Archive for the ‘Quantum Computer’ Category

Device That Harvests Water From Air Named Top UMD Invention of … – Maryland Today

Conjuring water from thin air may seem like a trick, but a team of University of Marylandresearchers doesnt use a magic wand. In fact, the group doesnt even need electricity.

The teams inventiona solar-powered system which uses all-natural, partly plant-based materials to extract drinkable water from even the most arid of environmentshas the potential to fight water shortages around the world, and took top prize yesterday in the universitys annual Invention of the Year competition.

Along with other category winners, the award was announced at Innovate Maryland, a yearly celebration of UMD researchers creativity at translating incisive science into innovative, real-world products with the potential to address challenges around the globe.

They provide proof that the search for knowledge can spark an idea or invention that, in turn, can inspire change, improve lives and benefit humanity overall, Vice President for Research Gregory F. Ball said of this years 12 finalists. I firmly believe that no grand challenge is too daunting for our world-class researchers to confront head-on and work toward a solution.

In his remarks, President Darryll J. Pines emphasized the importance of resolve and perseverance in the pursuit of innovation.

It is risky and challenging and time-consuming, he said. But as your peers in these examples show, the potential rewards are limitless. Your inventions, your research and your ideas canand willchange the world. By harnessing the creativity and determination in this room, we can truly address the grand challenges of our time and make a better world for everyone.

Here are this years winners:

Overall/Physical Sciences Invention of the Year: Eco-Friendly Composite-Based Water Harvesting System From Air

As a result of growing populations, climate change, poor water management and geopolitical conflict, an estimated 87 countries will be in a state of water scarcity by 2050. While the technology exists to extract potable water from the atmosphere, current processes are not only expensive but energy-intensiveitself an environmental concern.

The A. James Clark School of Engineering researchersmechanical engineering Professor Teng Li, postdoctoral researcher Bo Chen and former Ph.D. student Shuangshuang Jinghave invented a low-cost, sustainable atmospheric water harvesting system that can be manufactured and set up nearly anywhere on Earth without need for electricity or complex process control. The technology is based on an all-natural, eco-friendly biomass-based composite that can pull water from air anywhere on the planet, including arid environments, powered solely by sunlight. The composite, a foam made of Earth-abundant cellulose and graphite, can absorb over 670% of its weight in water from the air with 90% relative humidity and quickly release 95% of absorbed water under sunlight irradiation in one hour.

Water is vital for life, yet about 10% of the world population lacks access to it, said Professor Teng Li. The atmosphere is a ubiquitous and abundant water reservoir, equivalent to 10% of the freshwater in all lakes on Earth. Our system makes use of that reservoir in a manner that is both efficient and sustainable.

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Device That Harvests Water From Air Named Top UMD Invention of ... - Maryland Today

WISeKey’s Semiconductors Subsidiary SEALSQ Technology and … – StreetInsider.com

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WISeKeys Semiconductors Subsidiary SEALSQ Technology and Services Provide Countries the Ability to Develop Their Own Semiconductor Personalization Centers

