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Quantum Machines and QuEra Computing Secure BIRD Foundation … – HPCwire

TEL AVIV, Israel and BOSTON, Nov. 7, 2023 Quantum Machines and QuEra Computing today announced they have been awarded an innovation grant from the Board of Governors of the Israel-U.S. Binational Industrial Research and Development (BIRD) Foundation to jointly develop a photonic control unit (PCU) to significantly accelerate the computational power of quantum computers today and in the future.

QuEra was one of the first to market with a neutral atom computing platform launched for public use on a large public cloud service in November 2022. QuEras Aquila-class quantum computers are 256-qubit devices built around a highly flexible programmable geometry approach that features a unique combination of system size, coherence, and an innovative analog quantum processing mode that provides new ways to solve machine learning, optimization, and simulation problems.

Quantum Machines delivers OPX1000, an advanced quantum controller that leads the industry across key performance metrics, including feedback capabilities, runtime, analog performance, and channel density. OPX1000 incorporates a unique Pulse Processor Unit (PPU) that integrates classical processing and control flow at the heart of a quantum control system, orchestrating quantum and classical operations from the same device. The PPU allows the implementation of complex quantum error corrections and error mitigation in real-time. Built to scale, the solution supports the need for managing increasing qubit counts in a way that is both economical and efficient.

The joint development of the PCU is based on QuEras advanced photonic microchips with co-designed optical peripherals driven by high-speed analog controllers from Quantum Machines. The PCU will be integrated into QuEras quantum computers and in Quantum Machines testing facilities and product lines. In addition to atoms, the PCU could also address ions, NV centers, and optically addressable spin qubits allowing true differentiation for scaling up optically driven systems. It will provide significant value to other quantum market segments utilizing lasers, including quantum computer manufacturers, quantum sensors, and communications devices.

We are honored to receive the BIRD Foundation grant with Quantum Machines, said Alex Keesling, CEO of QuEra. This collaboration represents an important opportunity to address another key hurdle to scaling quantum computers. By combining QuEras expertise in neutral atom qubits with Quantum Machines prowess in quantum control solutions, we expect to deliver groundbreaking innovation to the market.

Innovation is the driving force behind the quantum revolution, and we are excited to collaborate with QuEra Computing in pushing the boundaries of whats possible in quantum computing, said Itamar Sivan, co-founder and CEO of Quantum Machines. This award from the BIRD Foundation underscores our commitment to advancing the field and accelerating the realization of practical quantum computers.

About the BIRD Foundation

The BIRD Foundation (Binational Industrial Research and Development Foundation) works to encourage and facilitate cooperation between U.S. and Israeli companies in a wide range of technology sectors and offers funding to selected projects. The Foundation supports projects without receiving any equity or intellectual property rights from the participating companies or the projects themselves. BIRD funding is repaid as royalties from sales of products that were commercialized because of BIRD support. The Foundation provides funding of up to 50% of a projects budget, beginning with R&D and ending with the initial stages of sales and marketing. The Foundation shares the risk and does not require repayment if the project fails to reach the sales stage.

About Quantum Machines

Quantum Machines (QM) drives quantum breakthroughs that accelerate the realization of practical quantum computers. The companys Quantum Orchestration Platform (QOP) fundamentally redefines the control and operations architecture of quantum processors. The full-stack hardware and software platform is capable of running even the most complex algorithms right out of the box, including quantum error correction, multi-qubit calibration, and more. Helping achieve the full potential of any quantum processor, the QOP allows for unprecedented advancement and speed-up of quantum technologies as well as the ability to scale to thousands of qubits.

About QuEra

QuEra Computing is the leader in commercializing quantum computers using neutral atomswidely recognized as a highly-promising quantum modality. Based in Boston and built on pioneering research from nearby Harvard University and MIT, QuEra operates the worlds largest publicly-accessible quantum computer, available over a major public cloud and for on-premises delivery. QuEra is developing large-scale, fault-tolerant quantum computers to tackle classically intractable problems, becoming the partner of choice in the quantum field.

Source: QuEra

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D-Wave Reports its Q3 2023 Financial Results – Quantum Computing Report

D-Wave Quantum Inc. has reported its Q3 results and said it achieved revenue of $2.56 million in Q3 compared to $1.71 million in Q2 and $1.69 million a year ago in Q2 2023. Operating expenses decreased to $19.9 million in Q3 from the $21.6 million the company had in Q2 and compared to $16.2 million in Q2 2023. Adjusted EBITDA loss was $11.6 million versus $4.9 million in Q2.

The company ended the quarter with $53.3 million in cash, the highest balance ever held by the company. The company started the quarter with $7.5 million in cash but raise approximately $62 million in cash during the quarter primarily due to its Equity Line of Credit (ELOC) arrangement with Lincoln Park Capital Fund and its four year loan term agreement with PSPIB Unitas Investments II Inc. As of this writing the D-Wave stock price (QBTS) was at $0.72 and the company faces a delisting (for the second time) from the New York Stock Exchange because its price is below $1 per share. The company has six months to cure the deficiency.

On the commercial side, the company announced it has signed new and expanded deals with a number of customers during the quarter including BBVA, QuantumBasel, NTT Docomo, Poznan Superconducting and Networking Center, and Satispay. The company also continued to show continued increase in quarterly bookings versus 2022 as well as continued increase in deal size per booking.

The company also reported continued progress on the technical side including progress in its gate model quantum computer development program, enhancements to its Constrained Quadratic Model (CQM) hybrid solver, research on error mitigation techniques for its forthcoming Advantage2 annealer, SOC Type 2 compliance for protection of customer data, and other administrative and operational software improvements.

Additional information about D-Waves Q3 2023 financial results is available in a press release posted on their web site here.

November 11, 2023

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UK science minister announces quantum tech funding and … – ComputerWeekly.com

The government has announced 14m in funding for several quantum technology projects to drive forward its ambition of becoming a quantum-enabled economy by 2033, as set out in the National Quantum Strategy.

The funding, of which 10m has been allocated to six UK-based projects, is part of the 2.5bn the government is investing in developing quantum technologies over the next 10 years.

The six projects all aim to accelerate the development of components and systems for quantum network technologies, and include a project to deliver modular systems for connecting quantum processors into networks at scale, as well as Toshiba Europes project to develop high-bandwidth quantum-secure communications between satellite and ground networks.

