Eerie Image Shows Spectacular Aftermath of a Large Star’s Death

An undated image shows a view of the orange and pink clouds that make up what remains after the explosive death of a massive star - the Vela supernova remnant. (ESO/VPHAS+ team/Cambridge Astronomical Survey Unit/Handout via Reuters)
An undated image shows a view of the orange and pink clouds that make up what remains after the explosive death of a massive star - the Vela supernova remnant. (ESO/VPHAS+ team/Cambridge Astronomical Survey Unit/Handout via Reuters)
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Eerie Image Shows Spectacular Aftermath of a Large Star’s Death

An undated image shows a view of the orange and pink clouds that make up what remains after the explosive death of a massive star - the Vela supernova remnant. (ESO/VPHAS+ team/Cambridge Astronomical Survey Unit/Handout via Reuters)
An undated image shows a view of the orange and pink clouds that make up what remains after the explosive death of a massive star - the Vela supernova remnant. (ESO/VPHAS+ team/Cambridge Astronomical Survey Unit/Handout via Reuters)

The aftermath of a large star's explosive death is seen in an image released on Monday by the European Southern Observatory, showing immense filaments of brightly shining gas that was blasted into space during the supernova.

Before exploding at the end of its life cycle, the star is believed to have had a mass at least eight times greater than our sun. It was located in our Milky Way galaxy about 800 light years from Earth in the direction of the constellation Vela. A light year is the distance light travels in a year, 5.9 trillion miles (9.5 trillion km).

The eerie image shows clouds of gas that look like pink and orange tendrils in the filters used by the astronomers, covering an expanse roughly 600 times larger than our solar system.

"The filamentary structure is the gas that was ejected from the supernova explosion, which created this nebula. We see the inside material of a star as it expands into space. When there are denser parts, some of the supernova material shocks with the surrounding gas and creates some of the filamentary structure," said Bruno Leibundgut, an astronomer affiliated with the European Southern Observatory (ESO).

The image shows the supernova remnants about 11,000 years after the explosion, Leibundgut said.

"Most of the material that shines is due to hydrogen atoms that are excited. The beauty of such images is that we can directly see what material was inside a star," Leibundgut added.

"The material that has been built up over many millions of years is now exposed and will cool down over millions of years until it eventually will form new stars. These supernovae produce many elements - calcium or iron - which we carry in our own bodies. This is a spectacular part of the path in the evolution of stars."

The star itself has been reduced in the aftermath of the supernova to an incredibly dense spinning object called a pulsar. A pulsar is a type of neutron star - one of the most compact celestial objects known to exist. This one rotates 10 times per second.

The image represented a mosaic of observations taken with a wide-field camera called OmegaCAM at the VLT Survey Telescope, hosted at the ESO's Paranal Observatory in Chile. The data for the image was collected from 2013 to 2016, the ESO said.



Eggs Are Less Likely to Crack When Dropped on Their Side, According to Science

Fresh eggs are delivered along with chickens and a portable chicken coop to a client’s house as part of the "Rent The Chicken" service in La Crescenta, California, on April 21, 2025. (AFP)
Fresh eggs are delivered along with chickens and a portable chicken coop to a client’s house as part of the "Rent The Chicken" service in La Crescenta, California, on April 21, 2025. (AFP)
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Eggs Are Less Likely to Crack When Dropped on Their Side, According to Science

Fresh eggs are delivered along with chickens and a portable chicken coop to a client’s house as part of the "Rent The Chicken" service in La Crescenta, California, on April 21, 2025. (AFP)
Fresh eggs are delivered along with chickens and a portable chicken coop to a client’s house as part of the "Rent The Chicken" service in La Crescenta, California, on April 21, 2025. (AFP)

Eggs are less likely to crack when they fall on their side, according to experiments with over 200 eggs.

What does this mean for the best way to crack an egg for breakfast? Not much, since a break around the middle is the best way to get the golden yolk and runny whites to ooze out.

But scientists said it could help with hard-boiling eggs in a pot: Dropping eggs in horizontally may be less likely to cause a stray crack that can unleash the egg's insides in a puffy, cloudy mess.

It's commonly thought that eggs are strongest at their ends — after all, it's how they're packaged in the carton. The thinking is that the arc-shaped bottom of an egg redirects the force and softens the blow of impact.

But when scientists squeezed eggs in both directions during a compression test, they cracked under the same amount of force.

"The fun started when we thought we would get one result and then we saw another," said Hudson Borja da Rocha with Massachusetts Institute of Technology, who helped run the experiments.

The researchers also ran simulations and dropped eggs horizontally and vertically from three short heights up to 0.4 inches (10 millimeters).

The egg result? The ones dropped horizontally cracked less.

"The common sense is that the egg in the vertical direction is stronger than if you lay the egg down. But they proved that's not the case," said materials scientist Marc Meyers with the University of California, San Diego who was not involved with the new study.

Scientists found that the egg's equator was more flexible and absorbed more of the energy of the fall before cracking. The findings were published Thursday in the journal Communications Physics.

Eggs are also usually nestled top-down into homemade contraptions for egg drop challenges as part of school STEM projects, which partially inspired the new study. It's not yet clear whether the new results will help protect these vulnerable eggs, which are dropped at much loftier heights.

It's a bit counterintuitive that the oblong side of an egg could hold up better against a tumble, said study co-author Tal Cohen with Massachusetts Institute of Technology.

Countless broken eggs show "the courage to go and challenge these very common, accepted notions," Cohen said.