GENEVA May 4, 2023: WISeKey International Holding Ltd. (WISeKey) (SIX: WIHN, NASDAQ: WKEY), aleading global cybersecurity, AI, Blockchain, and semiconductors company, today announced that its wholly-owned subsidiarySEALSQCorp(SEALSQ) is offering countries via a PPP the technology and services the ability to develop their own semiconductors personalization centers. The objective of this initiative is to reduce dependency on semiconductors manufacturing and deployment of microchips.With the ongoing global shortage of semiconductors, countries around the world are realizing the importance of securing their supply chains for critical technologies. In response to this need, WISeKey via SEALSQ.com is offering a comprehensive solution that will enable countries to establish their own semiconductor personalization centers via a Public Private Partnership. These centers will provide local production and customization of SEALSQ microchips, reducing reliance on foreign suppliers and enhancing supply chain security."We are excited to offer this solution to countries looking to reduce their dependency on foreign semiconductor manufacturers via SEALSQ.com," said Carlos Moreira, CEO of WISeKey. "By establishing their own semiconductor personalization centers, countries can take control of their supply chains and ensure the security and reliability of their critical technologies."WISeKey via SEALSQ's solution includes a range of services and technology, including secure elements, root of trust, cryptographic keys, and hardware security modules. The company will provide the necessary hardware, software, and training to establish and operate the personalization centers, as well as ongoing support and maintenance.The solution is particularly relevant for industries such as automotive, aerospace, and health, where the need for secure and reliable microchips is critical. By establishing local personalization centers, countries can ensure that their industries have access to the necessary microchips, even during times of global shortage. The establishment of personalization centers will also create jobs and boost local economies. This initiative will not only enhance supply chain security, but also contribute to the economic development of participating countries.WISeKey via SEALSQ is currently in discussions with several countries regarding the establishment of semiconductor personalization centers. The company is committed to providing a comprehensive solution that meets the unique needs of each country. Earlier this year, WISeKey via SEALSQ started offering its Security Services and Semiconductors to IoT device manufacturers adopting Matter Protocol, the leading standard for smart home devices from the Connectivity Standards Alliance (CSA). WISeKeys Root Certificate Authority (CA) has been approved by the CSA for Matter device attestation and becomes a Product Attestation Authority (PAA).Matter, an industry-led effort of the CSA, brings together the world's leading manufacturers and service providers to achieve secure, reliable and seamless use of smart home devices. Matter enables IP-based networking and communication across smart home devices, mobile applications and smart home ecosystems. Matter devices offer consumers assurances of secure use through a consortium-led standard for authenticating device identity that only allows Matter-certified devices to connect to the network. Device attestation process allows existing Matter devices to locally confirm new ones when recognized by the local network, and quickly remove non-compliant devices when needed.

With the widespread adoption of Matter certification, the demand for semiconductors is expected to increase. This is because smart home devices require a range of semiconductors, including microcontrollers, sensors, and wireless communication chips. The implementation of Matter certification will lead to the development of more smart home devices, which will require the production and deployment of more semiconductors. Furthermore, as the smart home market continues to grow, the demand for semiconductors will increase. The global smart home market is expected to grow at a compound annual growth rate of 29.3% from 2020 to 2027, according to a report by Allied Market Research. This growth is driven by factors such as the increasing adoption of smart home devices, the rise in demand for energy-efficient devices, and the growing awareness of home security and safety.

SEALSQ is also making great progress on post quantum technology. The SEALSQ Post-Quantum engineering team has been able to carry both Kyber and Dilithium CRYSTAL quantum-resistant NIST selected algorithms and the appropriate APIs on the MS6003, a WISeKey Common Criteria EAL5+ Certified secure hardware platform powered by an ARMSC300 core and featuring an USB interface, thus creating the first Quantum-Resistant USB Token demonstrator. This demonstrator marks a substantial milestone for the QUASARS project and takes the team one step closer to achieving their goal of building a Post-Quantum Hardware Security Module and Root-of-Trust.

WISeKey, through SEALSQ, has taken affirmative steps to implement its QUASARS project. The QUASARS project, is a radically innovative solution, based upon the new WISeKey Secure RISC V platform that is paving the way for the Post Quantum Cryptography era, offering hybrid solutions compliant with ANSSIs (Agence nationale de la scurit des systmes dinformation, the National Cybersecurity Agency of France) recommendations. Of note, SEALSQ has received strong support from the French SCS (Secured Communicating Solutions) Cluster for its QUASARS project.

Post-Quantum Cryptography (PQC) refers to cryptographic methods that are secure against an attack by a quantum computer. As quantum computers become more powerful, they may be able to break many of the cryptographic methods that are currently used to protect sensitive information, such as RSA and Elliptic Curve Cryptography (ECC). PQC aims to develop new cryptographic methods that are secure against quantum attacks.

One example of a Post-Quantum technology is the lattice-based cryptography, a type of public-key cryptography based on the hardness of a mathematical problem called the Shortest Vector Problem (SVP) which is thought to be too difficult for a quantum computer to solve. Lattice-based cryptography can be used for tasks such as digital signatures, key exchange, and encryption.

Another example is code-based cryptography, which is based on the difficulty of decoding certain algebraic structures called error-correcting codes. These codes can be used to create digital signatures, key exchange, and encryption schemes that are secure against quantum attacks. It is worth noting that PQC is still in its early stages of development and there is ongoing research to identify and improve the most promising post-quantum techniques.