Speaking at the UK National Quantum Technologies Showcase, science minister George Freeman announced a further 4m funding from Innovate UK for collaborative research and development (R&D) through UK-Canada partnerships, covering 11 projects to develop real-world quantum technologies for commercial use.

We have identified quantum as one of the five transformational technologies in which the UK is a global leader, which is why we have set out a 2.5bn, 10-year industrial strategy to support the quantum sector here in the UK, said Freeman.

Quantum is set to transform computing, imaging and sensing, cyber security and position, navigation and timing with major industrial applications from drug discovery to defence, fintech, and much more.

The government has also signed collaboration agreements with Australia and the Netherlands, which will see the countries work together on quantum R&D, commercialisation, investment and skills.

Freeman also said the National Quantum Computing Centres (NQCC) 30m competition will deliver a range of testbeds throughout the country, based on different hardware architectures, which will accelerate the development of scalable quantum computers.

The NQCC is collaborating with tech giant IBM, providing UK-based quantum computer users with priority access to IBMs machines.

Our partnership between the National Quantum Computing Centre and IBM will provide cloud quantum computing access for companies, agencies, national labs and other organisations to help boost UK quantum computing infrastructure, said Freeman.

Our 30m quantum testbed programme will build the worlds first quantum computing testbed to assess and benchmark machines. Our funding for collaborative programmes with the Netherlands and Canada is a sign of our commitment to develop global quantum standards and networks.

The government is also launching a quantum standards network pilot, aiming to ensure the country is at the forefront of establishing global standards. The goal is for the pilot network to become a centre that coordinates UK engagement with global standards.

The pilot network will be run by the National Physical Laboratory, in collaboration with the NQCC, the National Cyber Security Centre (NCSC), the Department for Science, Innovation and Technology (DSIT) and the British Standards Institution.

The quantum technology strategy, which was launched in March 2023, aims to ensure the UK is home to world-leading quantum science and engineering. It also aims to drive the adoption of quantum technologies in business and create a national and international regulatory framework.

Alongside its 2.5bn investment, the government hopes the strategy will generate an additional 1bn of private investment into the programme.

One of the key objectives is that, by 2033, all businesses in key sectors of the UK will be aware of the potential of quantum technologies, and 75% of relevant businesses will have taken steps to prepare for the arrival of quantum computing.

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Assistant Professor of Quantum Information Science job with Purdue … – Nature.com

Job Summary:The Departments of Physics & Astronomy, Chemistry, Computer Science, and Mathematics in the College of Science, and the Elmore Family School of Electrical and Computer Engineering in the College of Engineering at Purdue University invite applications for multiple faculty positions in Quantum Information Science (QIS) to begin August 2024. These positions will be assistant/associate professor level appointments. When appropriate, successful candidates may be considered for joint appointments across Departments or Colleges.

Quantum Information Science is at the frontier of several traditional research disciplines including but not limited to condensed matter physics, atomic, molecular, and optical physics, information theory, pure and applied mathematics, computer science, chemistry, electronics, photonics, and nanotechnologies. QIS strives to harness thedefining quantummechanical properties of superposition and entanglement to provide breakthrough advances for computing, sensing, secure communications, and novel device functionalities. As such, our QIS initiative is part of a large-scale interdisciplinary hiring effort across key strategic areas in Physics and Astronomy, Chemistry, Computer Science, Mathematics, and Electrical and Computer Engineering.

The College of Science is Purdues second-largest college, comprising the physical, computing, and life sciences. The College of Engineerings Elmore Family School of Electrical and Computer Engineering (ECE) is the largest academic unit at Purdue and the largest ECE department in the US. These new faculty positions come at a time when both Colleges leaderships have committed to significant investment in QIS. Both Colleges are especially seeking to enhance our existing strengths in research at the interface of physical sciences (Chemistry and Physics) in tandem with Computer Science and Mathematics, and Engineering through strategic hiring of creative scientists and engineers to be part of the cutting-edge interdisciplinary environment at Purdue University, which has recently launched a new major initiative, Purdue Computes, that supports and connects computing, AI, semiconductors and quantum. The QIS community at Purdue will further benefit from the resources and support in Purdue Universitys Discovery Park and its interdisciplinary centers, particularly the Purdue Quantum Science and Engineering Institute (PQSEI) and Birck Nanotechnology Center (BNC).

Target Areas:Experimental or theoretical studies in quantum computing, quantum sensing, quantum communication or other areas of quantum science and quantum technologies. Examples of targeted areas of interest include but are not limited to: Design, modeling, fabrication, and characterization of physical platforms for QIS. Synthesis and novel experimental probes of quantum materials and quantum matter. Quantum and quantum-inspired algorithms and their scientific or practical applications. Quantum related pure and applied mathematics such as quantum invariants, quantum algebra and quantum simulation. Algorithmic foundations and programming paradigms of quantum computing; fault-tolerant quantum computation and error correction; quantum cryptography; quantum information theory.

Qualifications:Candidates must have a PhD in physics, chemistry, computer science, mathematics, engineering, or other closely related field, with outstanding credentials that demonstrate potential to develop a vibrant independent research program, as well as a strong commitment to excellence in teaching. Successful candidates are expected to develop a vital and sustainable research program supported by extramural funding and teach courses at the undergraduate and/or graduate level.

The Departments and Colleges:The College of Science and College of Engineering and their departments and schools have launched initiatives in new emerging areas, and committed the resources necessary to make the new growth impactful. Under the QIS initiative and other related programs, over 12 new faculty members have been hired in the past 3 years in the College of Science and College of Engineering. To learn more please visit departmental websites: https://www.physics.purdue.edu

https://www.chem.purdue.edu, https://www.math.purdue.edu, https://www.cs.purdue.edu

https://engineering.purdue.edu/ECE.

Purdue itself is one of the nations leading land-grant universities, with an enrollment of over 49,000 students primarily focused on STEM subjects. For more information, see https://www.purdue.edu/purduemoves/initiatives/stem/index.php. The new Purdue Indianapolis campus may bring additional long-term opportunities based in Indianapolis.

