL, a start-up that recently signed a deal with Australias Department of Defense to develop and field-test its quantum sensor technology.

The global race to develop quantum technologies of all kinds has accelerated as governments pour investment into the industry and scientists make rapid technical advances. But to maintain an edge over China which takes a centralized approach to tech development the United States is considering tougher export controls for quantum. And allies say more limits, on top of those already in place, could stifle momentum because the strength of the American model of tech development comes from its openness, combining pools of public research money with private investment to support scientists from many countries.

For the United States and its allies, the challenge is clear: how to balance protectionism and cooperation in a transformative field where talent is scarce and less concentrated in the United States, making interdependence inevitable and increasingly necessary.

The world has changed, and the pace of technology is much faster than it used to be, said John Christianson, a military fellow at the Center for Strategic and International Studies in Washington, who co-authored a recent report on AUKUS, the 2021 security agreement among the United States, Britain and Australia. We cant just rely on Americans always having the best stuff.

Secretary of State Antony J. Blinken and Secretary of Defense Lloyd Austin III are in Australia this week for annual bilateral meetings. Australian officials say they will likely be urged to hurry up and clarify the rules for technology sharing in rapidly-changing fields.

In just the past few years, quantum technology has moved to the cusp of widespread use as companies, nations and investors have helped scientists turn the extreme sensitivity of atoms into powerful sensors, more secure communication systems and superfast quantum computers that could drive exponential progress in artificial intelligence, drug discovery, mining, finance and other industries.

With its centralized method of funneling billions of dollars to military-affiliated universities, China has produced results that have nearly matched or exceeded the American approach. Some of its claims about quantum breakthroughs and funding pledges have been disputed, but a demonstrable rise in Chinese expertise began a decade ago with surging government investment after the Edward Snowden leak confirmed in 2013 that U.S. and British intelligence agencies had found ways to crack and spy on encrypted internet traffic.

In 2017, China built a 91-acre campus in Hefei, west of Shanghai, with the worlds largest national laboratory for quantum science. Since then, Chinese researchers have published thousands of papers demonstrating critical advances, including, in 2021, the use of a space-to-ground quantum communication network linking satellites to a fiber-optic cable connecting Shanghai to Beijing.

For China, the Snowden thing had a psychological impact, said Edward Parker, a physicist focused on emerging technologies at the RAND Corporation. Theres also some aspect of national pride they identified this as a very demonstrable quantum technology where they could become the best in the world.

Jian-Wei Pan, sometimes called Chinas father of quantum, has been an important figure. His Ph.D. focused on quantum information science at the University of Vienna under Anton Zeilinger, one of last years Nobel Prize winners in physics, and Chinas most notable achievements have come with communication that leverages the laws of quantum physics to protect data.

According to the Australian Strategic Policy Institutes critical technology tracker, China appears to be lagging more in quantum computers which perform many calculations in one pass, making them faster than todays digital computers that perform each calculation separately while narrowing the gap in quantum sensing for navigation, mapping and detection. Chinese scientists have even said they are building a quantum-based radar to find stealth aircraft with a small electromagnetic storm, though quantum specialists outside China have questioned their claims.

One of the doubters is Michael Biercuk, 43, the founder of Q-CTRL, an American physicist with a military mien and a Harvard Ph.D. who moved to Australia in 2010 to teach at the University of Sydney. He and his start-up, with offices in Sydney, Los Angeles, Berlin and Oxford, are among a cutting-edge group of global quantum leaders who see hyperbole and statecraft in many Chinese quantum announcements and hope to capitalize on what technology-sharing partnerships like the AUKUS security agreement represent.

AUKUS, for us, is exceptionally important, said Professor Biercuk, noting that Q-CTRL works on sensors and quantum computing. Its a real opportunity for the homegrown capability were building in Australia to be deployed into an international framework.

About half of Q-CTRLs 100 employees are Australian, half from other countries, and many, including Professor Biercuk, have experience working for Americas elite defense and civilian laboratories. The companys main software product, which stabilizes the hardware against everything that goes wrong in the field, Professor Biercuk said, is already being used by quantum developers in the United States, Canada and Europe, where precise sensor technology is also advancing.

But moving sensitive technology from one nation to another, or developing technology with cross-border teams, has become increasingly fraught.

Fearing that its technology will be used to build the economies of larger countries, Australia has been exploring how to keep its own advances secret. Q-CTRLs scientists in Sydney already cautiously avoid sharing technical information with colleagues in the United States to avoid being subject to the U.S. International Traffic in Arms Regulations (ITAR), a set of restrictive safeguards for military technology that is widely seen as a major obstacle to modernizing Americas alliances in the region.

If American officials go through with their plan to expand export controls for quantum computing, following a pattern that began with advanced microchips, information itself could be considered an export, meaning details could not be shared with people born outside the United States.

Its just very complicated if you have to have separate lab facilities with more sensitive things, said Dr. Parker, the RAND physicist.

Many quantum companies in the United States and elsewhere, including Q-CTRL, are hoping for sensible, clear guidelines. Australian officials and some American lawmakers are also pushing for an exemption from U.S. arms regulations so Australian companies would not be treated as foreign entities.