WISeKey is part of the National Institute of Standards and Technology (NIST) National Cybersecurity Center of Excellence (NCCoE) project, a new secure platform, that will help define best practices for performing trusted network-layer onboarding, and aid in the implementation and use of trusted onboarding solutions for IoT devices at scale.

Additional information on this consortium can be found at:http://www.nccoe.nist.gov/projects/trusted-iot-device-network-layer-onboarding-and-lifecycle-management.

About SEALSQ

SEALSQ is a wholly owned subsidiary of the WISeKey Group that focuses on developing and selling Semiconductors, PKI and Post-Quantum technology hardware and software products. Our Post-Quantum solutions include Post-Quantum microchips and devices that can be used in a variety of applications, from Multi-Factor Authentication devices, Home Automation, and IT Network Infrastructure, to Automotive, Industrial Automation and Control Systems.

Post-Quantum Cryptography (PQC) refers to cryptographic methods that are secure against an attack by a quantum computer. As quantum computers become more powerful, they may be able to break many of the cryptographic methods that are currently used to protect sensitive information, such as RSA and Elliptic Curve Cryptography (ECC). PQC aims to develop new cryptographic methods that are secure against quantum attacks. For more information, visitwww.sealsq.com.

About WISeKey

WISeKey (NASDAQ: WKEY; SIX Swiss Exchange: WIHN) is a leading global cybersecurity company currently deploying large scale digital identity ecosystems for people and objects using Blockchain, AI and IoT respecting the Human as the Fulcrum of the Internet. WISeKey microprocessors secure the pervasive computing shaping todays Internet of Everything. WISeKey IoT has an install base of over 1.5 billion microchips in virtually all IoT sectors (connected cars, smart cities, drones, agricultural sensors, anti-counterfeiting, smart lighting, servers, computers, mobile phones, crypto tokens etc.). WISeKey is uniquely positioned to be at the edge of IoT as our semiconductors produce a huge amount of Big Data that, when analyzed with Artificial Intelligence (AI), can help industrial applications to predict the failure of their equipment before it happens.

Our technology is Trusted by the OISTE/WISeKeys Swiss based cryptographic Root of Trust (RoT) provides secure authentication and identification, in both physical and virtual environments, for the Internet of Things, Blockchain and Artificial Intelligence. The WISeKey RoT serves as a common trust anchor to ensure the integrity of online transactions among objects and between objects and people. For more information, visitwww.wisekey.com.

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Disclaimer:This communication expressly or implicitly contains certain forward-looking statements concerning WISeKey International Holding Ltd and its business. Such statements involve certain known and unknown risks, uncertainties and other factors, which could cause the actual results, financial condition, performance or achievements of WISeKey International Holding Ltd to be materially different from any future results, performance or achievements expressed or implied by such forward-looking statements. WISeKey International Holding Ltd is providing this communication as of this date and does not undertake to update any forward-looking statements contained herein as a result of new information, future events or otherwise.This press release does not constitute an offer to sell, or a solicitation of an offer to buy, any securities, and it does not constitute an offering prospectus within the meaning of article 652a or article 1156 of the Swiss Code of Obligations or a listing prospectus within the meaning of the listing rules of the SIX Swiss Exchange. Investors must rely on their own evaluation of WISeKey and its securities, including the merits and risks involved. Nothing contained herein is, or shall be relied on as, a promise or representation as to the future performance of WISeKey.

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High-Performance Computing Market to Surpass USD 77.53 Billion … – GlobeNewswire

Pune, May 03, 2023 (GLOBE NEWSWIRE) -- The High-Performance Computing Market had a value of USD 45.87 billion in 2022 and is anticipated to attain a worth of USD 77.53 billion by 2030, growing at a compound annual growth rate of 6.78% between 2023 and 2030, as per SNS Insider.

Market Overview

High-Performance Computing (HPC) refers to the use of advanced computing technologies and systems to perform complex and data-intensive computations at a scale beyond what a typical computer can handle. HPC involves the use of multiple computing nodes working together in parallel to solve problems that require enormous computational power and memory. HPC systems are used in various industries such as scientific research, finance, engineering, healthcare, and weather forecasting, among others.