Application Procedure

Applications need to be submitted to:

https://careers.purdue.edu/job-invite/28704/

and must include (1) a complete curriculum vitae, (2) a list of publications, (3) a statement of present and future research plans (4-page limit), and (4) a statement of teaching philosophy. The candidate should select an intended home department (from Physics and Astronomy, Chemistry, Mathematics, Computer Science, and Electrical and Computer Engineering) for the application (while successful candidates may be later considered for joint appointments involving additional departments when appropriate). In addition, candidates should arrange for at least 3 letters of reference to be sent to qissearch@purdue.edu. Questions regarding the positions and search may also be directed to qissearch@purdue.edu. Note there is also a concurrent search targeting senior (tenured associate/full professor level) appointments https://careers.purdue.edu/job-invite/28723/

Applications completed by January 5, 2024 will be given full consideration, although the search will continue until the position is filled. A background check is required for employment in this position.

Purdue University is an EEO/AA employer. All individuals, including minorities, women, individuals with disabilities, and veterans are encouraged to apply.

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B.C. quantum computer maker Photonic emerges from ‘stealth mode’ with $100-million and Microsoft deal – The Globe and Mail

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Founder and chief quantum officer, Stephanie Simmons, poses for a photograph at the Photonic Inc. lab in Coquitlam, B.C.Tijana Martin/The Globe and Mail

Canadas third entrant in the global race to build a quantum computer has emerged from stealth mode to reveal its technology, while announcing US$140-million ($193-million) in funding and unveiling a partnership with software giant Microsoft Corp.

Vancouver-based Photonic Inc. said Wednesday it plans to build a quantum computer using silicon chips that are networked with light, a relatively new approach that the seven-year-old startup said would enable the creation of marketable machines within five years.

What were bringing to the table is the fact that the network is the computer, Photonic founder and chief quantum officer Stephanie Simmons said in an interview.

The 120-person company said its collaboration with Microsoft would allow users to access its quantum system through Microsofts Azure cloud computing network. Krysta Svore, Microsofts vice-president of advanced quantum development, said unlike commercial agreements with other quantum computer makers operating on Azure, the Photonic deal is a co-innovation collaboration to promote quantum networking. Microsoft will offer Photonic as a preferred hardware provider for customers doing computational chemistry and material science discovery.

Microsoft MSFT-Q has also backed a US$100-million ($138-million) venture capital financing of Photonic also announced Wednesday alongside British Columbia Investment Management Corp., the British governments National Security Strategic Investment Fund, Inovia Capital, Yaletown Partners and Amadeus Capital Partners. Photonic previously raised US$40-million ($55-million) from investors including veteran technology executive Paul Terry, who became chief executive officer in 2019, and former Microsoft president Don Mattrick.

Inovia partner Shawn Abbott said hed watched the quantum computing space for 20 years before deciding to back Photonic. Ive felt others were too early for the 10-year life of a venture fund they were still science projects. Photonic is the first Ive seen with the potential to scale quickly into a full platform.

Photonics networking model is in keeping with what many in the field regard as a promising direction for scaling up quantum computers to commercial relevancy.

I think everybody in the industry has realized by now that networking is needed no matter what platform you think about, said Prem Kumar, a professor of electrical and computer engineering at Northwestern University in Evanston, Ill.

At stake is the prospect of a new kind of device that can easily outperform conventional computers at certain kinds of calculations. In principle, a quantum computer could break encryption codes used to protect financial information while providing a new form of impenetrable encryption. Quantum systems could also be used to predict the behaviour of molecules and help discover materials and drugs or optimize decision making in dynamic situations, from traffic grids to financial markets.

Quantum computers achieve such feats by replacing a conventional computers bits its 1s and 0s with qubits that have an indeterminate value until they are measured. When qubits are linked together through a phenomenon known as entanglement, these uncertainties can be harnessed to solve in mere seconds calculations that could tie up a regular computer for eons.

While some quantum systems operating today have reached the level of hundreds to more than 1,000 qubits, commercial quantum systems are expected to require millions.

Developers have explored a range of design options for creating such computers, but all come with technical hurdles. Those based on the physical properties of subatomic particles are easy to disturb, and their systems require extreme cooling to reduce vibrations. Those that use entangled particles of light, or photons, have the problem that light cannot be stored, and that photons can be lost while travelling through a fibre optic network.

Despite the challenges, startups and tech giants alike are in a global race to create a commercial quantum computer. A few companies, including Google and Torontos Xanadu Quantum Technologies, have proven their machines can achieve quantum advantage, by performing certain theoretical operations faster than existing computers. But while such demonstrations are regarded as milestones, they fall well short of the goal of building a practical quantum computer, in part because they lack fault tolerance the need for a quantum system to dedicate the majority of its qubits to correcting errors and providing reliable answers. They also arent close to performing tasks commercial customers would pay for.

Some quantum computing startups including D-Wave Quantum, Inc. of Burnaby, B.C., the first company to commercialize a limited form of quantum computer have tested the public markets, although demand has been limited. D-Wave, which went public last year, generated just US$3.2-million ($4.4-million) in revenue in the first half and racked up US$46.7-million ($64-million) in operating expenses. Its stock trades for pennies a share.

Photonic is the brainchild of Dr. Simmons, who grew up in Kitchener, Ont., and decided at 16 to devote her life to the field after learning of the creation of the Institute of Quantum Computing close by. I said, This has to be it, this must be the next wave, it will be so fun, the 38-year-old said.

She decided to build her own quantum computer while studying math and physics at the University of Waterloo after learning that the technology was still in its infancy. First she earned a PhD in material science at Oxford University, then studied electrical engineering at the University of New South Wales in Sydney. She moved to B.C. in 2015, believing Vancouver was the best place to recruit talent. She taught physics at Simon Fraser University and founded Photonic in 2016.

Dr. Simmons felt early quantum computer attempts werent working backwards from the long-term solution, which I thought was going to be a horizontally scalable supercomputer.

To achieve scalability, she opted to work with silicon chips, a well-understood material in the computer industry. The chips are cooled to one degree above absolute zero, or -273.15 C colder than deep space but a less demanding threshold than some kinds of quantum computers with qubits that must be kept even colder.

The Photonic systems qubits consist of tiny flaws within the silicon material whose quantum properties can be transmitted and manipulated using light. This opens the possibility of building up a distributed network of chips connected by optical fibres to perform quantum calculations instead of a single, large processor, as other developers have done.

