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Bitcoin bound | Columns | northstarmonthly.com – The North Star Monthly

Its been hyped since conception as a disrupter, a grass-roots currency backed by and beholden to no sovereignty for its value. Created by anyone with the technological capability to mine its possibilities, bitcoin has become a medium of exchange, increasingly accepted as cash. It has become a store of value, trading as a commodity on global exchanges. And now it has become a coin of the realm, adopted by El Salvador as its official currency.

El Salvador. Not the U.S., China, the European Union, India, or in fact any member of the G7, G8, or G20, not an economic power or exporter or a developed or wealthy nation. We would expect a groundbreaking change to come from such major players, and perhaps only after much deliberation, negotiation, and diplomacy, as with the creation of the euro, for example.

El Salvador is a country of only 6.5 million people, with another 2.5 million living abroad, due to many years of poverty, corruption, and war. After several decades of economic dependence on exports--first of indigo (dye) and then of coffee--El Salvador has been trying to recover by diversifying its economy. Now, the country exports more textiles, toilet paper, plastic lids, and flavored water.

Still, its economy depends most on remittances, on money sent home from Salvadorans living abroad: in a real sense, its major export is its labor force. In 2020, those remittances totaled about $6 billion, or about 25 percent of the nations GDP. And, according to the Salvadoran government, the ease of remittance transactions from abroad is a prominent reason to adopt bitcoin as its currency.

To launch this effort, the Salvadoran government is spending about $225 million, including distribution of $30 worth of bitcoin to everyone who adopts the governments official e-wallet app. Transactions of all kinds, and, presumably, all transactions can then be paid for using the app. This assumes, of course, that users have a smart phone and can afford internet access.

According to the Wall Street Journal, 80% of all citizens are skeptical, especially as the government will be privy to all transactions through its distributed wallet and app. Many are concerned about bitcoins volatility as a commodityit was down 17 percent in the day after El Salvadors announcementand thus its value. Many are concerned about potential hacking. And, as taxpayers, many are concerned about the governments large investment in the currency.

Bitcoin is not entirely new to El Salvador, with an estimated 35,000 current users, and the country has not used a currency of its own since 2001, when it adopted the USD as the official currency. But the Salvadoran government is the first to officially adopt a cryptocurrency as its legal tender.

Bitcoin famously evolved as a peer-to-peer currency, neither minted nor managed by any sovereign economy. Theoretically and historically, both were critical to controlling an economy and thus protecting its ability to generate wealth, so governments from earliest recorded history have hastened to do so.

The creation myth is well-known: in 2008, a paper appeared from an as-yet unidentified author, then an open-source app appeared, and the mining began. It spread globally, although not without pushback and attempts at regulation. China has outlawed cryptocurrency mining, for example, and others have tried to regulate and/or tax its use.

One major concern is that cryptocurrencies can be owned pseudonymously, that is, ownership is assigned to a bitcoin address, not a name. Thus, there is fear that cryptocurrencies can be quite conveniently used to move money by everyone from traffickers to terrorists to corrupt bureaucrats, easily evading regulated currency flows and traceable bank accounts, to say nothing of taxes.

This bottom-up currency (r)evolution has wide appeal to manyfrom academics to anarchists to venture capitalistsfor political, social, economic, and just practical transactional reasons, but because it happens outside of sovereign control, it has not, so far, appealed to governments. It is in keeping that the first government to officially embrace it operates with little global or even internal economic power. El Salvador has little to lose by ceding its currency sovereignty, especially since that sovereignty has been limited to choosing the US dollar.

Will the adoption of cryptocurrencies by other sovereignties accelerate now, or will this prove to be a misguided attempt at economic empowerment? The most developed economies, with the most to lose, will almost certainly be the last to the party, if indeed it continues. And if bitcoin fails as a sovereign currency, will that hasten its end or enhance its insurgent appeal?

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Bitcoin Is the Most Profound Iteration of the Internet, According to Chairman of Virgin Galactic – The Daily Hodl

Billionaire and business tycoon Chamath Palihapitiya says that Bitcoins network is the best version of the internet we have today.