Market Analysis

The field of high-performance computing market is rapidly evolving, driven by a multitude of factors that are expected to shape the future of this industry. One key driver of HPC growth is the increasing demand for high-efficiency computing, as organizations across multiple industries seek to process vast amounts of data in real-time. The use of virtualization technologies is also contributing to HPC's expansion, allowing for the creation of highly scalable and agile computing environments that can adapt to changing needs. Another major factor driving the growth of the HPC industry is the continued diversification and expansion of the IT sector.

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Key Company Profile Listed in this Report are:

The major key players are Advanced Micro Devices Inc., NEC Corporation, Hewlett Packard Enterprise, Sugon Information Industry Co. Ltd, Intel Corporation, International Business Machines Corporation, Microsoft Corporation, Dell EMC (Dell Technologies Inc.), and Lenovo Group Ltd & Others.

Impact of Recession on High-Performance Computing Market Share

The impact of a recession on the high-performance computing market is complex and depends on various factors. During a recession, organizations often face budget constraints and may reduce their spending on technology, including HPC systems. This can result in a temporary slowdown in the growth of the HPC market. However, despite the economic downturns, the HPC market has shown resilience and even continued to grow during past recessions. This is because HPC systems play a crucial role in many industries, such as healthcare, finance, and scientific research, which are less susceptible to economic downturns.

High-Performance Computing Market Report Scope:

Key Regional Developments

The high-performance computing market has seen North America emerge as a dominant player, with a significant share of the market. This region has always been a leader in technology-based solutions and is expected to continue playing a crucial role in the global economy, particularly in the development and adoption of new technologies. With the ever-increasing need to handle and process vast amounts of raw data, the importance of having robust security measures in place cannot be overstated. North America's strong position in the market is a result of its robust infrastructure, favorable regulatory environment, and a highly skilled workforce.

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Key Takeaway from High-Performance Computing Market Study

Recent Developments Related to High-Performance Computing Market

Table of Contents

1. Introduction

2. Research Methodology

3. Market Dynamics

4. Impact Analysis

5. Value Chain Analysis

6. Porters 5 forces model

7. PEST Analysis

8. High-Performance Computing Market Segmentation, by Component

9. High-Performance Computing Market Segmentation, by Deployment

10. High-Performance ComputingMarketSegmentation, by Organization Size

11.High-Performance ComputingMarketSegmentation, by End-use

12. Regional Analysis

13. Company Profiles

14. Competitive Landscape

15. Conclusion

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SNS Insider is one of the leading market research and consulting agencies that dominate the market research industry globally. Our company's aim is to give clients the knowledge they require in order to function in changing circumstances. In order to give you current, accurate market data, consumer insights, and opinions so that you can make decisions with confidence, we employ a variety of techniques, including surveys, video talks, and focus groups around the world.

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High-Performance Computing Market to Surpass USD 77.53 Billion ... - GlobeNewswire

Do we live in a hologram? Why physics is still mesmerised by this idea – New Scientist

IN NOVEMBER 1997, a young physicist named Juan Maldacena proposed an almost ludicrously bold idea: that space-time, the fabric of the universe and apparently the backdrop against which reality plays out, is a hologram.

For many working in the fields of particle physics and gravity at the time, Maldacenas proposal was as surprising as it was ingenious. Before it was published, the notion of a holographic universe was way out there, says Ed Witten, a mathematical physicist at the Institute for Advanced Studies in Princeton (IAS), New Jersey. I would have described it as wild speculation.

And yet today, just over 25 years on, the holographic universe is widely revered as one of the most important breakthroughs of the past few decades. The reason is that it strikes at the mystery of quantum gravity the long-sought unification of quantum physics, which governs particles and their interactions, and general relativity, which casts gravity as the product of warped space-time.

Then again, you might wonder why the idea is held in such high regard given that it remains a mathematical conjecture, which means it is unproven, and that the model universe it applies to has a bizarre geometry that doesnt resemble our universe.

