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Quantum Droplets: Precision Unattainable ⚡ экспресс

Original: "Finite-Precision Quantum Mechanics"
· Abbas Edalat
arXiv:2605.19706 · 2026-05-19 · CC BY 4.0 · ⏱ 1 min · Quantum Physics Math Physics Math Physics
Scientists replaced point-like quantum states with fuzzy 'droplets' — and all the paradoxes vanished.
Abstract

Experiments are never perfect, so ideal quantum states don't exist. The new approach replaces a point with a 'quantum region' — a set of compatible approximations. This solves puzzles: Schrödinger's cat is just a mixture of micro-scenarios, and quantum telepathy disappears. So maybe reality is simply blurry?

Links in the knowledge graph 1

The quantum world is usually drawn with points, but real instruments only see blurry spots. Heisenberg and von Neumann long suspected: precision is unattainable. A new theory suggests thinking of states as 'quantum droplets' — regions of possible values, like a droplet of water under a microscope with its fuzzy boundary.

Each droplet encompasses many microstates, and measurement squeezes it, increasing our knowledge and decreasing entropy — a measure of uncertainty.

An unexpected conclusion: if we abandon the illusion of precision, paradoxes vanish by themselves. Schrödinger's cat was never both alive and dead — it's just that both possibilities coexist in the fuzzy droplet, and the 'spooky connection' at a distance reduces to ordinary knowledge updating, no faster than light. Standard quantum mechanics turns out to be just an approximation — as if we considered a real droplet as a perfect sphere.

🎯 Information in the new theory is simply the volume of the droplet. The more precise the measurement, the smaller the droplet, and knowledge grows — as if fog condenses into a visible form.

Scientists
Christian DopplerD. B. McLaughlinDidier QuelozMichel MayorR. A. RossiterAlbert Einstein
Tags
entropy Water speed of light
Laws
second law of thermodynamicsDoppler effectprinciple of constancy of the speed of lightBekenstein-Hawking entropymass–energy equivalenceMaxwell's equations
Original: arXiv:2605.19706 · CC BY 4.0 · bridge42worlds