In a new interview with CNBC, the CEO of Virgin Galactic says that big tech players such as Google and Facebook have dominated the first two versions of the internet by creating and organizing much of what people interact with online.

But Palihapitiya, a former executive of Facebook himself, believes that Bitcoin (BTC) and other decentralized peer-to-peer cryptocurrencies can change that.

[Web 3.0] is rebuilding all of that stuff without an obvious leader. Its completely headless. Its entirely peer-to-peer. And I think that thats both scary and exhilarating.

Palihapitiya also believes that Bitcoin is a great hedge against inflation and that it has essentially replaced gold.

Im very concerned about medium-term inflation. In an inflationary environment, in my very simplistic view of the world, I want to own three things: hypergrowth [assets] cash-generative assets and then I want to own non-correlated assets [such as BTC and Solana].

Despite previously predicting that BTC could reach a price of over $200,000, Palihapitiya now says he doesnt have a solid forecast for the token.

Its very hard for me sitting here to give you a price prediction, but I can pretty confidently say that Bitcoin, I think, has effectively replaced gold.

It will continue to do so. And so that market cap is just going to grow.

Bitcoin is trading at $43,423 at time of writing, according to CoinGecko.

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Ethereum will replace Bitcoin as the leading crypto network, claims Polygon co-founder – Cointelegraph

Sooner or later, ETH will outpace Bitcoin and become the global standard, said Polygon co-founder Sandeep Nailwal in an exclusive interview with Cointelegraph.

Nailwal believes that Ethereum will eventually become "the ultimate settlement layer" for the decentralized finance, or DeFi, space. Polygon will play a major role in ensuring the long-term success of Ethereum through its scalability solution. Despite increasing competition from other layer-one protocols, such as Solana, Nailwal believes it is still too early to talk about an Ethereum killer.

The Ethereum chain, because of its fundamentals, security, the level of decentralization, and the community and the trust that it has created as a chain over time, it is just beyond the reach of any other chain, he claimed.

According to the Polygon co-founder, Etheruem will eventually prove superior even to Bitcoin because it has a higher number of use cases. Nailwal believes that if Bitcoin doesnt expand its utility beyond the mere monetary system function, it may not survive in the long term as a layer-one protocol.

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Quantum computer company IonQ makes Wall Street debut – Financial Times

  1. Quantum computer company IonQ makes Wall Street debut  Financial Times
  2. Quantum computing company IonQ goes public via SPAC  Fast Company
  3. IonQ Becomes First Publicly Traded, Pure-Play Quantum Computing Company  HPCwire
  4. IONQ Stock: 7 Things to Know as Quantum Computing Firm IonQ Starts Trading  InvestorPlace
  5. UMD president: Quantum physics will revolutionize the DMV region | COMMENTARY  Baltimore Sun
  6. View Full Coverage on Google News

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‘Quantum computer algorithms are linear algebra, probabilities. This is not something that we do a good job of teaching our kids’ – The Register

Let's say, for the sake of argument, that quantum computers will exist in some useful fashion in the not too distant future.

And if that is the case, fundamental changes will be needed in education, supply chains, and national policies for us to use the machines to solve complex problems, panelists said a forum hosted by R Street Institute this week.

"We need ... to prepare people to think about computation in a fundamentally different way," said Chris Fall, senior advisor at the Center for Strategic and International Studies, during the discussion.

On conventional computers, information is encoded in strings of 0s and 1s, while in quantum computers, information is encoded in quantum bits that have a value of 0, 1, or a superposition of both states. This allows quantum computers to store much more information than a classic machine and process it in less time, in theory. There are limitations, such as the fact that they are unstable and prone to error despite efforts to address that, and may hit a wall if unprotected from background radiation. Encryption-breaking quantum computers are forever 15 years away.

Sorry, yes, we're assuming they will eventually work.

Google, D-Wave, IBM, Intel, Microsoft, Honeywell, and so on, are building qubits in different ways. Their goal is to build fault-tolerant machines that can run super-fast calculations by tempering qubit behavior and correcting errors introduced from the environment.

"The routine manipulation of the properties of single atoms in people's devices, devices, cars that is going to change everything. We don't have a full understanding of how that's going to happen." Fall said.