The answer, it turns out, is twofold. First, the holographic conjecture has helped to make sense of otherwise intractable problems in particle physics and black holes. Second, and more intriguing perhaps, physicists have finally begun to make headway in their attempts to demonstrate that the holographic principle applies to the cosmos we actually reside in.

Maldacena, now also at the IAS, was originally inspired by two separate branches of

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Do we live in a hologram? Why physics is still mesmerised by this idea - New Scientist

To Restrict, or Not to Restrict, That Is the Quantum Question – Lawfare

Innovation powerthe ability to invent, scale, and adapt emerging technologieswill determine which country prevails in the great power competition of the 21st century. Export controls accordingly assume a central position in the U.S. foreign policy toolkit, carrying the ability to significantly impact an adversarys innovation potential. In October 2022, the Biden administration introduced semiconductor, artificial intelligence, and supercomputing-related export controls on China and has since hinted that similar restrictions on other technologies, including quantum information science, may soon follow.

U.S. policymakers are right to identify quantum information science as a critical technology area ripe for restriction, but introducing export controls now is likely to cause more harm than good.

Establishing U.S. leadership in quantum information science, which includes the subfields of quantum computing, quantum sensing, and quantum communications, ranks among the Biden administrations highest national security priorities. Quantum technologies promise to dramatically increase computing power and speed, enabling machines to solve problems beyond the capacity of current-generation computers. They are also inherently dual use, meaning they can be applied to both military and civilian contexts.

The potential strategic advantages of quantum technologies are numerous and significant. Quantum-enabled countries could crack an adversarys encryption methods, build unbreakable communications networks, and develop the worlds most precise sensors. The first country to operationalize quantum technologies will gain the ability to threaten adversaries corporate, military, and government infrastructure more quickly than an adversary can establish effective defenses. Beyond the direct military applications, quantum technologies could further deliver significant economic advantages in a range of industries, from aerospace and defense to pharmaceuticals and automotive.

Given its strategic importance, quantum technology has become a focal point in the ongoing competition between Beijing and Washington. In line with the protect pillar of the Biden administrations two-pronged technology strategy, U.S. policymakers have already implemented a number of narrowly scoped export controls on quantum technology in an effort to safeguard critical U.S. technological advances.

Quantum sensing is the only general category of quantum information science with U.S. export controls in place. Unlike other quantum technology categories, the potential defense applications of quantum sensors are relatively clear and achievable in the near- to mid-term. Within the next five years, for example, China could leverage quantum sensors to enhance its counter-stealth, counter-submarine, image detection, and position, navigation, and timing (PNT) capabilities. China could additionally build quantum-enabled high-precision gravimeters, enhancing its ability to identify camouflaged objects, as well as deposits of oil and minerals.

Other existing U.S. quantum technology controls target specific end users, rather than general technology categories. In November 2021 and March 2022, the U.S. Department of Commerce added three Chinese and one Russian quantum technology organization to its Entity List for attempting to acquire U.S.-origin quantum technologies for military purposes. The organizations inclusion on the list subjects them to supplemental license requirements for the export or transfer of certain quantum products.

The war in Ukraine has led to an expansion of quantum technology restrictions. In September 2022, the U.S. Office of Foreign Assets Control (OFAC) prohibited Russian persons from receiving various quantum computing and cryogenic refrigeration services, including infrastructure, web hosting, data processing, computer systems integration design, and repair services. The ban does not apply to certain U.S.-owned or controlled entities located in Russia, nor to services provided in connection with the termination or divestiture of entities located in Russia.

In addition, the OFAC issued a separate determination that gives it the authority to designate any current or former operative in Russias quantum computing sector as a Specially Designated National. The assets of designated individuals or entities are frozen, and U.S. persons are generally prohibited from conducting any business or financial transactions with them.

While existing controls on quantum technology are relatively haphazard and disconnected, the White House is currently exploring a more unified and comprehensive round of controls intended specifically to blunt Chinas access to U.S. quantum computing equipment. When asked at a public event in October 2022 whether the Biden administration would subject quantum technology to additional export controls, Under Secretary of Commerce for Industry and Security Alan F. Estevez stated, If I were a betting person, Id put down money on that.

Forthcoming regulations on quantum technology could be structured in a variety of ways. U.S. policymakers could choose to expand existing controls targeting explicit end users and use cases, or they could opt for novel controls focused on quantum technology itself. I discuss these approaches in detail below.

