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Quantum Computing Inc.’s Reservoir Quantum Computer to Demonstrate ‘the Power of Artificial Intelligence’ via Partnership with millionways AI – Yahoo…

LEESBURG, Va., April 27, 2023 /PRNewswire/ -- Quantum Computing Inc. ("QCI" or the "Company") (NASDAQ: QUBT), a first-to-market full-stack photonic-based quantum computing and solutions company, today announced the signing of a Memorandum of Understanding with AI firm millionways to demonstrate the power of artificial intelligence when combined with Quantum Computing Inc.'s Reservoir Quantum Computing (RQC).

The goal of the partnership is to explore and determine the business value of the combination of millionways' AI algorithms and QCI's existing RQC systems using audio files to produce an emotional scoring capability. If successful, the companies will develop a joint marketing and business development plan to pursue commercial opportunities.

millionways, a New York City based technology firm, is a leader in the development of AI algorithms used to effectively provide next-gen feedback to users on their emotional IQ and personality insights. Emotionally-intelligent AI can be continuously fed with speech entries like a diary, recognizing patterns and unconscious moods within speech and returns individual personality analysis to the user based on science and empathy. Currently, millionways' progressive emotionally-intelligent AI platform develops algorithms utilizing various forms of text, similar to others in the marketplace today. However, the real breakthrough for the AI platform is expected to occur when its emotionally-intelligent platform can respond to voice. QCI's RQC can process audio files and enable the emotional intelligence to directly process a whole new medium of voice, creating applications that will expand AI into useful business and personal consumer uses.

"This is the first joint commercial application of our reservoir computing technology. Over the past few months, we have done lots of internal tests on our systems, which has built our confidence in the opportunity of transforming the world of AI with quantum," stated Robert Liscouski, QCI's CEO. "The market is already familiar with what ChatGPT and other AI algorithms can do with classical computers. Using our unique quantum photonic hardware tailored to accelerate AI applications by addressing existing and emerging challenges such as power consumption, cost of systems, demands on training data sizes, and processing speed, we hope to greatly contribute to the growing interest and demand of AI. If we progress as we expect, we should be in the market with a commercialized application or product by year end 2023, if not sooner."

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Reservoir computing is a type of machine learning technique that uses a fixed, random "reservoir" of interconnected nodes to perform computations on input data. The reservoir is a complex dynamical system that has a high-dimensional state space and exhibits nonlinear and chaotic behavior. The input data is fed into the reservoir, which transforms it in a non-linear way, and the output is obtained by reading out a linear combination of the reservoir's states. The key advantage of reservoir computing is that the reservoir can be pre-trained using simple random connections and then used as a fixed feature extractor for a wide range of tasks. Reservoir computing has been successfully applied to a variety of applications, including time-series prediction, speech recognition, image and video processing, and control systems. However, there are limitations to classical reservoir computing, particularly in training the computer, which can take a long time and require a lot of energy.

Quantum reservoir computing is a variation of classical reservoir computing that uses quantum-mechanics, such as superposition and entanglement principles, to create quantum-boosted neural networks. Quantum reservoir computing has a number of significant advantages over classical reservoir computing with, namely, increased connectivity and capacity, decreased training bias, and strengthened security. The photonic systems at QCI also deliver additional benefits of high energy-efficiency, versatility, and scalability.

Dr. Yuping Huang, QCI Chief Quantum Scientist stated, "From the beginning, we have strategically focused all our development efforts on quantum photonics, fully appreciating all the significant advantages over other methodologies and platforms. We hope to take advantage of cutting-edge photonic hardware which is well suited to handling quantum data processing and thereby, a significant cost and time savings. QCI's near term strategic plan is to make our RQC commercially available for the AI community to use and explore many different applications."

"We enthusiastically look forward to team up with QCI to demonstrate how our advanced AI capabilities will benefit from quantum information technologies. millionways has a number of practical capabilities already in the marketplace such as our Emotionally Intelligent AI that helps companies build the right team and develop a strong culture with highly motivated employees using our text-based personality analytics platform," stated Martin Cordsmeier, CEO of millionways. "QCI is one of the leading quantum hardware companies using photonics to create real world solutions. QCI's Reservoir Quantum Computer, with its ability to process audio files will add an incredible dimension to our AI platform and open completely new markets to allow users to interact with voice rather than typing text. Imagine the applications: everything from entertainment to medicine to ensuring that people have someone to talk to when they need to communicate. Elderly users who are isolated and alone would benefit greatly."

Quantum Computing Inc. expects to complete its initial work in the summer of 2023 and will announce follow on plans for collaboration after the results. Preliminary independent assessment by both companies proved highly interesting, though the actual results are expected to be published mid-year upon the conclusion of the proof of concept.

