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Using the BLUEPRINT of reality? Classical computers compute with BITS: 0 or 1 - ONE state at a time. Quantum computers use QUBITS: 0 and 1 or both "simultaneously" through superposition. These states EVOLVE continuously on something like a Bloch sphere - the same MATHEMATICS that describes spin, atoms... show more

WhatdoIknow

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19,431 просмотров • 4 месяцев назад •via X (Twitter)

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🚨 BREAKING: Quantum reality doesn’t choose a state. It holds all of them at once. This is called a Bloch Sphere and every possible state of a quantum system lives on its surface. Spin up. Spin down. Or anything in between. That “in between” is the wild part. It means quantum systems don’t just exist in one state… they exist as superpositions of possibilities. So instead of flipping between 0 and 1… They exist as both. At the same time. That means reality, at its core, isn’t definite it’s probabilistic. This is what quantum computing is built on. Not faster bits… but entirely different rules. Follow me this is where physics stops being intuitive.

🚨 BREAKING: Quantum reality doesn’t choose a state. It holds all of them at once. This is called a Bloch Sphere and every possible state of a quantum system lives on its surface. Spin up. Spin down. Or anything in between. That “in between” is the wild part. It means quantum systems don’t just exist in one state… they exist as superpositions of possibilities. So instead of flipping between 0 and 1… They exist as both. At the same time. That means reality, at its core, isn’t definite it’s probabilistic. This is what quantum computing is built on. Not faster bits… but entirely different rules. Follow me this is where physics stops being intuitive.

TheNewPhysics

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6,100-Qubit Processor Shatters Quantum Computing Record | David Nield, ScienceAlert Another major quantum computing record has been broken, and by a considerable margin: physicists have now built an array containing 6,100 qubits, the largest of its type and way above the thousand or so qubits previous systems contained. It's the work of scientists from the California Institute of Technology, who used cesium atoms as their qubits, trapping them in place with a complex system of lasers that acted as tweezers to keep the atoms as stable as possible. Qubits differ from the classical bits of traditional computers by exploiting what's known as a superposition: not just binary states of 1 or 0, but a spread of probabilities that allows for algorithms that can solve problems considered out of reach of conventional computing methods. Related: Quantum Advantage: A Physicist Explains The Future of Computers A lot of qubits will be needed to make quantum algorithms practical, however. One reason for these large arrays is error correction, which helps overcome the inherent fragility of the qubit by providing a surplus to double-check the machine's operation. "This is an exciting moment for neutral-atom quantum computing," says physicist Manuel Endres. "We can now see a pathway to large error-corrected quantum computers. The building blocks are in place." There was no single breakthrough that enabled this jump in qubit numbers, but rather a series of engineering advancements in many key areas – from the laser tweezers to the ultra-high (very low pressure) vacuum chamber. Stability has also been a problem for quantum computing systems. The innovations in this latest array kept qubits in a superposition state for almost 13 seconds – almost ten times longer than previous configurations had managed. What's more, individual qubits could be manipulated with 99.98 percent accuracy, establishing a significant benchmark in the programmability of quantum technology. "Large scale, with more atoms, is often thought to come at the expense of accuracy, but our results show that we can do both," says physicist Gyohei Nomura. "Qubits aren't useful without quality. Now we have quantity and quality." To make quantum computers a practical alternative to modern supercomputers, more qubits and even greater levels of stability will be required. Experts are tackling the problem from several different angles, which is why records for some types of quantum computer don't necessarily apply to others. Next, the researchers need to work on exploiting entanglement, which will enable the system to make the leap from storing information to actually processing it. Not too far in the future, we could be using these computers to discover new materials, matter, and fundamental laws of physics. "It's exciting that we are creating machines to help us learn about the Universe in ways that only quantum mechanics can teach us," says physicist Hannah Manetsch. Read more:

6,100-Qubit Processor Shatters Quantum Computing Record | David Nield, ScienceAlert Another major quantum computing record has been broken, and by a considerable margin: physicists have now built an array containing 6,100 qubits, the largest of its type and way above the thousand or so qubits previous systems contained. It's the work of scientists from the California Institute of Technology, who used cesium atoms as their qubits, trapping them in place with a complex system of lasers that acted as tweezers to keep the atoms as stable as possible. Qubits differ from the classical bits of traditional computers by exploiting what's known as a superposition: not just binary states of 1 or 0, but a spread of probabilities that allows for algorithms that can solve problems considered out of reach of conventional computing methods. Related: Quantum Advantage: A Physicist Explains The Future of Computers A lot of qubits will be needed to make quantum algorithms practical, however. One reason for these large arrays is error correction, which helps overcome the inherent fragility of the qubit by providing a surplus to double-check the machine's operation. "This is an exciting moment for neutral-atom quantum computing," says physicist Manuel Endres. "We can now see a pathway to large error-corrected quantum computers. The building blocks are in place." There was no single breakthrough that enabled this jump in qubit numbers, but rather a series of engineering advancements in many key areas – from the laser tweezers to the ultra-high (very low pressure) vacuum chamber. Stability has also been a problem for quantum computing systems. The innovations in this latest array kept qubits in a superposition state for almost 13 seconds – almost ten times longer than previous configurations had managed. What's more, individual qubits could be manipulated with 99.98 percent accuracy, establishing a significant benchmark in the programmability of quantum technology. "Large scale, with more atoms, is often thought to come at the expense of accuracy, but our results show that we can do both," says physicist Gyohei Nomura. "Qubits aren't useful without quality. Now we have quantity and quality." To make quantum computers a practical alternative to modern supercomputers, more qubits and even greater levels of stability will be required. Experts are tackling the problem from several different angles, which is why records for some types of quantum computer don't necessarily apply to others. Next, the researchers need to work on exploiting entanglement, which will enable the system to make the leap from storing information to actually processing it. Not too far in the future, we could be using these computers to discover new materials, matter, and fundamental laws of physics. "It's exciting that we are creating machines to help us learn about the Universe in ways that only quantum mechanics can teach us," says physicist Hannah Manetsch. Read more:

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Using random circuit sampling (RCS), we've demonstrated that quantum computers can outperform classical supercomputers, even with noise. This 'beyond classical' capability is possible because qubits can exist in multiple states at once, giving quantum computers an edge.

Using random circuit sampling (RCS), we've demonstrated that quantum computers can outperform classical supercomputers, even with noise. This 'beyond classical' capability is possible because qubits can exist in multiple states at once, giving quantum computers an edge.

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Geometry isn’t just about space—it’s about time. The same ratios that shape physical forms… also describe cycles of time. “Wheels within wheels,” as Ezekiel put it. Ancient geometry held cosmological numbers— Codes that tracked not just the structure of reality… but its rhythm.

Geometry isn’t just about space—it’s about time. The same ratios that shape physical forms… also describe cycles of time. “Wheels within wheels,” as Ezekiel put it. Ancient geometry held cosmological numbers— Codes that tracked not just the structure of reality… but its rhythm.

Randall Carlson

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🚨INSIDE THE LAB THAT MAKES COMPUTING COLDER THAN SPACE The sound hits first, a constant rumble from refrigeration systems working to cool quantum chips to temperatures colder than space itself. These aren’t your everyday computers. They operate near absolute zero, where atoms barely move and quantum rules take over. At the center is a chip packed with a thousand qubits. Nearby, AI supercomputers and classical machines work in tandem, each playing a role in processing power beyond today’s standards. Bits, neurons, and qubits, once separate, now converge in one cold, humming room built for the future. Source: FORTUNE

🚨INSIDE THE LAB THAT MAKES COMPUTING COLDER THAN SPACE The sound hits first, a constant rumble from refrigeration systems working to cool quantum chips to temperatures colder than space itself. These aren’t your everyday computers. They operate near absolute zero, where atoms barely move and quantum rules take over. At the center is a chip packed with a thousand qubits. Nearby, AI supercomputers and classical machines work in tandem, each playing a role in processing power beyond today’s standards. Bits, neurons, and qubits, once separate, now converge in one cold, humming room built for the future. Source: FORTUNE

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Set in the same Lovecraftian inspired universe as The Monkey Paw (+100K views), Bloom unfolds in another corner of Brightburn, Massachusetts, just days after the events of the first story, revealing a new horror growing within the town. Built in just over a month on a budget of roughly $1,400 in credits and based on an original script, Bloom follows the discovery of a mysterious plant capable of producing a drug-like sap that can potentially alter reality itself. Created entirely in partnership with Invideo the project focused heavily on story, character performance, and building a world that feels grounded in reality. The main goal was to deliver a strong emotional arc through believable AI performance.

Set in the same Lovecraftian inspired universe as The Monkey Paw (+100K views), Bloom unfolds in another corner of Brightburn, Massachusetts, just days after the events of the first story, revealing a new horror growing within the town. Built in just over a month on a budget of roughly $1,400 in credits and based on an original script, Bloom follows the discovery of a mysterious plant capable of producing a drug-like sap that can potentially alter reality itself. Created entirely in partnership with Invideo the project focused heavily on story, character performance, and building a world that feels grounded in reality. The main goal was to deliver a strong emotional arc through believable AI performance.