Dr. Simmons said such a system would be able to exploit new approaches to error correction and produce a fault tolerant quantum computer. The bringing together of the networking and computational side of quantum technology has won support from investors in part because it addresses both how to reliably do calculations and how to convey information securely.

With Stefs architecture you get a 90-per-cent-plus efficiency of transferring the quantum state, Amadeus co-founder Hermann Hauser said. Thats why I think it will become the dominant quantum computing architecture.

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3 Quantum Computing Stocks To Make You The Millionaire Next Door – InvestorPlace

Have you ever wished you could go back in time and invest in trailblazing companies like Apple (NASDAQ:AAPL), Amazon (NASDAQ:AMZN), or Tesla (NASDAQ:TSLA) before they hit it big? Well, you may just have that chance again today with quantum computing stocks.

The futuristic field of quantum computing has faced some bumps on its road to mainstream adoption lately. The recent Nasdaq correction has hit many once-hot quantum computing stocks hard. But this correction also presents a golden buying opportunity for investors who take the long view.

Quantum computing may sound like science fiction, but its likely to become a commercial reality sooner than you think. Leading experts predict quantum computers will reach the tipping point of usefulness within this decade. When that happens, early investors could be richly rewarded.

The problem is, quantum computing technology is highly complex and many companies trading in this space have business models that are speculative. Were in the early innings of this technological revolution, so plenty of quantum stocks carry substantial risk.

However, the long-term growth prospects in quantum computing are too great to ignore. Quantum computing could drive massive progress in fields like AI, materials science, cryptography, and more. It could fundamentally reshape our digital infrastructure and lead to innovations we cant even imagine yet.

Scooping up promising quantum computing stocks now, while theyre under pressure and trading at a discount, could put you firmly on the path to long-term wealth creation. Lets dive in!

Source: josefkubes / Shutterstock.com

Of all the quantum computing stocks, Honeywell (NASDAQ:HON) strikes me as one of the safer yet potentially lucrative options for investors. Naturally, the quantum computing market is highly-volatile and speculative at this early stage. However, Honeywell has stood out from the pack thanks to its ties to the defense and aerospace industries. The company has been a prime beneficiary of higher defense spending in cutting-edge areas like aerospace and intelligence. With geopolitical tensions rising, Honeywells government business seems poised for further growth.

That said, Honeywell also has an intriguing pure-play quantum computing segment called Honeywell Quantum. Since its formation in 2021, Honeywell Quantum has quickly become a quantum computing leader. It recently became the first company to integrate quantum-computing-hardened encryption keys into smart meters for gas, water and electric utilities

While HON stock has sagged recently amid a broader market downturn (and a revenue miss in its latest quarter), I view this as a buying opportunity. At 20-times forward earnings, Honeywell seems attractively-priced, given its leading positions in must-have aerospace and defense technologies. The company generates mountains of recurring revenue and cash flow to support future R&D and growth initiatives like quantum computing. The company aims to launch a powerful quantum computer called Model H1 in 2023.

For a relatively low-risk play on the quantum computing revolution, Honeywell fits the bill nicely. The company offers stability from its government-contracted businesses, while also providing upside from emerging technologies like quantum computing.

Source: Shutterstock

If you desire a pure-play quantum computing stock, look no further than IONQ (NYSE:IONQ). Since going public, IONQ has emerged as one of the frontrunners in the quantum computing race. While very speculative, IONQ offers tantalizing growth potential.

IONQ has pioneered the use of trapped ions to construct quantum computers. This approach aims to minimize error rates and heating effects compared to rival technologies. The company uses ytterbium atoms suspended in electromagnetic fields for its qubits. Thus far, the results look highly promising.

Earlier this year, IONQ unveiled its next-generation quantum computer called Forte. With a planned 32 algorithmic qubits, it would be the worlds most powerful trapped ion-based quantum computer on the market. Previously, IONQs systems were only accessible via the cloud. However, Forte will also be available as an on-premise solution for select partners. This quarter, IONQ achieved a major milestone by reaching quantum volume 29.

Lets put the good news on the sidelines for now. There are a lot of caveats with this company, but my biggest problem with IONQ is unprofitability. Currently, its balance sheet held over $509 million in cash against $44 million in losses in the most recent quarter. Profitability remains years away, as product development costs weigh heavily on its bottom line.

Another big caveat for me is the stocks massive volatility. Unless you are okay with that sort of risk and are willing to hold for years, I would recommend you avoid pure plays like these and focus more on the two other stocks in this list.

Source: JHVEPhoto / Shutterstock.com

Back to the established giants on this list, IBM (NYSE:IBM) looks ideally positioned to capitalize on the commercialization of quantum computing. Indeed, if any company can make quantum computing mainstream, IBM seems like the top contender.

While much less speculative than pure plays, IBM still offers substantial upside potential, in my view. The company operates the IBM Quantum Network, which allows customers to access IBMs advanced quantum computing systems. Over 210 Fortune 500 companies leverage this network for research and education. As quantum computing grows more practical, IBMs massive customer base gives it an enormous head start over rivals.

Additionally, IBM continues pushing the boundaries on quantum computing performance. Last year, it unveiled its new Osprey processor, which has a quantum volume of 128, double its previous system. IBM aims to launch a 1,121-qubit quantum computer this year, more than doubling its power again. Indeed, IBM may very well become the first to develop quantum computers powerful enough for mainstream business and scientific use.

Besides its growth upside, IBM also offers safety. At just 16-times earnings, IBM is cheap compared to other large tech firms. It generates prodigious free cash flow to support both growing the quantum business and rewarding shareholders.

On the date of publication, Omor Ibne Ehsan did not have (either directly or indirectly) any positions in the securities mentioned in this article. The opinions expressed in this article are those of the writer, subject to the InvestorPlace.comPublishing Guidelines.

Omor Ibne Ehsan is a writer at InvestorPlace. He is a self-taught investor with a focus on growth and cyclical stocks that have strong fundamentals, value, and long-term potential. He also has an interest in high-risk, high-reward investments such as cryptocurrencies and penny stocks. You can follow him on LinkedIn.

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US lawmakers want to spend billions on quantum computers – The Register

The US House Committee on Science, Space, and Technology is concerned the United States could fall behind Russia and China if something isn't done to accelerate development of quantum computing systems.