Starting now, education needs to be better for people to take advantage of the quantum processing breakthroughs as the hardware journey matures, the panelists said. Problem solving and algorithms will look very different in areas like finance and science, for example.

"The language of quantum algorithms are linear algebra and probabilities. This is not something that we do a good job of teaching our kids from a very early stage. That is kind of where we need to get started now," Fall said.

Quantum computing is a different problem-solving system and calculates differently from conventional computers, was the gist of the discussion.

Governments will need to drive change if quantum computing is a matter of national interest and public need, said Scott Friedman, a senior policy advisor of the House Homeland Security Committee.

Global legislation to protect semiconductor supply chains, like the CHIPS for America Act and Europe's Chips Act, needs to factor in quantum computing infrastructure, panelists said.

Most cryogenic refrigerators for quantum computers are made in Europe, and the United States needs to work with allies to secure those supply chains, said Allison Schwartz, global government relations and public affairs leader at quantum computer maker D-Wave Systems.

The government also needs to facilitate collaboration and bridge a gap between educators, developers, and scientists involved in algorithms and developing hardware, the panelists said.

The US introduced legislation called QUEST (Quantum User Expansion for Science and Technology) for increased access of quantum hardware and resources for research and further education. A National Quantum Initiative Act (NQI) was signed into law in 2018 to supercharge quantum computing development and research, but activity around these have stalled.

"The advisory committee for the NQI hasn't met in a while ... on the executive branch side. An easy next step to bring more focus in this area would be to convene that again and get broader input from the community," said Kate Weber, policy lead for quantum, robotics, and fundamental research at Google, which hopes to a build a fault-tolerant computer by 2030.

The moderator, R Street Institute senior fellow Miles Taylor, raised the idea of quantum computers creating sentient beings, much like the machines in the Terminator movies.

"I don't know if we're going to have a sentient computer," CSIS's Fall said, adding, "we're learning to manipulate single atoms at ... industrial scale. That's not a laboratory project. It'll change the world."

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Fujitsu and Osaka University Deepen Collaborative Research and Development for Fault-Tolerant Quantum Computers – HPCwire

TOKYO, Oct. 1, 2021 Osaka University and Fujitsu Limited today announced the establishment of the Fujitsu Quantum Computing Joint Research Division as a collaborative research division at the Center for Quantum Information and Quantum Biology (hereinafter QIQB) of Osaka University.

The newly-established research division will focus on the development of foundational technologies for fault-tolerant quantum computers, which are able to perform accurate calculations while correcting errors that occur in quantum bits (qubits). These efforts will draw on the respective strengths of the two partners, combining QIQBs advanced quantum error correction and quantum software technologies with Fujitsus applied knowledge in computing and quantum technologies.

More specifically, QIQB and Fujitsu aim to develop quantum software for fault-tolerant quantum computers with up to several thousand qubits as well as technologies to verify its error correcting operations.

Going forward, the two partners will strengthen their cooperation in R&D towards the realization of fault-tolerant quantum computing technologies to innovate solutions to complex societal problems through quantum technology.

Background

Quantum computers, which make use of the principles of quantum mechanics including quantum superposition states and quantum entanglement(1), offer the potential to one day revolutionize computing, significantly exceeding the capabilities of conventional computing technologies to perform high-speed calculations.

Fault-tolerant quantum computing, capable of accurate and large-scale high-speed calculations using error correction codes, may become a key technology especially in the fields of drug discovery and finance, which require a technology able to solve complex and large-scale problems at high speed.

In March 2020, Osaka University established QIQB in order to promote quantum information and quantum biology research, focusing on research in a wide range of fields ranging from quantum computing, quantum information fusion, quantum information devices, quantum communications and security, quantum measurement and sensing, and quantum biology.

QIQB has also been chosen as the main center for quantum software research in the field of quantum technology of the COI-NEXT program(2)of the Japan Science and Technology Agency (JST) and thus plays an important role in Japans strategy for quantum technology innovation.

Cooperating with domestic and overseas research institutes, Fujitsu has been engaged in full-scale research and development of quantum computing since 2020, aiming to further improve the performance of computing technologies.