For additional information on the company's suite of solutions, please visit our websiteor contact our team directly.

About Quantum Computing Inc.

QCI is a full-stack quantum software and hardware company on a mission to accelerate the value of quantum computing for real-world business solutions, delivering the future of quantum computing, today. The company is on a path to delivering an accessible and affordable full-stack solution with real-world industrial applications, using quantum entropy, which can be used anywhere and with little to no training. QCI's experts in finance, computing, security, mathematics and physics have over a century of experience with complex technologies ranging from leading edge supercomputing to precision sensors and imaging technology, to the security that protects nations. For more information about QCI, visit http://www.quantumcomputinginc.com.

About millionways

millionways created the world's first emotionally-intelligent A.I. assessment tools, providing next-gen personality insights. Founded in New York, NY in 2017, millionways' disruptive technology is based on first time-digitalized PSI theory, natural language processing, meets several "zeitgeist topics" and can be utilized for B2B and B2C, which makes it a potential - currently untouched - billion dollar market opportunity. millionways was developed, and is continually evolving, through its team of renowned scientists, developers, psychologists, philosophers, deep thinkers, and people who use it. For more information, visit http://www.millionways.me/#/en.

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 Inc. (the "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.

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Quantum Computing Inc.'s Reservoir Quantum Computer to Demonstrate 'the Power of Artificial Intelligence' via Partnership with millionways AI - Yahoo...

Meet the Aussie Startup That Wants to Be the Intel of Quantum Computing – Gizmodo Australia

Zachariah Kelly

Published 10 hours ago: April 28, 2023 at 12:11 pm

Quantum computers are likely to be one of the next big leaps in data processing, scaling extremely sophisticated and fast computers down into much smaller computational hardware however, most quantum systems are held back by large cooling systems that are necessary for the machines to operate. Thats where Quantum Brilliance comes in, billing itself as the Intel or Nvidia of quantum computing.

Weve written about Quantum Brilliance before, when the startup snagged $26 million in cash from a pool of funding, contributors of which included the Victorian government and Main Sequence (the venture capital spin-off of the CSIRO). What makes Quantum Brilliance so special is that the startup is compressing quantum computers, which are typically really big (almost room-sized) into modern PC-sized boxes, by using diamond-based devices instead of room-scale cooling systems.

And just recently, the startup achieved a breakthrough and world first the team managed to take a quantum computer outside of a lab environment, configure it to be robust enough to sit in the same room next to a supercomputer, and have the two systems share data and work in tandem towards solving a problem.

Heres why thats a big deal.

The key thing was running a first job where someone could access the supercomputer, and then the supercomputer goes: oh, this is something that has a quantum component. Im going to run stuff on the supercomputer, Im going to send that part of the job then to the quantum computer, get the result back, and then feed it back into subsequent supercomputing,' Quantum Brilliance CTO and co-founder Doctor Andrew Horsley told Gizmodo Australia.

Taking it out of the lab, and its not requiring extra infrastructure to run, you just plug it in and its working. Its not quite a quantum computer in your laptop, but its still a big demonstration for such an early stage of the tech that weve got it in whats really quite an unfriendly environment. A lot of noise fans, a lot of weird electromagnetic noise.

While quantum computers exploit what Horsley calls a physical phenomena that todays computers dont, that of quantum mechanics and the ability to harness quantum physics in processing data, he explained to me that quantum computers will not replace the computers of today entirely. Its more about replacing specific processes or enhancing them with faster, more powerful technology and thats what underlines this latest breakthrough.

We want to make quantum an everyday technology, Horsley said. Ultimately, you open up your laptop, and theres a Quantum Brilliance sticker on it, as well as whatever your CPU is.

Just for clarity, usually when you buy a new PC or laptop, itll come with a sticker (or stickers) somewhere on the casing, indicating your CPU or GPU. Its advertising, but in this context, its more important than that its Horsleys way of saying that your everyday computer may, one day, include a component that leverages quantum technology, because of this achievement.

What will that mean for the average user? Well, though we know quantum computers can offer much more computational power than modern computers, the reality is that we just dont know yet but we have a good idea.

So an example there is, at the moment, for a robot to understand human speech, its very hard. At the moment you can use big centralised computers, but to actually have it, to cram enough classical computers into a robot or a satellite, you actually dont have enough space to do that, Horsley said.

What quantum can do is give you enough computing density to cram it into the size, weight and power consumption budget of something at the edge. So, your laptop, a robot or a self-driving car, so that its actually smart enough to actually understand you and interface with you in a more natural way.