As such the leaders of the panel chairman Frank Lucas (R-OK) and ranking member Zoe Lofgren (D-CA) have introduced a law bill to spend its way out of the problem.

Various technologists believe quantum computing has the potential to accelerate a variety of complex workloads ranging from the simulation of chemicals to advanced networking, route optimization, and advanced logistics. Some fear the technology could eventually render modern encryption useless though the jury is still out on that one. And other folk just think it'll never live up to the hype.

"Quantum technologies are actively changing our landscape, and we must ensure we are at the forefront, breaking down quantum barriers while leading with our democratic values," committee chairman Lucas declared in a statement warning of Chinese and Russian developments in this arena.

As we've previously reported, Russian and Chinese researchers are actively developing quantum computing test beds for research and development. Earlier this year, a Chinese group claimed to have brought a 176 qubit quantum computer online. The Russians' latest system is a fair bit smaller at 16 qubits though scientists claim to have used the system to model simple molecules.

According to lawmakers, while the US has maintained its lead in the theoretical physics underpinning quantum systems, rivals like China have managed to take the lead in quantum communications and are closing the gap in other areas. The committee contends that unless steps are taken to fuel US development of quantum systems, the Land of the FreeTM could fall behind.

The proposed House bill HR6213 [PDF] reauthorizes the Quantum Initiative Act signed into law by President Donald Trump in 2018.

It calls for the US government to take a number of specific steps to accelerate US development in quantum systems. Some are rather straightforward like working with allies to develop more advanced quantum systems, establishing a pipeline of skilled workers, roping NASA into quantum research efforts, and promoting commercialization of these technologies.

Other initiatives would see the creation of research and development centers under the National Institute for Standards and Technology (NIST), the creation of new quantum testbeds, and supply chains under agencies like the Department of Energy (DoE). The latter makes sense as quantum computers are increasingly being paired with conventional supercomputers of which the DoE operates some of the most powerful in the world.

To promote these initiatives, lawmakers are calling for some serious funding. Adding up the allowances for each of the initiatives [PDF], the bill calls for more than $3 billion between 2024 and 2028. A sizable chunk of that cash would be pulled from the $280 billion CHIPS and Science Act signed into law last year.

However, there's no guarantee that the bill will be passed by Congress in its current form.

To be clear, it's not like the US has been standing still on quantum development. Last month the Biden administration unveiled 31 regional tech hubs across the US to advance a variety of technologies and supply chains including quantum computing.

Back in February, Defense Advanced Research Agency (DARPA) announced the Underexplored Systems for Utility-Scale Quantum Computing (US2QC) program. The initiative, launched in collaboration with Microsoft, Atom, and PsiQuantum, wants to further the development of utility-scale quantum system designs.

Meanwhile, in the private sector we've seen a flurry of interest around quantum computing over the past few months. In May, IBM announced its plans to spend $100 million to build a 100,000 qubit "quantum-centric supercomputer" within a decade.

Last month Atom Computing touted the creation of a 1,180 qubit system. That may sound small compared to Big Blue's ambitions, but as Gartner analyst Matthew Brisse recently told The Register not all qubits are created equal. Factors like decoherence and the quality of the qubits themselves are often more significant in determining the power of a quantum system.

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IonQ Announces Third Quarter 2023 Financial Results – Yahoo Finance

Third Quarter Results of $6.1 Million in Revenue, Above High End of Range

2023 Full Year Revenue and Bookings Outlooks Increased Again

Third Quarter Bookings of $26.3 Million Bring Bookings to $58.4 Million Year-to-Date as of Q3

Announces $25.5 Million Quantum Networking System Sale to AFRL

Robust Commercial Pipeline Growth and Visibility

Achieves $100 Million in Cumulative Bookings Within First Three Years of Commercialization Efforts

Technical Momentum Continues Towards Commercial Advantage

COLLEGE PARK, Md., November 08, 2023--(BUSINESS WIRE)--IonQ (NYSE: IONQ), a leader in the quantum computing industry, today announced financial results for the quarter ended September 30, 2023.

"Our third quarter represents another massive step in a pivotal year for IonQ as we usher in the enterprise era of quantum computing. I am pleased to report we have achieved our goal of $100 million in cumulative bookings within the first three years of commercialization, since 2021, and are on track to exceed that goal by the end of 2023. IonQs commercial pipeline is bigger and better than ever and our technical momentum, while always arduous, continues to be ahead of schedule," said Peter Chapman, President and CEO of IonQ.

"This quarter, we saw further validation of our technology with another two systems sold in a $25.5 million deal from the US Air Force Research Lab (AFRL) to further explore quantum networking. We also unveiled our next two future generations of quantum computers: IonQ Forte Enterprise and IonQ Tempo. IonQ Forte Enterprise will bring #AQ 35 to customers in a form factor that integrates seamlessly into existing data centers. IonQ Tempo will deliver #AQ 64 and quantum advantage for certain applications."

Third Quarter 2023 Financial Highlights

IonQ recognized revenue of $6.1 million for the third quarter, which is above the high end of the previously provided range, and represents 122% growth compared to $2.8 million in the prior year period.

IonQ achieved $26.3 million in new bookings for the third quarter, and $58.4 million year-to-date as of September 30, 2023.

IonQ achieved its previously stated goal of $100 million in cumulative bookings within the first three years of its commercialization efforts, starting in 2021, a full quarter ahead of the initial prediction.

Cash, cash equivalents and investments were $485.1 million as of September 30, 2023.

Net loss was $44.8 million and Adjusted EBITDA loss was $22.4 million for the third quarter.* Exclusions from Adjusted EBITDA include a non-cash loss of $7.6 million related to the change in the fair value of IonQs warrant liabilities.

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*Adjusted EBITDA is a non-GAAP financial measure defined under "Non-GAAP Financial Measures," and is reconciled to net loss, its closest comparable GAAP measure, at the end of this release.

Commercial Highlights

Technical Highlights

IonQ announced at its September Analyst Day that it now believes it will be able to reach #AQ 64 and commercial advantage using error mitigationthe same technique the company is already employing todayrather than needing to implement full error correction. Error mitigation requires fewer qubits than error correction, and makes IonQ even more confident in the companys ability to reach #AQ 64 in the near-term.

