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Richard Feynman once said, If you think you understand quantum mechanics, then you dont understand quantum mechanics. While that may be true, it certainly doesnt mean we cant try. After all, where would we be without our innate curiosity?

To understand the power of the unknown, were going to untangle the key concepts behind quantum physics two of them, to be exact (phew!). Its all rather abstract, really, but thats good news for us, because you dont need to be a Nobel-winning theoretical physicist to understand whats going on. And whats going on? Well, lets find out.

Well start with a brief thought experiment. Austrian physicist Erwin Schrdinger wants you to imagine a cat in a sealed box. So far, so good. Now imagine a vial containing a deadly substance is placed inside the box. What happened to the cat? We cannot know to a certainty. Thus, until the situation is observed, i.e. we open the box, the cat is both dead and alive, or in more scientific terms, it is in a superposition of states. This famous thought experiment is known as the Schrdingers cat paradox, and it perfectly explains one of the two main phenomena of quantum mechanics.

Superposition dictates that, much like our beloved cat, a particle exists in all possible states up until the moment it is measured. Observing the particle immediately destroys its quantum properties, and voil, it is once again governed by the rules of classical mechanics.

Now, things are about to get more tricky, but dont be deterred even Einstein was thrown-back by the idea. Described by the man himself as spooky action at a distance, entanglement is a connection between a pair of particles a physical interaction that results in their shared state (or lack thereof, if we go by superposition).

Entanglement dictates that a change in the state of one entangled particle triggers an immediate, predictable response from the remaining particle. To put things into perspective, lets throw two entangled coins into the air. Subsequently, lets observe the result. Did the first coin land on heads? Then the measurement of the remaining coin must be tales. In other words, when observed, entangled particles counter each others measurements. No need to be afraid, though entanglement is not that common. Not yet, that is.

Whats the point of all this knowledge if I cant use it?, you may be asking. Whatever your question, chances are a quantum computer has the answer. In a digital computer, the system requires bits to increase its processing power. Thus, in order to double the processing power, you would simply double the amount of bits this is not at all similar in quantum computers.

A quantum computer uses qubits, the basic unit of quantum information, to provide processing capabilities unmatched even by the worlds most powerful supercomputers. How? Superposed qubits can simultaneously tackle a number of potential outcomes (or states, to be more consistent with our previous segments). In comparison, a digital computer can only crunch through one calculation at a time. Furthermore, through entanglement, we are able to exponentially amplify the power of a quantum computer, particularly when comparing this to the efficiency of traditional bits in a digital machine. To visualise the scale, consider the sheer amount of processing power each qubit provides, and now double it.

But theres a catch even the slightest vibrations and temperature changes, referred to by scientists as noise, can cause quantum properties to decay and eventually, disappear altogether. While you cant observe this in real time, what you will experience is a computational error. The decay of quantum properties is known as decoherence, and it is one of the biggest setbacks when it comes to technology relying on quantum mechanics.

In an ideal scenario, a quantum processor is completely isolated from its surroundings. To do so, scientists use specialised fridges, known as cryogenic refrigerators. These cryogenic refrigerators are colder than interstellar space, and they enable our quantum processor to conduct electricity with virtually no resistance. This is known as a superconducting state, and it makes quantum computers extremely efficient. As a result, our quantum processor requires a fraction of the energy a digital processor would use, generating exponentially more power and substantially less heat in the process. In an ideal scenario, that is.

Weather forecasting, financial and molecular modelling, particle physics the application possibilities for quantum computation are both enormous and prosperous.

Still, one of the most tantalising prospects is perhaps that of quantum artificial intelligence. This is because quantum systems excel at calculating probabilities for many possible choices their ability to provide continuous feedback to intelligent software is unparalleled in todays market. The estimated impact is immeasurable, spanning across fields and industries from AI in the automotive all the way to medical research. Lockheed Martin, American aerospace giant, was quick to realise the benefits, and is already leading by example with its quantum computer, using it for autopilot software testing. Take notes.

The principles of quantum mechanics are also used to address issues in cybersecurity. RSA (Rivest-Shamir-Adleman) cryptography, one of the worlds go-to methods of data encryption, relies on the difficulty of factoring (very) large prime numbers. While this may work with traditional computers, which arent particularly effective at solving multi-factor problems, quantum computers will easily crack these encryptions thanks to their unique ability to calculate numerous outcomes simultaneously.