Horsleys analogy, coming back to the physical phenomena, is that its similar to when electricity was first harnessed and completely changed the world and how we did things in the 19th Century. The idea that quantum computing could make systems of all types smarter, faster and more powerful, even at the consumer level, is attractive, to say the least.

We wont know what the applications are right now. Its kind of like standing in the 1950s, imagining what youd do with a smartphone. But we can think about a few of these early ones, and its enough to get excited about, Horsley added.

Quantum Brilliances focus going forward is to keep compressing quantum technology and integrating it with modern computers, working with industry partners like the Pawsey Supercomputer Centre in Perth and Nvidia.

Horsley said the startup has a head start on making the tech smaller because of the earlier mentioned diamond-based cooling systems. Large helium-based or laser-assisted cooling systems arent necessary, allowing the tech to keep being scaled down which is a crucial point, because to make sure quantum computers function as optimally as possible, their environments need to be exceptionally controlled.

The startup is gearing up for a quantum future, where its everyday tech and this latest achievement is one of the first steps towards this vision.

This is showing that quantum computing can be made simple and robust enough that you can take it out of a lab and put it next to a supercomputer and have them naturally start talking to each other Its that first hello world moment that shows the progress that were making in understanding the software environment and developing robust hardware that we can start bringing quantum ultimately to consumers, Horsley said.

As written above, its still early days for quantum computing, but Im certainly warming to the idea of having a Quantum Inside sticker on the side of my PC.

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Quantum Cryptography Market worth $3.0 billion by 2028 – Exclusive Report by MarketsandMarkets – Yahoo Finance

CHICAGO, April 26, 2023 /PRNewswire/ --The global Quantum Cryptography Market size is estimated at USD 0.5 billion in 2023 and is projected to reach USD 3.0 billion by 2028, at a CAGR of 41.2% from 2023 to 2028, according to a new report by MarketsandMarkets. Factors such as increasing number of cyber threats and attacks; and digital transformation initiatives are positively driving the growth of Quantum Cryptography Market. However, lack of expertise and technical implementation challenges to hinder the market growth.

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Browse in-depth TOC on"Quantum Cryptography Market"204 - Tables34 - Figures223 - Pages

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By offering, Solution segment is expected to account for the largest share in 2023

Quantum computers threaten classical encryption methods and infrastructure security, entropy starvation allows for stealthy eavesdropping, and publicly exposed channels increase the risk for critical information exchanges. These solutions are vital in offering point-to-point security and storage networks for long-term data protection. In addition, the R&D platform is gaining traction among the scientific community, as the need for quantum-safe encryption is increasing to counter the threat of a quantum computer. The R&D platform comprises two stations, namely, the transmitter unit and the receiver unit. Each station consists of optical and electronic platforms, controlled by an external computer linked to the station through an Ethernet connector. With the R&D platform, users can experiment with different parameters and study various setups. It is well-documented in scientific publications and has been extensively tested and characterized. ID Quantique is a leading provider of R&D platforms for quantum cryptography.

By vertical, healthcare to account for highest CAGR in 2023

During COVID-19, healthcare facilities are more prone to becoming a target of cyberattacks. The healthcare sector has become the epicenter of this unexpected global pandemic. Increased investments by the government in the healthcare vertical to tackle COVID-19, and being prepared for future scenarios is expected to make the healthcare vertical adopt these solutions soon. Moreover, the use of quantum-safe encryption technology improves the proficiency of clinical and IT staff and provides real-time information access in case of emergencies. Additionally, the implementation of regulatory compliances, such as the Health Insurance Portability and Accountability Act of 1996 (HIPAA), is increasing the adoption rate of quantum cryptography among healthcare organizations and clinical staff. These compliance regulations also help secure sensitive data, protect identities by providing digital signatures, secure network gateways, and encrypting databases. Due to the rising use of this technology and increasing awareness about regulatory compliance, the adoption trend for quantum cryptography is expected to grow among developing countries.

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By Region, North America to grow at the highest CAGR in 2023

In the United States, the National Quantum Initiative Act was passed in 2018, which aims to accelerate the development of quantum technology, including quantum cryptography. This has resulted in increased funding for quantum research and establishing research centers such as the Quantum Information Science and Engineering Network (QISE-NET). Private companies such as IBM, Microsoft, and Google are also investing in quantum technology research, developing quantum computers and quantum communication networks. The Perimeter Institute for Theoretical Physics and the Institute for Quantum Computing at the University of Waterloo are leading the way in quantum cryptography research in Canada. The Canadian government has also invested in quantum technology research, including quantum cryptography, through the Quantum Computing Strategy. Overall, the scope of quantum cryptography in North America is broad, with significant investments being made in research and development and the establishment of centers of excellence in the field.