IonQ achieved #AQ 29 on Next Generation Barium Qubits to Deliver Industry Leading Performance, marking a key milestone in the companys journey towards developing scalable and reliable systems capable of commercial quantum advantage.

IonQ intends to achieve an #AQ 64 system by the end of 2025. The company believes that in reaching this #AQ milestone, its systems will deliver quantum advantage for certain use cases and classical computers will no longer be able to fully simulate an IonQ system.

2023 Financial Outlook

For the full year 2023, IonQ is increasing its revenue outlook range to $21.2 million to $22.0 million.

For the fourth quarter of 2023, IonQ is expecting revenue of between $5.3 million and $6.1 million.

For the full year 2023, IonQ is increasing its bookings expectation range to between $60.0 million to $63.0 million.

Announcing Filing of S-3 Shelf Registration Statement

Tomorrow, the company intends to file a universal shelf registration statement on Form S-3 with the Securities and Exchange Commission (the "SEC").*

The company has no foreseeable needs to raise and use additional capital at this time, however would like to maintain the optionality to raise additional capital to fund strategic growth and M&A opportunities in the near to medium term.

*Any offer, solicitation or sale of any of the securities registered under the registration statement will be made only by means of the prospectus and the accompanying prospectus supplement once the registration statement is declared effective by the SEC. This announcement does not constitute an offer to sell or a solicitation of an offer to buy securities, nor may there be any sale of IonQs common stock or other securities in any state or jurisdiction in which such an offer, solicitation or sale would be unlawful prior to the effectiveness of the registration statement with the SEC and registration or qualification under the securities law of any state or jurisdiction.

Third Quarter 2023 Conference Call

IonQ will host a conference call today at 4:30 p.m. Eastern time to review the Companys financial results for the third quarter ended September 30, 2023 and to provide a business update. The call will be accessible by telephone at 877-300-8521 (domestic) or 412-317-6026 (international). The call will also be available live via webcast on the Companys website here, or directly here. A telephone replay of the conference call will be available approximately two hours after its conclusion at 844-512-2921 (domestic) or 412-317-6671 (international) with access code 10183201 and will be available until 11:59 p.m. Eastern time, November 22, 2023. An archive of the webcast will also be available here shortly after the call and will remain available for one year.

Non-GAAP Financial Measures

To supplement IonQs condensed consolidated financial statements presented in accordance with GAAP, IonQ uses non-GAAP measures of certain components of financial performance. Adjusted EBITDA is a financial measure that is not required by or presented in accordance with GAAP. Management believes that this measure provides investors an additional meaningful method to evaluate certain aspects of the Companys results period over period. Adjusted EBITDA is defined as net loss before interest income, net, interest expense, income tax expense, depreciation and amortization expense, stock-based compensation, change in fair value of assumed warrant liabilities, and other non-recurring non-operating income and expenses. IonQ uses Adjusted EBITDA to measure the operating performance of its business, excluding specifically identified items that it does not believe directly reflect its core operations and may not be indicative of recurring operations. The presentation of non-GAAP financial measures is not meant to be considered in isolation or as a substitute for the financial results prepared in accordance with GAAP, and IonQs non-GAAP measures may be different from non-GAAP measures used by other companies. For IonQs investors to be better able to compare the Companys current results with those of previous periods, IonQ shows a reconciliation of GAAP to non-GAAP financial measures at the end of this release.

About IonQ

IonQ, Inc. is a leader in quantum computing, with a proven track record of innovation and deployment. IonQs current generation quantum computer, IonQ Forte, is the latest in a line of cutting-edge systems, boasting an industry-leading 29 algorithmic qubits. Along with record performance, IonQ has defined what it believes is the best path forward to scale.

IonQ is the only company with its quantum systems available through the cloud on Amazon Braket, Microsoft Azure, and Google Cloud, as well as through direct API access. To learn more, visit http://www.ionq.com.

IonQ Forward-Looking Statements

This press release contains certain forward-looking statements within the meaning of Section 27A of the Securities Act of 1933, as amended, and Section 21E of the Securities Exchange Act of 1934, as amended. Some of the forward-looking statements can be identified by the use of forward-looking words. Statements that are not historical in nature, including the words "anticipate," "expect," "suggests," "plan," "believe," "intend," "estimates," "targets," "projects," "should," "could," "would," "may," "will," "forecast" and other similar expressions are intended to identify forward-looking statements. These statements include those related to the companys technology driving commercial advantage in the future, the companys future financial and operating performance, including our outlook and guidance, the ability for third parties to implement IonQs offerings to increase their quantum computing capabilities, the effect of increased availability of customer support functions, IonQs quantum computing capabilities and plans, access to IonQs quantum computers, increases in algorithmic qubit achievement, and the scalability and reliability of IonQs quantum computing offerings. Forward-looking statements are predictions, projections and other statements about future events that are based on current expectations and assumptions and, as a result, are subject to risks and uncertainties. Many factors could cause actual future events to differ materially from the forward-looking statements in this press release, including but not limited to: changes in the competitive industries in which IonQ operates, including development of competing technologies; changes in laws and regulations affecting IonQs business; IonQs ability to implement its business plans, forecasts and other expectations, identify and realize partnerships and opportunities, and to engage new and existing customers, and risks associated with U.S. government sales, including provisions that allow the government to unilaterally terminate or modify contracts for convenience and the uncertain scope and impact of a possible U.S. government shutdown or operation under a continuing resolution. You should carefully consider the foregoing factors and the other risks and uncertainties disclosed in the Companys filings, including but not limited to those described in the "Risk Factors" section of IonQs most recent Quarterly Report on Form 10-Q and other documents filed by IonQ from time to time with the Securities and Exchange Commission. These filings identify and address other important risks and uncertainties that could cause actual events and results to differ materially from those contained in the forward-looking statements. Forward-looking statements speak only as of the date they are made. Readers are cautioned not to put undue reliance on forward-looking statements, and IonQ assumes no obligation and does not intend to update or revise these forward-looking statements, whether as a result of new information, future events, or otherwise. IonQ does not give any assurance that it will achieve its expectations.

IonQ, Inc.