Leveraging its quantum-inspired computing(3)solution Digital Annealer, which is designed to solve large-scale combinatorial optimization problems, Fujitsu is providing customers solutions in various fields like drug discovery and logistics.

In October 2020, Fujitsu started collaborative research(4)with Osaka University on quantum error correction. The establishment of the Fujitsu Quantum Computing Joint Research Unit will further strengthen R&D in fault-tolerant quantum computer systems.

Outline of the Joint Research

Name: Fujitsu Quantum Computing Joint Research Division

Location: Center for Quantum Information and Quantum Biology (QIQB), International Advanced Research Institute (IARI), Osaka University (Toyonaka City, Osaka Prefecture)

Research Period: October 1, 2021 to March 31, 2024

Research Contents: R&D of Quantum Software for fault-tolerant quantum computers

*Assuming a quantum computer with a scale of several thousand qubits, the joint division will research and develop an error correction algorithm able to restore the original information from faulty qubits, as well as technologies to evaluate the performance of this algorithm.

*In order to perform quantum computation using logical qubits(5)generated through quantum error correction codes, the joint division will focus on the R&D and implementation of a set of software solutions required from program input to the result output.With regard to future practical applications of this technology, the division will furthermore verify the operation of these solutions using a virtual machine environment to evaluate the effects of noise add up.

Roles and Responsibilities

Osaka University

Fujitsu

Future Plans

In order to contribute to the further development of quantum computing science and technology, Osaka University and Fujitsu will strengthen their cooperation with a variety of research institutions and companies. Through the practical application of the results of this joint research, the partners aim to contribute to an early practical application of quantum computing with the potential to drive innovations and create a sustainable society.

Osaka University and Fujitsu will also collaborate with related industries and academia to support the training of new human resources in the field of quantum technology.

All company or product names mentioned herein are trademarks or registered trademarks of their respective owners. Information provided in this press release is accurate at time of publication and is subject to change without advance notice.

About Osaka University

Osaka University was founded in 1931 as one of the seven imperial universities of Japan and is now one of Japans leading comprehensive universities with a broad disciplinary spectrum. This strength is coupled with a singular drive for innovation that extends throughout the scientific process, from fundamental research to the creation of applied technology with positive economic impacts. Its commitment to innovation has been recognized in Japan and around the world, being named Japans most innovative university in 2015 (Reuters 2015 Top 100) and one of the most innovative institutions in the world in 2017 (Innovative Universities and the Nature Index Innovation 2017). Now, Osaka University is leveraging its role as a Designated National University Corporation selected by the Ministry of Education, Culture, Sports, Science and Technology to contribute to innovation for human welfare, sustainable development of society, and social transformation. Website:https://resou.osaka-u.ac.jp/en.

About Fujitsu

Fujitsu is the leading Japanese information and communication technology (ICT) company offering a full range of technology products, solutions and services. Approximately 126,000 Fujitsu people support customers in more than 100 countries. We use our experience and the power of ICT to shape the future of society with our customers. Fujitsu Limited reported consolidated revenues of 3.6 trillion yen (US$34 billion) for the fiscal year ended March 31, 2021. For more information, please seewww.fujitsu.com.

Source: Fujitsu

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Fermilab on the trail for a new building block of matter and quantum computing power – Medill Reports Chicago – Medill Reports: Chicago

By Sarah Anderson and Yuliya KlochanMedill Reports

Researchers transported a gigantic electromagnetic ring from Brookhaven National Laboratory on Long Island to Fermilab near Chicago eight years ago in the search for a new building block of matter.While it wasnt the secret spaceship bystanders thought it was, it did allow scientists to explore fundamental questions about our universe.

The ring was needed to confirm an experimental result that had intrigued particle physicists for 20 years. The subject of the experiment was the muon, one of the 17 fundamental particles of nature. The muon has the same negative charge as an electron, but the mass of about 200 electrons. Muons behave like tiny spinning tops that generate their own magnetic field.

In 2001, scientists at Brookhaven National Laboratory measured the frequency at which muons rotated in an external magnetic field. This rotation frequency is used to calculate a g factora scaling constant that relates the magnetic strength and rotational momentum of the muon. The g factor is important because it can indicate the presence of other particles that block the muons interaction with the applied magnetic force.