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Is math something humans invent—or something we discover? And why does it describe the universe so uncannily well? In this episode of Uncommon Knowledge, Peter Robinson sits down with mathematicians David Berlinski, Sergiu Klainerman, and Stephen C. Meyer to explore one of the deepest mysteries in science and philosophy: the reality of mathematics. From the simple certainty that 2 + 2 = 4 to the mind-bending mathematics behind black holes and quantum physics, the conversation asks why abstract numbers—created in the human mind—map so perfectly onto the physical world. Is mathematics purely logical, or does it point to a deeper structure of reality that isn't material at all? Along the way, the panel explores beauty in science, the "unreasonable effectiveness" of math, and whether the concept of materialism can really explain the world we live in. This wide-ranging discussion blends mathematics, physics, philosophy, and metaphysics into a fascinating conversation about truth, beauty, and the nature of reality itself. Watch the full episode of Uncommon Knowledge on X:

Is math something humans invent—or something we discover? And why does it describe the universe so uncannily well? In this episode of Uncommon Knowledge, Peter Robinson sits down with mathematicians David Berlinski, Sergiu Klainerman, and Stephen C. Meyer to explore one of the deepest mysteries in science and philosophy: the reality of mathematics. From the simple certainty that 2 + 2 = 4 to the mind-bending mathematics behind black holes and quantum physics, the conversation asks why abstract numbers—created in the human mind—map so perfectly onto the physical world. Is mathematics purely logical, or does it point to a deeper structure of reality that isn't material at all? Along the way, the panel explores beauty in science, the "unreasonable effectiveness" of math, and whether the concept of materialism can really explain the world we live in. This wide-ranging discussion blends mathematics, physics, philosophy, and metaphysics into a fascinating conversation about truth, beauty, and the nature of reality itself. Watch the full episode of Uncommon Knowledge on X:

Hoover Institution

51,619 просмотров • 5 месяцев назад

The double-slit experiment is a key demonstration in quantum physics that reveals the strange behavior of particles like electrons and photons. In the experiment, particles are fired at a barrier with two slits, and a screen records where they land. If both slits are open and no measurement is made, the particles form an interference pattern, like waves overlapping, even when sent one at a time. This suggests that each particle passes through both slits at once in a state called superposition. However, if detectors are placed at the slits to observe which path the particle takes, the interference pattern disappears. The particles then behave like classical objects, going through one slit or the other. This change in behavior simply from observing the system is known as the observer effect, and it highlights a fundamental principle of quantum mechanics: measurement affects the outcome. The experiment challenges our understanding of reality, showing that at the quantum level, particles don't have definite states until they are observed 🤓

The double-slit experiment is a key demonstration in quantum physics that reveals the strange behavior of particles like electrons and photons. In the experiment, particles are fired at a barrier with two slits, and a screen records where they land. If both slits are open and no measurement is made, the particles form an interference pattern, like waves overlapping, even when sent one at a time. This suggests that each particle passes through both slits at once in a state called superposition. However, if detectors are placed at the slits to observe which path the particle takes, the interference pattern disappears. The particles then behave like classical objects, going through one slit or the other. This change in behavior simply from observing the system is known as the observer effect, and it highlights a fundamental principle of quantum mechanics: measurement affects the outcome. The experiment challenges our understanding of reality, showing that at the quantum level, particles don't have definite states until they are observed 🤓

𝚃𝙷𝙴 𝚆𝙷𝙸𝚃𝙴 𝚁𝙰𝙱𝙱𝙸𝚃

51,041 просмотров • 6 месяцев назад

QUANTUM COMPUTING: THE FUTURE IS NOW IBM recently announced a quantum computer capable of solving problems in minutes that would take today's supercomputers millions of years. Developed by IBM, Google, and others, quantum computers push the boundaries of science and engineering, utilizing atomic forces to achieve unprecedented computational power. A simple maze shows how quantum computing can outpace classic computers. Michio Kaku: “All the big boys who are in this race to create a workable, operationally efficient quantum computer because the nation or company that does this will rule the world economy.” Source: 60 Minutes

QUANTUM COMPUTING: THE FUTURE IS NOW IBM recently announced a quantum computer capable of solving problems in minutes that would take today's supercomputers millions of years. Developed by IBM, Google, and others, quantum computers push the boundaries of science and engineering, utilizing atomic forces to achieve unprecedented computational power. A simple maze shows how quantum computing can outpace classic computers. Michio Kaku: “All the big boys who are in this race to create a workable, operationally efficient quantum computer because the nation or company that does this will rule the world economy.” Source: 60 Minutes

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Is there anything computers can't do? Does Alan Turing's revolutionary work remain relevant in a world with generative AI and quantum computers? Announcing a new mini-series, for a general audience, on Computation and Its Limits. This is one of several short courses on the new Ergo platform, "a nonprofit that publishes long-form philosophical lectures online, without ads or paywalls." Get started at