Condensed Consolidated Statements of Operations

(unaudited)

(in thousands, except share and per share data)

Three Months EndedSeptember 30,

Nine Months EndedSeptember 30,

2023

2022

2023

2022

Revenue

$

6,136

$

2,763

$

15,936

$

7,324

Costs and expenses:

Cost of revenue (excluding depreciation and amortization)

2,008

733

4,945

2,043

Research and development

24,599

13,292

60,701

30,282

Sales and marketing

5,047

1,969

11,289

5,971

General and administrative

13,927

10,149

35,438

26,901

Depreciation and amortization

2,749

1,531

6,869

4,248

Total operating costs and expenses

48,330

27,674

119,242

69,445

Loss from operations

(42,194

)

(24,911

)

(103,306

)

(62,121

)

Change in fair value of warrant liabilities

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Microsoft and Photonic join forces on the path to quantum at scale – Microsoft Azure Quantum Blog – Microsoft

We are excited to announce a strategic co-innovation collaboration with Photonic Inc., a company focused on building scalable, fault tolerant, and distributed quantum technologies. Our shared mission is to unlock the next stages in quantum networking and empower the quantum computing ecosystem with new capabilities enabled by our unique and complementary approaches to scalable quantum infrastructure.

By combining Photonics novel spin-photon architecture that natively supports quantum communication over standard telecom wavelengths with the global scale and state-of-the-art infrastructure of Azure, we will work together to integrate quantum networking capabilities into everyday operating environments. Together, we aim to deliver new technologies that will enable reliable quantum communication over long distances and accelerate scientific research and development with quantum computing devices to be integrated into Azure Quantum Elements.

We are thrilled about joining forces with Photonic in improving the world through quantum technologies. There is an opportunity to ignite new capabilities across the quantum ecosystem extending beyond computing, such as networking and sensing, and unlocking applications and scientific discovery at scale across chemistry, materials science, metrology, communications, and many other fields. The capabilities we aim to deliver with Photonic can enable this vision and bring about quantums impact far more quickly than otherwise possible.Jason Zander, Executive Vice President of Strategic Missions and Technologies, Microsoft.

Realizing this vision requires a fundamental capability: entanglement distribution over long distances. Photonics unique architecture is based on highly connected silicon spin qubits with a spin-photon interface. By using a qubit with a photon interface, this novel approach communicates using ultralow-loss standard telecom fibers and wavelengths. When paired with the Microsoft global infrastructure, platforms, and scale of the Azure cloud, this technology will integrate new quantum networking capabilities into everyday operating environments.

Together, Microsoft and Photonic will address three stages of quantum networking.

It will take a global ecosystem to unlock the full promise of quantum computing. No company or country can do it alone. Thats why were incredibly excited to be partnering with Microsoft to bring forth these new quantum capabilities. Their extensive global infrastructure, proven platforms, and the remarkable scale of the Azure cloud make them the ideal partner to unleash the transformative potential of quantum computing and accelerate innovation across the quantum computing ecosystem.Dr. Stephanie Simmons, founder and Chief Quantum Officer of Photonic, and the Co-Chair of Canadas National Quantum Strategy Advisory Board.

It is only through global collaboration and co-innovation that we will be able to empower people to unlock solutions to the biggest challenges facing our industries, and our world. Just like the cloud democratized access to supercomputersonce available only to governments, research universities, and the most resourced corporationswe are on a mission to engineer a fault-tolerant quantum supercomputing ecosystem at scale on Azure. We announced last June our roadmap to a Level 3 quantum supercomputer along with peer-reviewed research demonstrating that weve achieved our first milestone.

Scientific discovery is crucial to our global future, and we want to empower scientists today with the best available offerings in the ecosystem, which is why as part of our co-innovation collaboration we plan to integrate Photonics unique quantum hardware into our Azure Quantum Elements offering as it becomes available. Our collaboration with Photonic seeks to enable scientific exploration at Level 1, foundational quantum computing with a firm commitment to reach higher levels of resilience and scale on the path to quantum supercomputing in the future.

With Azure Quantum Elements, your quantum solutions will be completely integrated with high-value advancements in high-performance computing (HPC) and AI so you can transform your research and developmentprocesses today with the certainty that you will be ready to adopt quantum supercomputing at scale seamlessly in the future. You can sign-up for our Private Preview of Azure Quantum Elements now.

To learn more about how Microsoft and Photonic will be working together to advance the next stages of quantum networking and empower the quantum ecosystem with new capabilities,register for the January episodeof the Quantum Innovator Series.

Photonic is building a scalable, fault-tolerant and unified quantum computing and networking platform, uniquely based on proven spin qubits in silicon. Photonics platform offers a native telecom networking interface and the manufacturability of silicon. Headquartered in Vancouver, Canada, Photonic also has offices in the United States and the United Kingdom. To learn more about the company, visit their website.

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Security in the impending age of quantum computers – Help Net Security

Quantum computing is poised to be one of the most important technologies of the 21st century. With global governments having collectively pledged more than $38 billion in public funds for quantum technologies and $2.1 billion of new private capital flowing to quantum companies in 2022, quantum technologies, particularly quantum computers, are rapidly moving from the lab to the commercial marketplace.

By leveraging the principles of quantum mechanics, quantum computers have the potential to perform certain computations exponentially faster than classical computers. From drug discovery and modeling chemical reactions to optimization problems and emissions reduction, quantum computers are poised to revolutionize various industries and accelerate global scientific progress.

In addition to these use cases, quantum computing is particularly important to the cybersecurity community. Thats because a future quantum computer of sufficient size and efficiency could crack current encryption schemes and jeopardize all information and communications currently protected by such schemes (public-key encryption enables more than 4.5 billion internet users to securely access 200 million websites and engage in $3 trillion of retail ecommerce each year).

On the opposite side of that coin, certain quantum technologies can strengthen existing encryption and power an estimated $30 billion quantum cybersecurity market by the end of the decade.

Quantum technologies are, therefore both a sword and a shield for cybersecurity. Thus, organizations and governments must invest in quantum offensively and defensively to adequately protect our data from the threat that quantum computers pose to current encryption schemes and take advantage of extremely strong cybersecurity solutions over the long term.

Todays public key cryptography that secures much of our communications and data relies upon math problems that are extraordinarily difficult for classical computers to solve. But a quantum computer running a dedicated algorithm (such as Shors algorithm) will likely be able to extract the encryption key and decrypt the underlying data in a reasonable time interval. Thus, any system using public-key encryption will be vulnerable to an attack by a quantum computer.