U.S. policymakers could restrict the flow of quantum technologies to a broader base of end users, such as Chinas national laboratories, companies within the Chinese militarys supply chain, or companies accused of human rights abuses. This piecemeal approach mirrors existing controls on Russian and Chinese entities. It is a time- and resource-intensive endeavor, and leaves gaps that targeted entities can exploit to ultimately receive restricted items. Entity List designations, for example, do not capture subsidiaries unless such subsidiaries are specifically named as well. SenseTime, Chinas largest facial recognition startup, has leveraged this loophole to skirt the Biden administrations Oct. 7 export controls. Despite its inclusion on the Entity List, SenseTime reportedly bought advanced U.S. chips directly through its own subsidiaries in early 2023.

The effectiveness of the end user approach also hinges on multilateral support and cooperation. Unilateral U.S. export controlsmeasures taken without the approval or cooperation of other countriescould be effective in technology areas in which the U.S. maintains a decisive edge and unique capabilities. But multiple countries, including Singapore, Germany, the Netherlands, and Japan, are competitive in quantum technology. Unilateral U.S. controls thus afford foreign firms commercial incentives to backfill restricted technology to targeted entities.

Future controls could also focus on preventing adversaries application of quantum technologies to certain use cases, resembling existing controls on defense-relevant quantum sensors. U.S. policymakers might target quantum key distribution networks, which hold the potential to improve Chinas information security and multi-domain communications system. They may also take aim at quantum computers designed specifically to model nuclear materials or to augment Chinas nuclear command-and-control infrastructure.

All of this, however, is easier said than done. It is impossible to predict which quantum technologies will have immediate defense applications, and it is difficult to distinguish peaceful applications of quantum from military ones. This approach thus carries high intelligence requirements and demands processes that can quickly adapt to unexpected developments.

U.S. policymakers might alternatively pursue a new approach and target quantum technology itself. Policymakers could restrict entire integrated quantum systems, like functional quantum computers or quantum communications satellites, and the components required to build them. But a systems-level approach is currently difficult to impose. Few scalable quantum systems exist, and the technical benchmarks for characterizing their performance are still unfolding. China boasts that it possesses a 24-qubit quantum computer, for example, but quantum computers will likely require up to 1 million qubits to produce any meaningful real-world applications. Because existing quantum technologies remain at a low level of readiness, systems-level controls are not particularly necessary or impactful.

Narrower controls under a technology-centric framework could regulate specific quantum hardware and components. Similar to the United States recent export controls on graphics processing units, U.S. policymakers could restrict Chinas access to technologies that facilitate the refinement of qubit capacity, a necessary step toward the development of scalable quantum computers. Examples include quantum chips of a certain level of output or error correction rate, or specific types of processors that spatially separate qubits. Other potentially targetable assets include helium dilution refrigerators, cryogenic ion trap packages, and magneto-optical traps.

The challenge with a components-oriented approach is that there is currently no single supply chain for quantum, and the technology chokepoints are unclear. Quantum developers are pursuing at least 12 quantum computing modalities in parallel, each dependent on different critical components with very little overlap. For example, some modalitieslike superconducting qubitsrequire helium dilution refrigerators to function. Otherslike trapped-ion qubitsinstead rely on high-quality lasers and isotopically pure samples of various elements. Thus, the impact of blocking Chinas access to helium dilution refrigerators could be detrimental to its quantum development or completely irrelevant depending on which quantum computing modality prevails.

In short, each of the potential export control frameworks carry significant pitfalls and are unlikely to be effective in protecting the U.S.s strategic edge at this stage of development. Despite valid concerns about Chinas activity in the quantum sector, it is too early for export controls. The future trajectory of quantum technology is highly uncertain, and premature restriction carries more risk than reward.

Quantum information science is a field of international collaboration, and much of the top technical talent resides outside the United States. Export controls could limit the exchange of ideas, block U.S. scientists from accessing promising research and early-stage prototypes, and stifle the scientific advancement of quantum technology before it demonstrates any significant commercial benefit. Ill-timed export controls could stymie progress on a range of beneficial quantum computing applications, from drug design and discovery to financial fraud detection and port logistics optimization.