Major players operating in the Quantum Cryptography Market are ID Quantique (Switzerland), QuintessenceLabs (Australia), Toshiba (Japan), QuantumCTek (China), Magiq Technologies (US), Crypta Labs (UK), Qasky (China), Qubitekk (US), ISARA (Canada), Nucrypt (US), Quantum Xchange (US), qutools (Germany), QNu Labs (India), Post Quantum (UK), IBM (US), HPE (US), NEC (Japan), Crypto Quantique (UK), Qrypt (US), KETS Quantum Security (UK), PQShield (UK), QuBalt (Germany), VeriQloud (France), SSH Communication Security (Finland), QuantLR (Israel), and QuSecure (US) are the key market players.

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Monist philosophy and quantum physics agree that all is One – Aeon

From all things One and from One all things, wrote the Greek philosopher Heraclitus some 2,500 years ago. He was describing monism, the ancient idea that all is one that, fundamentally, everything we see or experience is an aspect of one unified whole. Heraclitus wasnt the first, nor the last, to advocate the idea. The ancient Egyptians believed in an all-encompassing but elusive unity symbolised by the goddess Isis, often portrayed with a veil and worshipped as all that has been and is and shall be and the mother and father of all things.

This worldview also follows in straightforward fashion from the findings of quantum mechanics (QM), the uncanny physics of subatomic particles that departs from the classical physics of Isaac Newton and experience in the everyday world. QM, which holds that all matter and energy exist as interchangeable waves and particles, has delivered computers, smartphones, nuclear energy, laser scanners and arguably the best-confirmed theory in the entirety of science. We need the mathematics underlying QM to make sense of matter, space and time. Two processes of quantum physics lead directly to the notion of an interconnected universe and a monistic foundation to nature overall: entanglement, natures way of integrating parts into a whole, and the topic of the 2022 Nobel Prize in Physics; and decoherence, caused by the loss of quantum information, and the reason why we experience so little quantum weirdness in our daily lives.

Yet, despite the throughline in philosophy and physics, the majority of Western thinkers and scientists have long rejected the idea that reality is literally unified, or nature and the Universe a system of one. From judges in the Inquisition (1184-1834) to quantum physicists today, the thought that a single system underlies everything has been too odd to believe. In fact, though philosophers have been proposing monism for thousands of years, and QM is, after all, an experimental science, Western culture has regularly lashed out against the concept and punished those promoting the idea.

It wasnt always that way. In ancient times, the concept of monism held more weight in the popular mind. Philosophers in the school of Pythagoras (c570-490 BCE), renowned for his alleged discovery of the geometrical relation among the three sides of a right triangle, identified the number one as the centre of the Universe. Heraclitus contemporary Parmenides (c520-460 BCE) believed in reality as a timeless one, that is and that is not not to be. And Plato, arguably the most influential philosopher ever, is said to have taught monism as a secret doctrine at his academy, to be disseminated only orally. Indeed, monism later evolved into a trademark of his school, and Neoplatonists such as Plotinus (c205-270 CE) wrote about the one that is all things and beings generator. Around the same time, mystery cults popular in late antiquity advocated a hidden unity behind the many gods of the Greco-Roman polytheistic pantheon, and understood the different deities as representations of the various facets of a single, unified reality.

Later on, philosophical ideas derived from Platos monistic instincts competed with Christianity to become the dominant worldview of the Roman Empire. Christianity prevailed.

Even then, Christianity adopted Platonic ideas by identifying the monistic One with God. But Christianity drew also on dualistic philosophies such as Manichaeism, which advocated a world caught in an epic struggle between good and evil. This is how concepts such as God and devil, heaven and hell, or angels and demons received their prominent role among Christian beliefs. At the same time, the monistic influences were pushed into an otherworldly beyond. The Christian God was understood as different from the natural world that he governs from outside.

A student who claimed that God, the world, and nature, are but one thing was hanged for blasphemy

With the Christian Church rising to political power and the fall of the Roman Empire, much of antiquitys culture and philosophy got lost, and monism got suppressed as a heresy. If all is One, God gets conflated with the world, and medieval theology understood that as atheism or a devaluation of God.

When in 855 John Scotus Eriugena, a medieval philosopher at the court of the Frankish emperor Charles the Bald, described God as an indivisible unity holding together all things, he got condemned and his books forbidden. Sure, these monistic ideas inspired philosophers, but theologians saw them as an intrusion into the realm of religion. By the 13th century, a group of scholars in Paris had resorted to the stance that there exists a double truth: that what is right in natural philosophy may be wrong at the same time in theology, and vice versa.

