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Twisted Solar Loop Reveals the Secret of Magnetic Explosions ⚡ экспресс

Original: "Twisted-pair unilateral reconnection: A unifying driver for magnetically powered astrophysical bursts"
arXiv:2606.13953 · 2026-06-11 · CC BY · ⏱ 1 min · High Energy Stellar
Twisted like a phone cord, a magnetic loop on the Sun snapped and ejected gas, showing that plasma pulsations are a universal way to measure magnetic fields across the Universe.
Abstract

Imagine a tightly twisted rubber band that snaps and suddenly straightens. For the first time, scientists witnessed something similar in a solar flare: a magnetic loop was twisted by 540 degrees (one and a half turns) and burst from one end, flinging out hot plasma. It’s like a spring breaking on just one side. Could this be how the solar corona gets heated?

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A tightly twisted phone cord snaps and scatters sparks. Magnetic fields on the Sun behave the same way: they twist, break, and reconnect, powering flares. For the first time, astronomers have witnessed this process directly. One loop was twisted by 540 degrees — one full turn and then half again. That’s three times more than previously thought possible. The break happened at only one end, and hot gas burst out, explaining the heating of the solar corona.

At the break site, hard X-rays were detected — direct evidence that reconnection accelerates particles. Scientists uncovered a pattern: the frequency of plasma pulsations is directly tied to the magnetic field strength. This rule works everywhere — from black holes to neutron stars and magnetars. Now, simply by watching the tremors, we can measure an object’s magnetic field anywhere in the Universe.

🎯 The solar loop was so twisted that if it were a rubber band, you’d have to twist it one and a half times before it snapped.

Scientists
Stephen HawkingJacob BekensteinAlbert EinsteinFritz ZwickyVera RubinBernhard Riemann
Tags
Sun black hole neutron star pulsar photometry
Laws
Hawking radiationgravitational lensingBekenstein-Hawking entropyEinstein field equationsStefan–Boltzmann lawFermi–Dirac statistics
Original: arXiv:2606.13953 · CC BY · bridge42worlds