Theoretically, Quantum key distribution takes care of this with a superposition-based encryption system. Imagine youre trying to relay sensitive information to a friend. To do so, you create an encryption key using qubits, which are then sent to the recipient over an optical cable. Had the encoded qubits been observed by a third party, both you and your friend will have been notified by an unexpected error in the operation. However, to maximise the benefits of QKD, the encryption keys would have to maintain their quantum properties at all times. Easier said than done.

It doesnt stop there. The brightest minds around the globe are constantly trying to utilise entanglement as a mode of quantum communication. So far, Chinese researchers were able to successfully beam entangled pairs of photons through their Micius satellite over a record-holding 745 miles. Thats the good news. The bad news is that, out of the 6 million entangled photons beamed each second, only one pair survived the journey (thanks, decoherence). An incredible feat nonetheless, this experiment outlines the kind of infrastructure we may use in the future to secure quantum networks.

The quantum race also saw a recent breakthrough advancement from QuTech, a research centre at TU Delft in the Netherlands their quantum system operates at a temperature over one degree warmer than absolute zero (-273 degrees Celsius).

While these achievements may seem insignificant to you and I, the truth is that, try after try, such groundbreaking research is bringing us a step closer to the tech of tomorrow. One thing remains unchanged, however, and that is the glaring reality that those who manage to successfully harness the power of quantum mechanics will have supremacy over the rest of the world. How do you think they will use it?

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How Quantum Mechanics will Change the Tech Industry - Unite.AI

Three of our gang, you see, were women. On our second morning, all three found their periods had kicked in. They were so charmed and amused by this that they forgot any possible cramps or migraines. This was, they told us ignorant men, menstrual synchrony" the tendency for women who live together to begin menstruating on the same day every month. In 1971, a psychologist called Martha McClintock studied 180 women in a college dormitory. Menstrual synchrony, she concluded then, was real.

Now, this really didnt apply that weekend in NYC, because these ladies had only spent one day together. Besides, more recent research has questioned McClintocks findings. Even so, those long-ago NYC days came back to me after reading about some even more recent research, at IIT Kanpur. Not about menstruation, but about synchronization, and in the quantum world.

Whats synchronization? Imagine an individual a bird, a pendulum doing a particular motion over and over again. The bird is flapping its wings as it flies, the pendulum is swinging back and forth. Imagine several such individuals near each other, all doing the same motion several birds flying together in a flock, several pendulums swinging while hanging from a beam. When they start out, the birds are flapping to their own individual rhythms, the pendulums going in different directions. But then something beautiful happens: these individual motions synchronize. The birds flap in perfect coordination, so the flock moves as one marvellous whole. The pendulums swing in harmony.

In fact, synchronization was first observed in pendulums. In 1665, the great Dutch scientist Christiaan Huygens attached two pendulum clocks to a heavy beam. Soon after, the two pendulums were in lockstep.

Similarly, fireflies are known to break into spontaneous synchrony. When there are just one or a few, they light up at different timesa pleasant enough sight, but nothing to write home about. But there are spots in the coastal mangroves of Malaysia and Indonesia where whole hosts of the little insects congregate every evening and suddenly, synchrony happens. They switch on and off in perfect unison, putting on a light show like none youve seen.

There are, yes, other examples. At a concert, the audience will tend to applaud in sync. The reason we only ever see one side of the Moon is that the orbital and rotational periods of the Moon have, over time, synchronized with the rotation of our Earth. Your heart beats because the thousands of pacemaker" cells it contains pulse in synchrony. Some years ago, a bridge of a new and radical design was built over the Thames in London. When it was opened, people swarmed onto it on foot. It quickly started swaying disconcertingly from side to side enough, in turn, to force the pedestrians to walk in a certain awkward way just to keep their footing. On video, youll see hundreds of people on the bridge, all walking awkwardly but in step.

In his book Sync: The Emerging Science of Spontaneous Order, the mathematician Steven Strogatz writes: At the heart of the universe is a steady, insistent beat: the sound of cycles in sync. It pervades nature at every scale from the nucleus to the cosmos." He goes on to observe that this tendency for synchronization does not depend on intelligence, or life, or natural selection. It springs from the deepest source of all: the laws of physics". And thats where IIT Kanpur comes in.

