How the quantum vacuum perturbs atoms, could shrink black holes and may have helped form galaxies
The word "vacuum" may conjure the image of empty space. Maybe you think of a region far outside the solar system without planets, debris, gas clouds or light. According to quantum theory, however, a vacuum is never truly empty. Quantum…
Phys.org Quantum Physics
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Oct 29, 2026 at 9:30 PM UTC · 1 min read

The word "vacuum" may conjure the image of empty space. Maybe you think of a region far outside the solar system without planets, debris, gas clouds or light. According to quantum theory, however, a vacuum is never truly empty. Quantum mechanics extends the Heisenberg uncertainty principle—which states that we cannot measure the position and the velocity of an object exactly at the same time—to a vacuum. The result is that a vacuum can never be still.
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Originally reported by Phys.org Quantum Physics
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