These conflicts framed the relationship between religion and the developing sciences. After Nicolaus Copernicus advocated a heliocentric model of the planetary system in 1543, proposing that Earth and planets revolved around the Sun, instead of the Universe around Earth, his book was suspended by the Inquisition in 1616; for more than 200 years, it was allowed to be published only in editions that stressed it presented just a mathematical model but no statement about reality. That same year, Galileo Galilei was warned by the cardinal Robert Bellarmine, an inquisitor and one of the judges who had condemned Giordano Bruno to be burnt at the stake, to teach the heliocentric model not as truth but only as a hypothesis.

In 1600, Bruno, an early advocate of the Copernican model, was burned alive in Rome. Among his heresies was his monistic philosophy, affirming that the whole is one and that Nature is none other than God in things. In 1619, Lucilio Vanini, who had preached a religion of nature where a leaf of grass was proof of God, got his tongue cut out and was strangled at the stake, his body burned in Toulouse. And in 1697, Thomas Aikenhead, a student who claimed that God, the world, and nature, are but one thing, was hanged for blasphemy in Edinburgh.

Science in those early days often emerged as a sort of soft monism. Johannes Kepler, who discovered that Earth and the other planets revolve around the Sun in elliptical orbits, tried to understand nature in terms of harmonies and symmetries. Brunos influence and the ideas of monism directly inspired his efforts to develop a unified theory and find harmonic, beautiful patterns in the natural world.

The monist influence was even more apparent in the work of Newton, best known for his theory of gravity. One of Newtons most important accomplishments was the insight that gravity acts universally on all bodies on Earth and elsewhere in the Universe. He explicitly compared this feature with the idea of an all-encompassing divinity that he adopted from the Cambridge Platonist Ralph Cudworth. One and the same divinity [exercises] its powers in all bodies whatsoever, Newton wrote.

Michael Faraday, who proposed force fields were permeating the Universe, made significant steps toward the unification of electricity and magnetism a monistic point of view, indeed.

Albert Einstein, who gave us such concepts as the curved universe and space-time, believed that the separation of humans from the rest of the Universe was essentially an optical delusion of consciousness.

Monism has resurfaced again and again by inspiring humanitys greatest creations and creators across the arts. Mozarts opera The Magic Flute (1791) included a eulogy of Isis. Beethoven kept the quote I am all that is, that has been and will be, and no mortal has ever lifted my veil, attributed to Isis, in a frame on his desk. The Romantic poets from Goethe to Coleridge to Wordsworth describe the longing for a reconciliation of ego and the world within nature.

Despite all this, the hard line of the Church stuck: monism could influence science and inspire our greatest art, but the idea that it quite literally described nature was rejected by the overwhelming majority through the years. To the present day, we tend to believe that monism and nature, or monism and science, dont belong together; that the hypothesis of all is One simply isnt proper science at all.

If anything should convince us to change our mind, it is the experimental science of quantum mechanics and its underlying mathematics. One famous feature of QM is that there is no strict separation between particles and waves. What had been considered as a particle before, for example an electron, can sometimes behave as a wave, while waves (such as, for example, light) can absorb and emit energy in discrete portions, understood as particle-like quanta. In contrast to a particle though, a wave doesnt exist in a specific place. It stretches out over the surface of a pond or the expanse of the Universe; it is non-local, in physics lingo. A quantum object described as a wave exists in several places simultaneously until it gets measured. In that instant, the object seems to collapse into one of its potential locations.

This leads to the weirdest aspect of QM entanglement, a property of quantum systems made up of two or more particles. According to the quantum pioneer Erwin Schrdinger writing in 1935, entanglement is the characteristic trait of quantum mechanics, the one that enforces its entire departure from classical lines of thought.

Consider observing a wave pattern on your pond that you know results from two ripples combined, such as two stones dropped into the water. Just by looking at the water surface, you wont be able to tell what these individual ripples were to start. For instance, the pattern could have arisen from two stones causing two equal swells in the water, or from a small stone causing a third of the swell and a larger stone creating two-thirds.

Taking this logic at face value, nothing we see really exists; there are no particles or physicists or cats or dogs

The same is true for entangled quantum systems: you may know the complete system perfectly well but at the same time know nothing about its constituents until we pin them down by experiment, measuring them. In such an experiment, the very act of measurement would destroy the original whole.

It was Schrdinger who clearly summarised what entanglement means:

Entanglement is QMs way of integrating parts into a whole and, when you apply entanglement to the entire Universe, you end up with Heraclitus tenet From all things One. Taking this logic at face value, nothing we see around us really exists; there are no particles or physicists or cats or dogs. The only thing that truly exists is the Universe as a whole.