In 2018, a team of Swiss researchers looked at the possibility of synchronization at the lower end of that scale that Strogatz mentions, or in some ways even off that end of the scale. Do the most elementary, fundamental particles known to physicists exhibit the same tendency to synchronize as somewhat larger objects such as starlings and pendulums and the moon? Were talking about electrons and neutrons, particles that occupy the so-called quantum" world. Can we get them to synchronize?

They concluded that the smallest quantum particles actually cannot be synchronized. These exhibit a spin"a form of angular momentum, in a sense the degree to which the particle is rotating of 1/2 (half). But there are ways in which such spin-half" particles can combine to form a spin-1" system, and the Swiss team predicted that these combinations are the smallest quantum systems that can be synchronized.

So, a physics research group at IIT Kanpur decided to test this prediction. These are guys, I should tell you, who are thoroughly accustomed to working with atoms: One day in 2016, their professor, Dr Saikat Ghosh, took me into their darkened lab and pointed to a small red glow visible in the middle of their apparatus. Thats a group of atoms," he said with a grin, and then tweaked some settings and the glow dropped out of sight. The point? They are able to manipulate atoms. On another visit, they underlined this particular skill by showing me their work with graphene, a sheet of carbon that is get this one atom thick.

So, after the Swiss prediction, Ghosh and his students took a million atoms of rubidiuma soft, silvery metal and cooled them nearly to whats known as absolute zero", or -273 Celsius. Could they get these atoms to show synchrony?

Lets be clear about what they were dealing with, though. The usual objects that synchronize pendulums, birds are called oscillators" because they are in some regular, rhythmic motion. Strictly, it is that motion of the oscillators that synchronizes. But were dealing here with objects we can see, which means the rules of classical" physics apply. Quantum objects like atoms behave differently. In fact, Ghosh told me that spin-1 atoms are not really oscillating in the same sense as pendulums and starlings in flight. Still, with that caveat in place, there are ways in which we can abstract their motion and treat them as oscillators.

In their experiment, the IIT team shot pulses of light at the group of rubidium atoms. Light is made up of photons, which are like minuscule bundles of energy. When they hit an atom, they flip" its spin. Embodied in that flip is the photons quantum information; in a real way, the photons are actually stored in these flipped atoms. This happens with such precision that you can later flip the atoms back and release the photons, thus retrieving" the stored light. In fact, with this storage and retrieval behaviour, the atoms are like memory cells, and this is part of the mechanism of quantum computing. (See my column from October 2018, Catch a quantum computer and pin it down).

But when the atoms are flipped and they store these photons, something else happens to them. When the light is retrieved, the IIT team found it displays interference fringes" a characteristic pattern of light and shadow (similar in concept to what causes stripes on tigers and zebras, or patterns in the sand on a beach). From this fringe pattern, the scientists can reconstruct the quantum state the atoms were inand voil, theres synchrony.

Did each individual atom synchronize to the light and since all one million atoms did so, is that how they are synchronized with each other as well? Thats to be tested still, but its a good way to think of what happened. Again, take fireflies. In one experiment, a single flashing LED bulb was placed in a forest. When the fireflies appeared, they quickly synchronized to the flashing bulb, and therefore to each other. As Dr Ghosh commented: two fireflies synchronizing is interesting, but an entire forest filled with fireflies lighting up in sync reveals new emergent patterns."

There are implications in all this for, among other things, quantum computing. The IIT teams paper remarks; [The] synchronization of spin-1 systems can provide insights in open quantum systems and find applications in synchronized quantum networks." (Observation of quantum phase synchronization in spin-1 atoms, by Arif Warsi Laskar, Pratik Adhikary, Suprodip Mondal, Parag Katiyar, Sai Vinjanampathy and Saikat Ghosh, published 3 June 2020).

There will be other applications too. But over 350 years after Christiaan Huygens stumbled on classical" synchronization, the IIT team has shown for the first time that this strangely satisfying behaviour happens in the quantum world too. No wonder their paper was chosen recently for special mention in the premier physics journal, Physical Review Letters.

A round of applause for the IIT folks, please. I know it will happen in synchrony.