The researchers observed that the experimental rotation frequency produced a g factor greater than the value predicted by the standard theoretical model of physics. The Standard Model accounts for all the known fundamental particles and forces of nature, so the Brookhaven result hinted at the existence of undiscovered particles or forces.

If these two numbers dont agree with each other, its the space in the middle where the new physics can lie, said Chris Polly, a senior scientist for the muon experiment at Fermilab.

Fermilab combined its muon-generating particle accelerator with Brookhavens electromagnetic ring to repeat Brookhavens initial experiment on a much larger scale. They again observed that the measured rotation frequency did not align with the theoretical g factor, suggesting that the Standard Model may need to be overhauled. There is only a 1 in 40,000 probability that the results differed by chance, providing further evidence of new physical forces or particles in the universe.

Maybe theres monsters lurking out there that we havent even imagined yet, Polly said.

As experimental physicists at Fermilab work to replicate this result, theoretical physicists across the world are using simulations to scrutinize their theoretical models. And they need powerful computers to do so.

Although its not yet ready to be used for the muon experiment, researchers at Fermilab are also working to develop technology for quantum computers that can solve such complex problems exponentially faster than standard computers.

Think of it this way. If someone gave you a list of locations and told you they had stashed a pile of cash at one of them, you would have no choice but to search one location, and then the next, and so on until you found it. Standard computers are subject to this same limitation. Just as you can only be in one place at a time, the system can only occupy one of two defined states (represented by the ones and zeroes you see in computer hacking movies) at a given moment.

But what if you could search many locations at the same time? Thats essentially what a quantum computer does. Its system can occupy multiple superimposed quantum states simultaneously, allowing the computer to consider many possible solutions to a problem at once.

It actually is extraordinarily valuable in terms of being able to traverse through the entire computation space much more rapidly than a traditional computer, said Akshay Murthy, a postdoctoral research associate at Fermilab.

Murthy and his colleagues are researching computer technology called superconducting qubits (quantum bits) that use electromagnetic radiation to access the higher-energy quantum states. Specifically, they are working to prolong the qubits coherence timethe amount of time that the system can live in the quantum space and perform calculations. Right now, were getting poofed out of the everywhere at once mode before we can find the cash. In fact, the coherence times of qubits need to be 1,000 to 1 million times longer before they can be used for quantum computing.

To extend coherence times, the team is examining the qubits under a powerful microscope and analyzing the chemical composition of their surfaces to look for any defects that might cause occupation of the quantum states to come crashing down prematurely. They are also exploring modifications that could be made to the external environment, such as shielding the qubit in a freezing cold chamber to prevent temperature fluctuations that might destabilize the system.

This technology is truly transformational if were able to deliver on its promises, Murthy said.

Sarah Anderson is a health, environment and science reporter at Medill and a Ph.D. chemist. Follow her on Twitter @seanderson63.Yuliya Klochan is a health, environment and science reporter at Medill.

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A Boulder Company Is Leading the Next Technology Revolution – 5280 – 5280 | The Denver Magazine

A Boulder Company Is Leading the Next Technology Revolution - 5280 Photo courtesy of Cold Quanta Compass

ColdQuanta is ready to take the next step in quantum computing.

Although still in their infancy, quantum computers are already big business, with IBM, Microsoft, Google, and state actors like China cumulatively investing billions to develop the superfast number crunchers. But ColdQuanta, a relatively tiny Boulder firm, may beat them all to a major milestone later this year: releasing a 100-qubit quantum computer.

That would be a big step toward quantum advantage (QA), the point at which these machines will be able to compute in seconds certain kinds of useful problems that would take traditional supercomputers thousands of years to solve. How? Where your laptop must try each possible solution in turn to find the answer, quantum computers can test solutions simultaneously. To do this, they swap bits for qubits made of atoms or subatomic particles chilled to just above absolute zero, where the laws of physics get freaky. While a bit can only be a one or a zero, heads or tails, qubits can be both heads and tails at once.