Yet, while this logic is easy to follow, the conclusion seems bizarre, and is far from a general consensus, even among physicists. In fact, it sparked a controversy that can be traced back to the early history of QM when, in 1927, Niels Bohr and Werner Heisenberg realised that one can never experience both the particle and wave aspects of a quantum object at the same time. Heisenbergs friend and collaborator Wolfgang Pauli tried to illustrate this finding by saying one could look at nature with two different eyes, seeing either particles or waves, but if the observer tried to open both eyes together, they would go astray. This seemed to suggest that reality is fundamentally unobservable, just like the veiled Egyptian goddess Isis. But physics is an experimental science. As a consequence, physicists arent easily convinced about the existence of a hidden quantum reality, even if it may unify the experiences of things such as particles or waves.

Bohr, Heisenberg and Pauli at least remained unconvinced. When they tried to make sense out of quantum mechanics, they came to the conclusion that what we see is real and that there is no underlying, more fundamental quantum reality hiding behind. According to this Copenhagen interpretation, QM doesnt describe a deeper reality but merely our incomplete knowledge of nature.

Schrdingers theoretical wave function, the mathematical expression that describes the different probabilities a quantum object has of being in a given state or location, wasnt accepted as a model of nature but understood as merely a tool to predict what our measurement devices would register. There is no quantum world, Bohr reportedly affirmed. For many years to come, this view became the orthodox interpretation about what QM meant.

From the time Schrdingers paper on entanglement was published in 1935, physicists could have adopted a monistic interpretation of QM, or at least have accepted it as a major contender for Bohrs instrumental interpretation that QM was merely a tool. Yet it appears as if Heisenberg and Bohr, as soon as they had discovered this strange, new quantum reality that was underlying our everyday world and unifying everything in the Universe, shied away from setting out to explore this uncharted territory. Instead, they decided to declare it nonexistent.

This reaction is even more baffling since physicists, of all people, werent completely unaware of the monistic implications of QM. For example, when in 1947 Bohr received the Order of the Elephant, Denmarks highest honour, he designed his own coat of arms that featured a yin and yang symbol, the pictorial representation of the monistic Taoist philosophy that seemingly opposite forces in nature are actually complementary pieces of a fundamental whole on a deeper level of understanding. In a similar spirit, Heisenberg titled his autobiography Der Teil und das Ganze (1969), or The Part and the Whole.

More concretely, the physicist David Bohm wrote in his popular textbook Quantum Theory (1951) that QM requires that we give up the idea that the world can correctly be analysed into distinct parts and replace it with the assumption that the entire universe is basically a single, indivisible unit. By the 1970s, Fritjof Capras bestseller The Tao of Physics (1975) was comparing quantum physics with East Asian spirituality. So why were the monistic implications of quantum physics not taken seriously? Why was quantum physics an apt mathematical model, but considered insufficient to describe the contours of nature itself?

There are many reasons why this didnt happen.

For one thing, despite the monistic inclinations of visionaries like Newton and Kepler, the notion that all is One usually isnt understood as a meaningful statement in science. This One isnt directly observable, and science is an experimental endeavour. But more than that, the Western mind was inclined to restrict science to problem-solving while reserving the absolute and final answers for religion. The mindset has been internalised to this day, even by people who arent necessarily religious themselves.

Whats more, it didnt really seem to matter what the quantum-mechanical wave function implied. The formulas and predictions of quantum physics worked perfectly well and could be applied successfully to the various emerging research fields in nuclear, particle and solid-state physics, irrespective of what one believed about its underlying reality. Moreover, for many years, no one truly understood what happened during a quantum measurement and how quantum mechanics was related to our everyday experience in a world made of large objects existing in definite shapes and places.

This situation changed only around 1970 when the physicist Heinz-Dieter Zeh in Germany discovered a process known as decoherence, which is important to virtually any branch of modern physics. Decoherence protects our daily-life experience from too much quantum weirdness. And it realises the last part of Heraclitus tenet: from all things One.

It is as if decoherence opens a zipper between parallel universes

Decoherence happens when a quantum object interacts with its environment for instance, when a particle like an electron, a human observer or measurement device, and the environment get entangled. If the quantum object is a particle existing in two different locations (possible if it takes the form of a wave) each of them is linked to a corresponding state of the measurement device recording the particle in the respective position.

While these possible realities are superposed in the entangled whole, they unravel from the perspective of the observer who doesnt know the exact state of the environment, which arguably is the entire rest of the Universe. It is as if you observe your garden through a partitioned window: nature looks divided into separate pieces, but this is an artefact of your perspective.