Once a computer scientist, Dilip DSouza now lives in Mumbai and writes for his dinners. His Twitter handle is @DeathEndsFun

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Opinion |Dance of the synchronized quantum particles - Livemint

Researchers at MIT have developed a process to manufacture and integrate "artificial atoms" with photonic circuitry, and in doing so, are able to produce the largest quantum chip of its kind.

The atoms, which are created by atomic-scale defects in microscopically thin slices of diamond, allow for the scaling up of quantum chip production.

RELATED: 7 REASONS WHY WE SHOULD BE EXCITED BY QUANTUM COMPUTERS

The new development marks a turning point in the field of scalable quantum processors, Dirk Englund, an associate professor in MITs Department of Electrical Engineering and Computer Science, explained in a press release.

Millions of quantum processors will be required for the oncoming, much-hyped advent of quantum computing. This new research shows there is a viable way to scale up processor production, the MIT team says.

The qubits in the newly-developed chip are artificial atoms made from defects in diamond. These can be prodded with visible light and microwaves, making them emit photons that carry quantum information.

This hybrid approach is described by Englund and his colleagues in a study published inNature.The paper details how the team carefully selected "quantum micro chiplets" that contained multiple diamond-based qubits and integrated them onto an aluminum nitride photonic integrated circuit.

In the past 20 years of quantum engineering, it has been the ultimate vision to manufacture such artificial qubit systems at volumes comparable to integrated electronics, Englund explained. Although there has been remarkable progress in this very active area of research, fabrication and materials complications have thus far yielded just two to three emitters per photonic system.

Using their hybrid method, Englund and his team successfully built a 128-qubit system. In doing so, they made history by constructing the largest integrated artificial atom-photonics chip yet.

Its quite exciting in terms of the technology, Marko Lonar, Tiantsai Lin Professor of Electrical Engineering at Harvard University, who was not involved in the study, told MIT News. They were able to get stable emitters in a photonic platform while maintaining very nice quantum memories.

The next step for the researchers is to find a way to automate their process. In doing so, they will enable the production of even bigger chips, which will be necessary for modular quantum computers and multichannelquantum repeaters that transport qubits over long distances, the researchers say.

Originally posted here:
MIT's New Diamond-Based Quantum Chip Is the Largest Yet - Interesting Engineering

CHICAGO, July 8, 2020 The Chicago Quantum Exchange, a growing intellectual hub for the research and development of quantum technology, has added to its community seven new corporate partners in computing, technology and finance that are working to bring about and primed to take advantage of the coming quantum revolution.

These new industry partners are Intel, JPMorgan Chase, Microsoft, Quantum Design, Qubitekk, Rigetti Computing, and Zurich Instruments.

Based at the University of Chicagos Pritzker School of Molecular Engineering, the Chicago Quantum Exchange and its corporate partners advance the science and engineering necessary to build and scale quantum technologies and develop practical applications. The results of their workprecision data from quantum sensors, advanced quantum computers and their algorithms, and securely transmitted informationwill transform todays leading industries. The addition of these partners brings a total of 13 companies in the Chicago Quantum Exchange to work with scientists and engineers at universities and the national laboratories in the region.

These new corporate partners join a robust collaboration of private and public universities, national laboratories, companies, and non-profit organizations. Together, their efforts with federal and state support will enhance the nations leading center for quantum information and engineering here in Chicago, said University of Chicago Provost Ka Yee C. Lee.

The Chicago Quantum Exchange is anchored by the University of Chicago, the U.S. Department of EnergysArgonne National LaboratoryandFermi National Accelerator Laboratory(both operated for DOE by UChicago), and theUniversity of Illinois at Urbana-Champaign, and includes theUniversity of Wisconsin-MadisonandNorthwestern University.

Developing a new technology at natures smallest scales requires strong partnerships with complementary expertise and significant resources. The Chicago Quantum Exchange enables us to engage leading experts, facilities and industries from around the world to advance quantum science and engineering, said David Awschalom, the Liew Family Professor in Molecular Engineering at the University of Chicago, senior scientist at Argonne, and director of the Chicago Quantum Exchange. Our collaborations with these companies will be crucial to speed discovery, develop quantum applications and prepare a skilled quantum workforce.

Many of the new industry partners already have ongoing or recent engagements with CQE and its member institutions. In recent collaborative research, spectrally entangled photons from a Qubitekk entangled photon source were transported andsuccessfully detectedafter traveling through one section of theArgonne quantum loop.