ColdQuantas advantage lies in how it chills those atoms. Unlike many of its competitors, who use bulky liquid helium refrigeration, ColdQuanta uses lasers and traps them in a sleek glass prism. The technique is so effective, says Paul Lipman, ColdQuantas president of quantum computing, that it may only take a few more years to reach the hundredsor even thousandsof qubits necessary to achieve QA. Once its realized, QA could accelerate scientific discovery, from modeling new cancer drugs on a molecular level to mapping the state of the universe seconds after the Big Bang.

This article appeared in the October 2021 issue of 5280.

Nicholas writes and edits the Compass, Adventure, and Culture sections of 5280 and writes for 5280.com.

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Quantum Computing in Manufacturing Market Still Has Room To Grow: International Business Machines, D-Wave Systems, Microsoft – Digital Journal

Latest Report Available at Advance Market Analytics, Quantum Computing in Manufacturing Market provides pin-point analysis for changing competitive dynamics and a forward looking perspective on different factors driving or restraining industry growth.

The global Quantum Computing in Manufacturing market focuses on encompassing major statistical evidence for the Quantum Computing in Manufacturing industry as it offers our readers a value addition on guiding them in encountering the obstacles surrounding the market. A comprehensive addition of several factors such as global distribution, manufacturers, market size, and market factors that affect the global contributions are reported in the study. In addition the Quantum Computing in Manufacturing study also shifts its attention with an in-depth competitive landscape, defined growth opportunities, market share coupled with product type and applications, key companies responsible for the production, and utilized strategies are also marked.

Key players in the global Quantum Computing in Manufacturing market:

International Business Machines (United States), D-Wave Systems (Canada), Microsoft (United States), Amazon (United States), Rigetti Computing (United States), Google (United States), Intel (United States), Honeywell International (United States), Quantum Circuits (United States), QC Ware (United States), Atom Computing, Inc. (United States), Xanadu Quantum Technologies Inc. (Canada), Zapata Computing, Inc. (United States), Strangeworks, Inc (United States)

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Quantum computing is the computing technique that uses the collective resource of quantum states, Some of them main resources are superposition and entanglement, to perform computation. As these are able to execute quantum computations that is why it also called quantum computers. Quantum computing harnesses the phenomena of quantum mechanics to deliver a huge leap forward in computation to solve certain problems. Quantum computing is an area of study focused on the development of computer-based technologies centered on the principles of quantum theory.

On 12 February 2021 To further progress into the quantum age, various projects are in the works to take computing to the next level. After forming a consortium in December, EU stakeholders have launched an effort to supercharge quantum processor production.

Whats Trending in Market?

Integration With Advance Technologies

What are the Market Drivers?

Raising Deposal Income

The Global Quantum Computing in Manufacturing Market segments and Market Data Break Down are illuminated below:

by Application (Simulation & Testing, Financial Modeling, Artificial Intelligence & Machine Learning, Cybersecurity & Cryptography, Other), Component (Quantum Computing Devices, Quantum Computing Software, Quantum Computing Services)

The study encompasses a variety of analytical resources such as SWOT analysis and Porters Five Forces analysis coupled with primary and secondary research methodologies. It covers all the bases surrounding the Quantum Computing in Manufacturing industry as it explores the competitive nature of the market complete with a regional analysis.

Have Any Questions Regarding Global Quantum Computing in Manufacturing Market Report, Ask Our [emailprotected]https://www.advancemarketanalytics.com/enquiry-before-buy/179263-global-quantum-computing-in-manufacturing-market

The Quantum Computing in Manufacturing industry report further exhibits a pattern of analyzing previous data sources gathered from reliable sources and sets a precedent growth trajectory for the Quantum Computing in Manufacturing market. The report also focuses on a comprehensive market revenue streams along with growth patterns, Local reforms, COVID Impact analysis with focused approach on market trends, and the overall growth of the market.

Moreover, the Quantum Computing in Manufacturing report describes the market division based on various parameters and attributes that are based on geographical distribution, product types, applications, etc. The market segmentation clarifies further regional distribution for the Quantum Computing in Manufacturing market, business trends, potential revenue sources, and upcoming market opportunities.

