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Celestial Waves: Found in Just 16 Seconds ⚡ экспресс

Original: "GstLAL O4 Online Results Paper"
arXiv:2605.19153 · 2026-05-18 · CC BY · ⏱ 1 min · General Relativity High Energy Instrumentation
The GstLAL program catches space tremors so fast that astronomers have time to point telescopes at the fading flash.
Abstract

Imagine the gravitational-wave observatory is a sensitive ear, and telescopes are eyes. When neutron stars collide, the GstLAL program instantly alerts the 'eyes,' on average within 16 seconds. During the observation period, it didn't sleep 98% of the time and helped discover 250 suspicious signals. Will we ever see these flashes in real time?

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Spacetime is not an emptiness but an elastic membrane. When neutron stars (super-dense spheres the size of a city) or black holes collide, the membrane shudders: gravitational waves ripple across it. This effect was predicted by Einstein, and the cosmic trembling was heard thanks to detectors built with the participation of Rainer Weiss. Each such 'chirp' lasts a fraction of a second, and the light from it fades in minutes.

That's when the GstLAL program steps in—a virtuoso listener that spots a real signal amid noise in just 16 seconds. It runs almost non-stop (98% of the time) and in the latest observing season was first to warn about 222 out of 250 cosmic catastrophes. Moreover, 75 of those were detected by no one else—these signals nearly slipped away from science.

Interestingly, the space displacement from a wave is a thousand times smaller than a proton, yet LIGO's laser 'rulers' seize it nonetheless. GstLAL's success lies in its ability to act tens of seconds faster than its rivals, giving telescopes a chance to swivel toward the fading flash. The program's output matched the final catalog 93% of the time.

🎯 The GstLAL alarm sounds faster than a kettle boils: the average time is 16 seconds. This gives astronomers a chance to catch light that fades in minutes.

Scientists
Stephen HawkingJacob BekensteinAlbert EinsteinFritz ZwickyVera RubinBernhard Riemann
Tags
gravitational waves neutron star black hole
Laws
Hawking radiationgravitational lensingBekenstein-Hawking entropyEinstein field equationsFermi–Dirac statisticsChandrasekhar limit
Original: arXiv:2605.19153 · CC BY · bridge42worlds