The timeline for developing a cryptographically relevant quantum computer is highly contested, with estimates often ranging between 5 and 15 years. Although the date when such a quantum computer exists remains in the future, this does not mean this is a problem for future CIOs and IT professionals. The threat is live today due to the threat of harvest now, decrypt later attacks, whereby an adversary stores encrypted communications and data gleaned through classical cyberattacks and waits until a cryptographically relevant quantum computer is available to decrypt the information. To further highlight this threat, the encrypted data could be decrypted long before a cryptographically relevant quantum computer is available if the data is secured via weak encryption keys.

While some data clearly loses its value in the short term, social security numbers, health and financial data, national security information, and intellectual property retain value for decades and the decryption of such data on a large scale could be catastrophic for governments and companies alike.

To address this threat, the National Institute of Standards and Technology (NIST) has been working since 2016 to identify and select a set of cryptographic algorithms that are theoretically resistant to attacks from quantum computers and classical computers. NIST released draft standards for the first three algorithms in August 2023 and is currently accepting comments until November 22, 2023, before finalizing the standards in 2024.

We have seen significant action from the Legislative and Executive branches of the US government to push the public sector to migrate to post-quantum cryptography (PQC) algorithms as soon as they are standardized.

In May of 2022, President Biden released a national security memorandum (NSM-10) outlining efforts to protect US government assets from the quantum threat. NSM-10 states that the goal for the US federal government is to move the maximum number of systems off quantum-vulnerable cryptography within a decade of the publication of the initial set of standards.

In December of 2022, President Biden signed the Quantum Computing Cybersecurity Preparedness Act requiring federal agencies to migrate information technology systems to post-quantum cryptography. This will be impactful for government agencies as well as companies that do business with the federal government, especially those providing IT services.

Both government actions seek to align the federal government to the NIST PQC algorithms with a goal of completing as much of the migration as possible by 2035.

This is an aggressive timeline. Historically, major cryptographic transitions can take years and even decades to complete. Starting the migration process now gives organizations the chance to put in place protections before cryptographically relevant quantum computers become available. The PQC migration is likely to be a long and resource-intensive exercise and will require cryptographic agility to shift IT systems to the final standards, provide flexibility among the algorithms, and protect data with minimal disruption.

Although NISTs algorithms are not yet standardized and we likely remain years away from a cryptographically relevant quantum computer, the time is now to:

1) Begin inventorying cryptography systems that will be vulnerable to future quantum attacks2) Develop Quantum IQ across your organization by exploring the benefits and risks that quantum technologies will pose for your business3) Review the NIST post-quantum algorithms and create a strategy for cryptographic agility that will allow you to shift your systems to the final standards and protect your data with minimal disruption; and4) Identify partners established in the quantum ecosystem who can guide you through the transition to quantum-resilient cybersecurity while protecting data from both classical and quantum cyberattacks.

At Quantum World Congress James Kushmerick, director of the Physical Measurement Laboratory at NIST, stated the sooner we get this out, the better off well be whenever a cryptographically relevant quantum computer is developed. This will be a long process and government agencies and the private sector must begin the hard work of inventorying data and putting together a plan for PQC migration and cryptographic agility now to adequately prepare for the threat.

Cryptographic agility is particularly important given that one of the then-leading PQC candidates, Rainbow, was broken in 2022 by a laptop. While migrating to PQC algorithms is extremely important (and will likely be required for government agencies and their private sector contractors), these algorithms are still based on math problems and there is a chance that they may be cracked in the future, requiring new algorithms to be integrated. The ability to implement seamless updates will be important for organizations to maintain trust and ensure the integrity of cryptography, against threats both classical and quantum.

Additionally, cryptographic agility will provide organizations the freedom to assess and test quantum-leveraged cybersecurity solutions such as quantum-hardened keys and quantum key distribution (QKD) as part of an all of the above approach to cybersecurity in the quantum age.

As discussed above, PQC is a necessary start for cybersecurity in the quantum age. However, it is not a panacea to the threat posed by quantum computers.

Given the scale of the threat that future quantum computers are likely to pose to encryption, a defense in depth approach will be necessary. This layered approach will deploy PQC algorithms alongside tools that leverage quantum mechanics to offer stronger security guarantees. Such technologies include quantum computing-hardened and non-deterministic processes for encryption key generation and QKD.

Encryption keys are the basis of all cryptography and classical and PQC algorithms both rely on properly secured keys. One of the benefits of quantum is that it is fundamentally unpredictable and applying the power of quantum computers to harden encryption key generation can protect sensitive encrypted data and communications against current and emerging threats.

Furthermore, these provably unpredictable keys can maximize the resilience and lifetime value of existing critical technology infrastructures. Such quantum-computing-hardened keys are available today and offer a stronger alternative for key generation.

Rather than relying on math problems, QKD relies upon quantum mechanics to protect communications. With QKD it is possible to exchange a key and prove that it has not been intercepted by anyone as the attempt to measure the communication by a potential eavesdropper alters the quantum state. This guarantee will last forever, meaning that once a key is exchanged, it is safe, even if encryption algorithms are broken. Importantly, QKD protects against classical attacks such as man-in-the-middle attacks as well as attacks from a future cryptographically relevant quantum computer.

QKD is a complex technology that requires a significant amount of hardware and infrastructure to adequately generate the quantum states that make it valuable for the future of our cybersecurity. Researchers and industry are working to overcome these challenges and further commercialize and deploy QKD in the field, but its range and commercial implementation remains somewhat limited.

The National Security Agency (NSA) has issued guidance which did not recommend QKD technologies for securing the transmission of data in national security systems today. However, as the technology continues to advance, QKD has the potential to offer the next generation of cybersecurity and provide a uniquely quantum method for securing communications that will stand to greatly benefit military and civilian networks alike. When combined with PQC algorithms, these quantum-derived technologies can provide a layered approach to cybersecurity that further protects data and communications.

By considering how quantum-hardened encryption keys and QKD can fit into their quantum readiness strategy alongside PQC, organizations will be better prepared for that unknown day in the future when a cryptographically relevant quantum computer becomes available. These technologies are complementary rather than opposed to one another and are all critical pieces of the cybersecurity puzzle in the quantum age.

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Security in the impending age of quantum computers - Help Net Security

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