The Quantum Computing in Manufacturing market study further highlights the segmentation of the Quantum Computing in Manufacturing industry on a global distribution. The report focuses on regions of LATAM, North America, Europe, Asia, and the Rest of the World in terms of developing market trends, preferred marketing channels, investment feasibility, long term investments, and business environmental analysis. The Quantum Computing in Manufacturing report also calls attention to investigate product capacity, product price, profit streams, supply to demand ratio, production and market growth rate, and a projected growth forecast.

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In addition, the Quantum Computing in Manufacturing market study also covers several factors such as market status, key market trends, growth forecast, and growth opportunities. Furthermore, we analyze the challenges faced by the Quantum Computing in Manufacturing market in terms of global and regional basis. The study also encompasses a number of opportunities and emerging trends which are considered by considering their impact on the global scale in acquiring a majority of the market share.

Some Point of Table of Content:Chapter One: Report OverviewChapter Two: Global Market Growth TrendsChapter Three: Value Chain of Quantum Computing in Manufacturing MarketChapter Four: Players ProfilesChapter Five: Global Quantum Computing in Manufacturing Market Analysis by RegionsChapter Six: North America Quantum Computing in Manufacturing Market Analysis by CountriesChapter Seven: Europe Quantum Computing in Manufacturing Market Analysis by CountriesChapter Eight: Asia-Pacific Quantum Computing in Manufacturing Market Analysis by CountriesChapter Nine: Middle East and Africa Quantum Computing in Manufacturing Market Analysis by CountriesChapter Ten: South America Quantum Computing in Manufacturing Market Analysis by CountriesChapter Eleven: Global Quantum Computing in Manufacturing Market Segment by TypesChapter Twelve: Global Quantum Computing in Manufacturing Market Segment by Applications

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Judith Olson, Senior Physicist at ColdQuanta, Named Next Generation Leader of the Year at Women in IT Awards – HPCwire

BOULDER, Colo., Oct. 1, 2021 ColdQuanta, the leader in Cold Atom Quantum Technology, announced that Judith Olson, Head of the Atomic Clock Division and Senior Physicist, was named Next Generation Leader of the Year by theWomen in IT Awardsheld inNew YorkonSeptember 21, 2021.

According to the Women in IT Awards, Our 2021 winner demonstrated leadership that has been instrumental in guiding the team to reach new milestones, including taking existing techniques from the research and testing phase, into the field. In doing so, she was able to secure funding and awards to further develop this capability. Judith is breaking down barriers in her space, she serves as a thought leader in a male-dominated discipline, her work is respected, and she speaks on the subject matter to global audiences.

Olson spearheads ColdQuantas Atomic Clock Division. Atomic clocks are a key piece of technology that reduces the reliance on GPS, which is vulnerable to security threats and loss of signal. Under Judiths leadership, ColdQuanta will deliver atomic clocks that enable new capabilities in positioning and communications for use in industries such as aerospace and defense.

Judiths work continues to be of vital importance to ColdQuanta and the industry at large, saidScott Faris, CEO of ColdQuanta. Her leadership has been instrumental in guiding the team to reach new milestones, including taking existing atomic and optical techniques from the laboratory into the field.

The Women in IT Awards also recognized Olson for her mentorship, stating, She is also a mentor and has created a community via monthly events that she facilitates and is actively involved in community tutoring and STEM outreach events. She understands the power of diversity within companies, especially in leadership ranks. She is showing young women what is possible in the world of science by breaking down stereotypes of how a leader should act, feel, speak and look in the workplace. She has most certainly laid the groundwork for other diverse candidates entering the organization and this field of expertise.

About ColdQuanta

ColdQuanta is the leader in Cold Atom Quantum Technology, the most scalable, versatile, and commercially viable application of quantum. The company operates three lines of business Quantum Computing, Devices and Machines, and Quantum Research-as-a-Service. The Quantum Computing division is developing the launch ofHilbert1.0, a cloud-based 100 qubit quantum computer. The Devices and Machines division provides products for quantum computing companies and quantum lab environments. Quantum Research-as-a-Service supports the government and enterprises in developing quantum inertial sensing, radio frequency receivers, and networking technologies, including high precision clock prototypes. ColdQuanta is based inBoulder, CO, with offices inMadison, WisconsinandOxford, UK. Find out more atwww.coldquanta.com.

Source: ColdQuanta

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