From the observers perspective immersed in their own reality (called the frog perspective by the cosmologist Max Tegmark) the measurement device might describe two realities based on mathematical probabilities in the wave function the particle could be located at position A with a measurement device observing this location, or the particle could be found at position B with another device recording this position.

Zehs discovery endorsed a controversial view of quantum mechanics, proposed by the physicist Hugh Everett, that became famous under the misleading label many-worlds interpretation. According to Everett, quantum measurements dont have only a single outcome. Instead, all outcomes allowed in quantum mechanics are realised, albeit in parallel realities. It is as if decoherence opens a zipper between parallel universes. On a more fundamental level though, Everetts interpretation doesnt describe many classical worlds but rather a single quantum universe, governed by a universal wave function. If a hypothetical observer could see the entire Universe from the outside with all its possibilities revealed, the cosmos would manifest as a single quantum object. That, metaphorically speaking, would be the bird perspective, Tegmark says.

As remarkable as Everetts and Zehs conclusions were, they werent appreciated by their physicist peers. Instead, for decades any deeper enquiry in the foundations of quantum mechanics was discouraged, and anyone who dared to question Bohrs orthodox interpretation encountered a toxic blend of hostility and dogmatic pragmatism. The attitude was fittingly summarised in 1989 by the physicist David Mermin as Shut up and calculate! The motto reflected the pressure on 20th-century students to adopt QM as a tool instead of wasting their time with metaphysical pondering or any effort to find its expression in reality.

John Clauser, one of the recipients of the 2022 Nobel Prize in Physics for his work on quantum entanglement, described how a very powerful stigma began to develop within the physics community towards anyone who sacrilegiously was critical of quantum theorys fundamentals. Lon Rosenfeld, a close collaborator of Bohrs, characterised Everett as undescribably [sic!] stupid and claimed he could not understand the simplest things in quantum mechanics. Around the same time, Zeh who discovered decoherence was informed by his advisor, a Nobel Prize winner, that any further activities on this subject would end [his] academic career! Zeh stressed the parallels between the Inquisitions conservative stance and the dogmatic antirealism of many physicists today:

Thus, even after decoherence had explained how our everyday experience can follow from a monistic quantum reality, the idea remained the outsider view of a small group of renegade physicists. And, in fact, for most of us, the notion of an all-encompassing One doesnt feel like proper science. It comes with a scent of New Age bullshit.

But why does this idea sound so bizarre to us? To understand this bias, we have to leave quantum mechanics for a moment and look back to how monism evolved in Europe over the past 800 years. It turns out, the controversy about how to interpret QM is part of the larger story the conflict about who was entitled to define the foundation of reality: religion, or science?

According to Everett and Zeh, the fundamental description of the Universe is a single entangled state, described by a universal wave function. Everything we experience in our daily lives emerges from this fundamental quantum reality.

If this is correct, it implies that the traditional approach of physics to understand things in terms of constituents doesnt work anymore. If physicists explain how everyday objects such as chairs, tables and books are made of atoms, atoms are composed of atomic nuclei and electrons, atomic nuclei contain protons and neutrons, and protons and neutrons consist of quarks, they ignore that these particles arent fundamental but just abstractions from the fundamental whole.

If there exists but a single thing in the Universe, then space doesnt make sense any more

Instead, the most fundamental description of the Universe has to start with the Universe itself, understood as an entangled quantum object. Indeed, the 2022 Nobel Prize in Physics was awarded for experiments that probe correlations between particles separated by large distances yet connected to each other based on entanglement.

This view also requires us to rethink our notion of space and time. If there exists but a single thing in the Universe, then space, often understood as the relative order of things, doesnt make sense any more. Nor is it easy to imagine this single object evolving in time. Accordingly, the Wheeler-DeWitt equation, describing the quantum mechanical wave function of the Universe and the starting point for much of Stephen Hawkings work on cosmology, describes a timeless universe.

Entanglement also plays a crucial role in the most advanced approaches to quantum computing and the search for a theory of quantum gravity, in which entanglement creates connections between distant regions of space-time. Just a few weeks before the new Nobel laureates were honoured in Stockholm in 2022, a different team of distinguished scientists had a paper published in Nature that described a process on Googles quantum computer that could be interpreted as some kind of wormhole, a tunnel connecting far-away regions in space. Although the wormhole realised in this recent experiment exists only in a two-dimensional toy universe, it hints at an intimate relationship between quantum entanglement and proximity in space, and thus could constitute a breakthrough for future research at the forefront of physics.