On another project, UChicago computer scientist Fred Chong and his students worked with both Intel and Rigetti Computing on software and hardware solutions. With Intels support, Chongs team invented a range of software techniques to more efficiently execute quantum programs on a coming crop of quantum hardware. For example, they developed methods that take advantage of the hierarchical structure of important quantum circuits that are critical to the future of reliable quantum computation.

Chicago Quantum Exchange member institutions engage with corporate partners in a variety of collaborative research efforts, joint workshops to develop new research directions, and opportunities to train future quantum engineers. The CQE has existing partnerships with Boeing; IBM; Applied Materials, Inc.; Cold Quanta; HRL Laboratories, LLC; and Quantum Opus, LLC.

The CQEs newest corporate partnerships will help further research possibilities in areas from quantum communication hardware, to quantum computing systems and controls, to finance and cryptography applications.

Jim Clarke, director of quantum hardware at Intel, looks forward to further collaborations with Chicago Quantum Exchange members.

Intel remains committed to solving intractable challenges that lie on the path of achieving quantum practicality, said Clarke. Were focusing our research on new qubit technologies and addressing key bottlenecks in their control and connectivity as quantum systems get larger. Our collaborations with members of the Chicago Quantum Exchange will help us harness our collective areas of expertise to contribute to meaningful advances in these areas.

The Chicago Quantum Exchanges partnership with JPMorgan Chase will enable the use of quantum computing algorithms and software for secure transactions and high-speed trading.

We are excited about the transformative impact that quantum computing can have on our industry, said Marco Pistoia, managing director, head of applied research and engineering at JPMorgan Chase. Collaborating with the Chicago Quantum Exchange will help us to be among the first to develop cutting-edge quantum algorithms for financial use cases, and experiment with the power of quantum computers on relevant problems, such as portfolio optimization and option pricing.

Applying quantum science and technology discoveries to areas such as finance, computing and healthcare requires a robust workforce of scientists and engineers. The Chicago Quantum Exchange integrates universities, national laboratories and leading companies to train the next generation of scientists and engineers and to equip those already in the workforce to transition to quantum careers.

Microsoft is excited to partner with the Chicago Quantum Exchange to accelerate the advancement of quantum computing, said Chetan Nayak, general manager of Microsoft Quantum Hardware. It is through these academic and industry partnerships that well be able to scale innovation and develop a workforce ready to harness the incredible impact of this technology.

Source: Chicago Quantum Exchange

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Chicago Quantum Exchange Welcomes Seven New Partners in Tech, Computing and Finance - HPCwire

LEESBURG, Va., July 08, 2020 (GLOBE NEWSWIRE) -- Quantum Computing Inc. (OTCQB: QUBT) (QCI), a technology leader in quantum-ready applications and tools, has introduced a new series of free webinars featuring the company’s Mukai quantum computing software execution platform and how it can solve real-world, constrained-optimization problems at breakthrough speed.

Session 1: The Value of QuOIR Running on the Mukai Platform; Use Cases and Examples Date: Tuesday, July 14 Time: 12 noon Eastern time (9:00 a.m. Pacific) Topics: This session will focus on the different ways Mukai can solve a variety of complex, real-world optimization problems faced by nearly every major company and government agency worldwide, including those involving logistics routing, drug design, and manufacturing scheduling.

The presenters will also review a recently published benchmark study showing how Mukai delivers superior performance for an important constrained-optimization problem compared to other solvers, producing best-in-class quality of results, time-to-solution and diversity of solutions running quantum computing software tools on classical computers (Intel® and AMD processor-based) .

Participants will learn about how the QuOIR constrained-optimization layer of the Mukai platform makes it easier to achieve this superior performance by automatically creating a QUBO that meets constraints as well as finds an optimal solution.

Sign up today to attend this event and discover how Mukai has brought us to the day when quantum-ready methods on classical systems can achieve greater performance compared to traditional classical methods.

Register today for Session 1 by clicking here.

Session 2: The Mukai How To’ Webinar Date: Tuesday, July 21 Time: 12 noon Eastern time (9:00 a.m. Pacific) Topics: This session will dive deeper into the functions and features of the Mukai quantum computing software execution platform, focusing on how developers and organizations can migrate their existing applications to quantum-ready solutions today and realize superior performance even when running their solutions on classical computers.