Is there anything computers can't do? Does Alan Turing's revolutionary work remain relevant in a world with generative AI and quantum computers? Announcing a new mini-series, for a general audience, on Computation and Its Limits. This is one of several short courses on the new Ergo platform, "a nonprofit that publishes long-form philosophical lectures online, without ads or paywalls." Get started at

Tim Roughgarden

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String Theory is one of the few frameworks that tries to describe Quantum Physics and Gravity in the same mathematical language. In this animation, the glowing loop is the string, the shifting color along it represent its quantum vibration modes, and the surrounding fabric is a proxy for Spacetime responding. When you quantize a string, one of its vibration modes behaves like a graviton. So, geometry shows up as part of the same quantum system. #StringTheory #QuantumGravity #GeneralRelativity #QuantumPhysics #TheoreticalPhysics #PhysicsVisualization

String Theory is one of the few frameworks that tries to describe Quantum Physics and Gravity in the same mathematical language. In this animation, the glowing loop is the string, the shifting color along it represent its quantum vibration modes, and the surrounding fabric is a proxy for Spacetime responding. When you quantize a string, one of its vibration modes behaves like a graviton. So, geometry shows up as part of the same quantum system. #StringTheory #QuantumGravity #GeneralRelativity #QuantumPhysics #TheoreticalPhysics #PhysicsVisualization

Mathelirium

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From the sphere, the ORIGIN of all form, arise the 5 Platonic Solids of pure GEOMETRY - mental constructs shaping our reality. Mathematically FAWLESS, the sum of their internal angles always resolves to 9, the number of COMPLETION mirroring the infinite cycles of life. Yet HIDDEN within them is a sixth: the Star tetrahedron or MERKABA, the union of body and spirit, matter and light. "The laws of nature are written by the hand of God in the language of mathematics." ~ Galileo

From the sphere, the ORIGIN of all form, arise the 5 Platonic Solids of pure GEOMETRY - mental constructs shaping our reality. Mathematically FAWLESS, the sum of their internal angles always resolves to 9, the number of COMPLETION mirroring the infinite cycles of life. Yet HIDDEN within them is a sixth: the Star tetrahedron or MERKABA, the union of body and spirit, matter and light. "The laws of nature are written by the hand of God in the language of mathematics." ~ Galileo

WhatdoIknow

21,221 просмотров • 9 месяцев назад

With a landmark paper published in nature, researchers from IBM Quantum and UC Berkeley are demonstrating the usefulness of the quantum computers we have today, opening the door to a new era in quantum computing—the era of quantum utility.

With a landmark paper published in nature, researchers from IBM Quantum and UC Berkeley are demonstrating the usefulness of the quantum computers we have today, opening the door to a new era in quantum computing—the era of quantum utility.

IBM Research

44,610 просмотров • 3 лет назад

$When the camera looks into itself it collapses into a fractal cascade of ever-evolving geometry. You do the same thing in expanded states of consciousness. The difference being that you are conscious and can derive information from these fundamental structures of reality.$

When the camera looks into itself it collapses into a fractal cascade of ever-evolving geometry. You do the same thing in expanded states of consciousness. The difference being that you are conscious and can derive information from these fundamental structures of reality.

Jay Anderson

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The observer effect in quantum physics is the phenomenon where the act of measurement or observation alters the state of a quantum system, causing it to behave differently than it would if unobserved. This interaction often collapses a particle's wave-like potentiality into a definite, measurable state, challenging classical notions of objective reality.

The observer effect in quantum physics is the phenomenon where the act of measurement or observation alters the state of a quantum system, causing it to behave differently than it would if unobserved. This interaction often collapses a particle's wave-like potentiality into a definite, measurable state, challenging classical notions of objective reality.

Philosophy Of Physics

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It is an Armillary Sphere. Which is also the Shape of a Stargate. Wheels Within Wheels. As Above, So Below.

It is an Armillary Sphere. Which is also the Shape of a Stargate. Wheels Within Wheels. As Above, So Below.

Canary In The Coal Mine

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What going through a wormhole looks like depends on if you're the traveler or the observer. What seems like passing through a door to one looks like teleportation to another. This nature of reality implies that everything is simply information.

What going through a wormhole looks like depends on if you're the traveler or the observer. What seems like passing through a door to one looks like teleportation to another. This nature of reality implies that everything is simply information.

Ashton Forbes

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Angels and Energy. Feathers or fields, wheels or waves - the same INTELLIGENCE expresses itself through messenger, matter, and motion.

Angels and Energy. Feathers or fields, wheels or waves - the same INTELLIGENCE expresses itself through messenger, matter, and motion.

WhatdoIknow

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