The 3,000-year-old concept of monism may actually help modern physicists in their struggle to find a theory of quantum gravity and make sense out of black holes, the Higgs boson, and the early Universe. Chances are high that we witness the beginning of a new era where science is informed by monism and the Universe is perceived as a unified whole.

This Essay was made possible through the support of a grant to Aeon+Psyche from the John Templeton Foundation. The opinions expressed in this publication are those of the author and do not necessarily reflect the views of the Foundation. Funders to Aeon+Psyche are not involved in editorial decision-making.

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Monist philosophy and quantum physics agree that all is One - Aeon

Why Schrdinger’s Cat is still the most controversial thought experiment in science – BBC Science Focus Magazine

One of the most important tools in the theoretical physicists toolkit is the thought experiment. If you study relativity, quantum mechanics, or any area of physics applying to environments or situations in which you cannot (or should not) place yourself, youll find that you spend a lot more time working through imaginary scenarios than setting up instruments or taking measurements.

Unlike physical experiments, thought experiments are not about collecting data, but rather about posing an imaginary question and working through an if/then logical sequence to explore what the theory really means.

Asking what has to happen if the theory is true? is invaluable for developing intuition and anticipating new applications. In some cases, a thought experiment can reveal the deep philosophical implications of a theory, or even present what appears to be an unsolvable paradox.

Probably the most famous of all physics thought experiments is that of Schrdingers Cat both because it involves (purely hypothetical!) carnage, and because its implications for the nature of reality in a quantum world continue to challenge students and theorists everywhere.

The basic again, purely hypothetical experimental setup is this. Imagine you have a radioactive material in which there is a 50 per cent chance of a nuclear decay in some specified amount of time (lets say, one hour).

You put this material in a box along with a small glass vial of poison and a device that will break the vial if a radioactive decay is detected. Then, you put a live cat in the box, close the lid, wait an hour, and then open the box once again.

Based on this setup, its straightforward to deduce that since the chance the atom decays and triggers the poison is 50 per cent, half the time you do the experiment, you should find a living cat, and half the time, you should find a dead one, assuming youre not re-using the same cat each time.

But when Erwin Schrdinger described the thought experiment to Albert Einstein in 1935, he did so to highlight an apparent consequence of quantum theory that seemed to both scientists to be complete nonsense: the idea that before you open the box, the cat is both alive and dead at the same time.

Ultimately, it comes down to the principle of uncertainty in quantum mechanics. Unlike classical mechanics (the kind of physics that applies to our everyday experiences), in quantum mechanics, there seems to be a fundamental uncertainty built into the nature of reality.

When you flip a coin (a classical event), its only random because youre not keeping careful enough track of all the motions and forces involved. If you could measure absolutely everything, you could predict the outcome every time its deterministic.

But in the quantum mechanical version of a coin flip, the radioactive decay, nothing you measure can possibly tell you the outcome before it occurs. As far as an outside observer is concerned, until the measurement of the quantum coin flip occurs, the system will act like its in both states at once: the atom is both decayed and not decayed, in what we call a superposition.

Superposition is a real phenomenon in quantum mechanics, and sometimes we can even use it to our advantage. Quantum computing is built on the idea that a quantum computer bit (or qubit), instead of being just one or zero, can be in a superposition of one and zero, massively increasing the computers ability to do many complex calculations at once.

In the case of Schrdingers Cat, the apparently absurd conclusion that the cat is both alive and dead comes from considering the whole apparatus the atom, the trigger device, and the poison vial, and the cat to be a single quantum system, each element of which exists in a superposition.

The atom is decayed and not, the device is triggered and dormant, the vial is broken and intact, and the cat is therefore simultaneously dead and alive, until the moment the box is opened.

Whether this conclusion is actually absurd is an open question. What both Schrdinger and Einstein concluded was that true, fundamental uncertainty simply cannot apply to the real, macroscopic, world. These days, most physicists accept that uncertainty is real, at least for subatomic particles, but how that uncertainty 'collapses' when a measurement is made remains up for debate.

In one interpretation, any measurement thats performed fundamentally alters reality though it is usually argued that the trigger device, or, at least, the cat itself, provides a measurement for that purpose. In another interpretation, called Many Worlds, the entire Universe duplicates itself every time a quantum coin is flipped, and the measurement simply tells you whether youre in the dead-cat or alive-cat universe from now on.

While we cant say how long it will take before we fully understand whats really going on in the black box of quantum superposition, applications of quantum theory are already bringing us incredible technological advances, like quantum computers. And in the meantime, clever thought experiments allow us to follow our curiosity, without running the risk of killing any cats.

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Why Schrdinger's Cat is still the most controversial thought experiment in science - BBC Science Focus Magazine