Export controls could also adversely affect the U.S. quantum industry. Many domestic quantum companies endured a sharp increase in interest rates in 2022 and lack clear revenue streams. Export controls could further diminish the already fragile financial health of the U.S. quantum startup environment, directly hindering Americas potential for innovation in the quantum sector.

Even export controls that specifically target China could prove counterproductive. China and the United States are each others top collaborators on quantum research. U.S. and Chinese-affiliated scientists co-authored several highly cited quantum publications in 2022. China also holds the highest number of patents across the full spectrum of quantum technology and currently leads in the development of quantum communications. Continued collaboration presents serious technology leakage, industrial espionage, and intellectual property risks that must be actively policed. But reducing cooperation now risks impeding U.S. innovation and losing visibility into Chinas research efforts.

U.S. outbound investment mechanisms may be better suited to address current challenges. Almost all quantum technology research and development in China is state controlled, but the countrys opaque private quantum technology ecosystem is growing slowly and appears to attract some U.S. investment. Screening tools, including the establishment of a mandatory notification regime for American investments in Chinas quantum technology sector, could offer policymakers a means to track the exchange of technology and expertise and monitor Chinas progress in the field.

Although export controls are not an immediately viable option, U.S. policymakers can take several steps to prepare for a future in which trade restrictions become more pertinent.

First, the Biden administration should clearly define its goals in quantum information science, which will inform the types of export controls it leverages down the road. The White House should consult with industry partners to determine which quantum technology areas carry the greatest economic potentialand consider whether leading across all quantum technology subsets is necessary to ensure U.S. national security. The goal-setting process will help direct U.S. research efforts, streamline resourcing, and identify areas ripe for future restriction. At this stage of development, a prudent guiding goal for quantum information science may involve ensuring U.S. influence over, and access to, every key part of the emerging quantum technology supply chain.

Second, the Biden administration should direct an organization to conduct quantum supply chain mapping on a continuous basis and resource it appropriately. The Quantum Economic Development Consortium and The Quantum Insider are well positioned to assume this responsibility. Many quantum startups lack the capacity to monitor supply chains themselves. White House-directed supply chain mapping can help mitigate the risk of dependence on competitor nations for critical quantum components and identify key bottlenecks as quantum technologies mature.

The Biden administration should also consider what level of supply chain dependence on allies and partners is acceptable for the United States. A completely domestic U.S. supply chain is prohibitively expensive and unrealistic given the number of potentially important components in play. The administration should leverage the Defense Production Act, as well as the Small Business Innovation Research and Small Business Technology Transfer programs, to boost domestic capacity for the production of quantum components that are deemed too sensitive to reside predominantly outside the United States. It should simultaneously develop an international forum to coordinate quantum technology supply chains with other leading quantum countries, including Australia, Canada, Finland, the Netherlands, Japan, and Israel.

Finally, U.S. policymakers need timely and accurate information about adversaries capabilities and intentions in order to determine when export controls on quantum technologies become necessary. They must therefore appropriately resource the intelligence community and the Department of Commerce to meet the quantum technology challenge.

U.S. government analysts working on quantum information science should develop metrics to assess the utility of export controls as the technology develops. The emergence of joint ventures between U.S. and Chinese state-linked quantum startups, for instance, might elevate the risks associated with open and collaborative research processes to an unacceptable level, introducing the need for greater oversight and regulation. Policymakers may also consider implementing export controls on quantum technologies once the U.S. secures a definitive lead over foreign competitors. Other useful metrics might illuminate Chinas efforts to commercialize quantum technologies, control the quantum market, or integrate quantum technologies into its national defense infrastructure.

Export controls are an increasingly useful tool to prevent adversaries acquisition of sensitive technology and advance U.S. security and economic interests. But they are not a silver bullet solution to U.S.-China technology competition and can even be counterproductive. Premature export controls could impede innovation and handicap U.S. companies. Export controls on quantum technologies may be necessary in the future but should serve as one component of a broader U.S. technology strategy, rather than an end in and of themselves.

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To Restrict, or Not to Restrict, That Is the Quantum Question - Lawfare