For many who work closely with advanced technology, where innovation requires information sharing, there is a gnawing worry that the United States and its closest allies are at risk of squandering recent gains by waiting too long to clarify the legal mechanisms for cooperation.

On a recent afternoon in the former locomotive factory where Q-CTRL has its offices, Professor Biercuk said the next few years will be crucial. If friendly democracies dont build quantums strengths together, other countries will speed past with sharper militaries and lucrative opportunities.

You better believe that China and any nations allied with China are not going to put restrictions on themselves or their partners, he said. Anytime we overly regulate emerging areas of science, we risk simply stopping progress locally and ceding technological advantage to our adversaries.

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Quantum Tech Intended for National Security Is Testing U.S. Alliances - The New York Times

UChicago Scientists Make New Discovery Proving Entanglement Is Responsible for Computational Hardness In … – HPCwire

July 27, 2023 For decades, scientists have been trying to solve the mystery of what makes quantum computers more powerful than classical computers. The origins of this quest can be traced all the way to Albert Einstein who famously called quantum mechanical entanglement spooky action at a distance. Now in a groundbreaking paperpublished in thePhysical Review Letters, a team of scientists led by Assistant ProfessorWilliam Feffermanfrom the University of ChicagosDepartment of Computer Sciencehave found a computational problem in which entanglement is directly responsible for a dramatic quantum computational speedup over any efficient classical algorithm.

Fefferman, along with lead Ph.D. studentSoumik Ghosh, IBM researcherAbhinav Deshpande(who Fefferman co-advised at the University of Maryland), University of Maryland postdocDominik Hangleiterand University of Maryland/NIST researcherAlexey Gorshkov, debuted a problem in their paper titled Complexity phase transitions generated by entanglement that pinpoints two things: there is a provable quantum speedup over any classical computer, and entanglement is causing the speedup in this particular problem.

Since the early 90s, we have had theoretical evidence that quantum computers can solve problems that are too difficult for todays classical computers. One specific example that scientists continue to look at isShors algorithm, which says quantum computers can take incredibly large numbers (think ten billion) and quickly break them into their prime factors. The foundations of modern cryptography that we use on the Internet is based on this being a hard problem to solve; so if large scale quantum computers are built, then the basis of cryptography as we know it would be compromised.

However, Shors algorithm is still a theoretical result because large enough and perfect enough quantum computers have not yet been built.

Right now we are in the era of NISQ which stands for noisy intermediate scale quantum computing, said Ghosh. Some companies have designed certain types of quantum computers, but one defining feature is that they are a bit noisy. Todays quantum computers are believed to be just slightly more powerful than our best classical computers, so its becoming more significant to sharpen that boundary between the two.

In the same way that classical computers are made up of bits, quantum computers are made of individual components called qubits. As Ghosh explained, todays qubits are noisy, making them too imperfect to be efficient. A quantum computer would need hundreds of thousands of noiseless qubits to solve the near-impossible problems facing modern computers. While places like UChicago are making strides towardbuilding large scale quantum computersthat can test these theories, we dont currently have devices capable of doing so.

There is still plenty that scientists dont understand about the basic foundations of quantum computing that make it hard to move forward in the field. From a first principle standpoint, certain questions need to be answered: Why is quantum computing so powerful? Why does Shors algorithm work? What quantum properties is it using that causes these speedups? After years of research attempting to better understand these issues, this work gives an example of a quantum system for which entanglement can be identified as the clearcut answer.

Entanglement is a fundamental property of quantum systems, and its a property that we think is very different from anything that happens in the classical world, Fefferman explained. Furthermore, theres always been an intuition that entanglement is one of the root causes of these quantum speedups. Its an important contributor to the power of quantum computers, but it wasnt totally clear that entanglement was the sole cause. Thats what our paper is trying to address.

Entanglement is a complex and largely misunderstood phenomenon that scientists have been trying to understand for the last hundred years. Einstein, for instance, was troubled by entanglement and died trying to give a classical explanation. In essence, if you have two entangled quantum particles that are separated by a distance, no matter how far, what happens to one particle can simultaneously affect the behavior of the other particle. Abstractly, if you have a large number of particles or qubits as the basic unit of quantum information and you want to understand the state of this entire system, the idea of entanglement implies you wont get any real information by looking at just one qubit; you have to look at the interactions between all of the qubits to understand the state of subsets within the system.

The problem the team presented in the paper is not useful in the same sense that Shors algorithm is, but it can be mathematically described and is meaningful to quantum theory. The key point is that entanglement can be seen to be the root cause of the computational speedup.

We can talk about the same computational problem with a little bit of entanglement, and then a little bit more, and so on, said Fefferman. The exciting part is that when this entanglement reaches a certain threshold, we go from an easy problem for a classical computer to a provably hard problem. Entanglement seems to be causing the increased difficulty and quantum speedup. Weve never been able to show that in a problem like Shors algorithm.

This research is part of the first steps in the broader context of pinpointing quantum speedups.

The next step is trying to generalize this toy model to more practical systems of quantum computation, said Ghosh. We want to be able to understand what is causing speedups for the types of quantum computers that people are designing in real life and the type of processes that will be run using those computers.

Source: UChicago

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UChicago Scientists Make New Discovery Proving Entanglement Is Responsible for Computational Hardness In ... - HPCwire