Participants will learn how they can get started with their free trial of Mukai, which the company officially launched last week. Learn how to use the Mukai API for calling a proprietary set of highly optimized and parallelized quantum-ready solvers that can execute on a cloud-based classical computer infrastructure and deliver differentiated performancefor many quantum-ready algorithms.

Mukai’s comprehensive software suite enables developers to create applications that can benefit from quantum advantage without needing to learn how to create quantum gate circuitsor create and embed a QUBO.

While quantum computing is typically a high-dollar investment given the sophisticated and costly hardware requirements, Mukai makes quantum application development affordable and scalable compared to running solutions on intermediate quantum computers, like those offered by D-Wave, Fujitsu, IBM and Rigetti.

Sign up today to attend this event and learning how Mukai’s unique functionality and breakthrough in performance has eliminated one of the greatest obstacles to the development and adoption of quantum-ready applications.

Register today for Session 2 by clicking here.

Your Webinar Host Steve Reinhardt, QCI’s VP of product development, will host the webinars. Recognized for being among the handful of top quantum software experts in the world, Reinhardt has built hardware and software systems that have delivered new levels of performance and analytic capability using conceptually simple interfaces. This includes Cray Research T3E distributed-memory systems, ISC Star-P parallel-MATLAB software, YarcData/Cray Urika graph-analytic systems, and apps and tools for D-Wave Systems’ annealing-based quantum computers.

Reinhardt has focused on graph analytics since 2003, developing graph-analytic core software and using it to solve end-user problems, particularly in cybersecurity. He currently leads the QCI product development team which is delivering today on the value proposition of quantum-ready applications and tools.

To learn more about the trial or webinars, please feel free to contact John Dawson at trial@QuantumComputingInc.com. You can also submit your inquiry here.

About Quantum Computing Inc. Quantum Computing Inc. (QCI) is focused on developing novel applications and solutions utilizing quantum and quantum-ready computing techniques to solve difficult problems in various industries. The company is leveraging its team of experts in finance, computing, security, mathematics and physics to develop commercial applications for industries and government agencies that will need quantum computing power to solve their most challenging problems. For more information about QCI, visit http://www.quantumcomputinginc.com.

Important Cautions Regarding Forward-Looking Statements This press release contains forward-looking statements as defined within Section 27A of the Securities Act of 1933, as amended, and Section 21E of the Securities Exchange Act of 1934, as amended. By their nature, forward-looking statements and forecasts involve risks and uncertainties because they relate to events and depend on circumstances that will occur in the near future. Those statements include statements regarding the intent, belief or current expectations of Quantum Computing (Company”), and members of its management as well as the assumptions on which such statements are based. Prospective investors are cautioned that any such forward-looking statements are not guarantees of future performance and involve risks and uncertainties, and that actual results may differ materially from those contemplated by such forward-looking statements.

The Company undertakes no obligation to update or revise forward-looking statements to reflect changed conditions. Statements in this press release that are not descriptions of historical facts are forward-looking statements relating to future events, and as such all forward-looking statements are made pursuant to the Securities Litigation Reform Act of 1995. Statements may contain certain forward-looking statements pertaining to future anticipated or projected plans, performance and developments, as well as other statements relating to future operations and results. Any statements in this press release that are not statements of historical fact may be considered to be forward-looking statements. Words such as may,” will,” expect,” believe,” anticipate,” estimate,” intends,” goal,” objective,” seek,” attempt,” aim to”, or variations of these or similar words, identify forward-looking statements. These risks and uncertainties include, but are not limited to, those described in Item 1A in the Company’s Annual Report on Form 10-K, which is expressly incorporated herein by reference, and other factors as may periodically be described in the Company’s filings with the SEC.

Mukai and QuOIR are trademarks of Quantum Computing Inc. Intel® is a trademark of Intel Corporation.

Company Contact Robert Liscouski, CEO Tel (703) 436-2161 info@quantumcomputinginc.com

Investor & Media Relations Contact Ron Both or Grant Stude CMA Investor Relations Tel (949) 432-7566 Email Contact

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QCI Hosts Webinar Series Featuring Optimizations that Deliver Quantum-Ready Solutions at Breakthrough Speed - Stockhouse