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A droplet “walking” on a vibrating fluid can mimic quantum physics, forming diffraction patterns just like electrons in the Kapitza-Dirac effect. A rare, visible model of wave-particle duality, letting us watch quantum-like behavior in the macroscopic world.

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Bluntly Put Philosopher (BPP)

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16,439 görüntüleme • 6 ay önce •via X (Twitter)

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Visualization of quantum particle scattering and diffraction in crystal lattices.
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Visualization of quantum particle scattering and diffraction in crystal lattices.

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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.
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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.

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Call it whatever you want, but when a person phases through a wall, that's teleportation to me. Macroscopic quantum tunneling just won the Nobel Prize in Physics.
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Call it whatever you want, but when a person phases through a wall, that's teleportation to me. Macroscopic quantum tunneling just won the Nobel Prize in Physics.

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SCIENTISTS TURN LIGHT INTO A MEMORY SYSTEM Scientists built a tiny photonic chip and sent identical photons through it, expecting messy quantum behavior. Instead, the light started acting like a memory system, forming patterns that match a classic AI model used for associative memory. In simple terms, the interference between photons did the math needed to store and recall patterns. No brain, no computer, just light physics doing the computing. Source: NewsForce

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“This brings quantum physics from the subatomic world onto a chip.” Göran Johansson, member of the Nobel Committee for Physics, speaks about the research behind the 2025 physics prize, which demonstrated the bizarre properties of the quantum world in a system big enough to be held in the hand. #NobelPrize
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“This brings quantum physics from the subatomic world onto a chip.” Göran Johansson, member of the Nobel Committee for Physics, speaks about the research behind the 2025 physics prize, which demonstrated the bizarre properties of the quantum world in a system big enough to be held in the hand. #NobelPrize

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Paul Dirac speaking to F. Hund on symmetry in relativity, Quantum Mechanics and Physics of Elementary Particles, Göttingen, 1982.
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Paul Dirac speaking to F. Hund on symmetry in relativity, Quantum Mechanics and Physics of Elementary Particles, Göttingen, 1982.

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Why quantum theory could have a fractal structure: explained in 83 minutes. The notion of true quantum nonlocality is absurd. In the latest episode of the Quantum Foundations Podcast, Prof Tim Palmer from the University of Oxford suggests that there is a hidden assumption in standard quantum mechanics, and dropping it will save us from this absurdity. Namely, the reality of counterfactuals: the physics of what could have happened but did not. Inspired by chaos theory and the fractal structure widespread in atmospheric physics, Palmer has developed a new underlying structure for quantum theory, with radical implications for our fundamental principles of quantum physics; the limits of quantum computation; and perhaps even the search for quantum gravity. Watch on my YouTube channel, or listen on Spotify and Apple Podcasts!
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Why quantum theory could have a fractal structure: explained in 83 minutes. The notion of true quantum nonlocality is absurd. In the latest episode of the Quantum Foundations Podcast, Prof Tim Palmer from the University of Oxford suggests that there is a hidden assumption in standard quantum mechanics, and dropping it will save us from this absurdity. Namely, the reality of counterfactuals: the physics of what could have happened but did not. Inspired by chaos theory and the fractal structure widespread in atmospheric physics, Palmer has developed a new underlying structure for quantum theory, with radical implications for our fundamental principles of quantum physics; the limits of quantum computation; and perhaps even the search for quantum gravity. Watch on my YouTube channel, or listen on Spotify and Apple Podcasts!

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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 🤓
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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

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This is what happens when a quantum wave-function hits a wall that it does not have enough energy to cross. Part of it goes through anyway. This is the famous "tunnel-effect". A particle without quantum properties cannot do that.
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Erwin Schrödinger’s 1926 equation turned quantum mechanics into wave dynamics. Instead of tracking a particle by a sharp trajectory, you evolve a complex wavefunction whose shape and phase carry the physics.
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Erwin Schrödinger’s 1926 equation turned quantum mechanics into wave dynamics. Instead of tracking a particle by a sharp trajectory, you evolve a complex wavefunction whose shape and phase carry the physics.

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Scientists have achieved an atomic diffraction through a crystal, showing that atoms really can behave like waves. - Atoms behave like waves - Could power ultra-sensitive quantum sensors - A leap toward next-gen quantum computing A new window into atomic structures and quantum phenomena. Learn more here -
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Scientists have achieved an atomic diffraction through a crystal, showing that atoms really can behave like waves. - Atoms behave like waves - Could power ultra-sensitive quantum sensors - A leap toward next-gen quantum computing A new window into atomic structures and quantum phenomena. Learn more here -

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2. The Observer Effect is real. In quantum physics, particles change behavior when they are observed. Which means: Reality isn’t fixed. It responds to attention. Your focus doesn’t just interpret the world—it alters it.
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2. The Observer Effect is real. In quantum physics, particles change behavior when they are observed. Which means: Reality isn’t fixed. It responds to attention. Your focus doesn’t just interpret the world—it alters it.

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Liquid oxygen is magnetic. O₂ has two unpaired electrons, so when it liquefies, those spins line up and the fluid is paramagnetic, it gets pulled into a magnet. A cryogenic liquid behaving like a metal? Quantum mechanics on display.
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Liquid oxygen is magnetic. O₂ has two unpaired electrons, so when it liquefies, those spins line up and the fluid is paramagnetic, it gets pulled into a magnet. A cryogenic liquid behaving like a metal? Quantum mechanics on display.

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In this episode, I speak with Professor Felix Finster, a radical thinker reimagining the foundations of physics. We explore his theory of causal fermion systems, where reality emerges from quantum correlations—without assuming spacetime or geometry. From the Dirac sea to quantum gravity, this conversation challenges familiar concepts and offers a glimpse into where the next physics revolution might begin.

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