June’s science roundup gathers several fascinating studies that nearly slipped through the cracks — from the biomechanics of soccer’s most effective dribble to the strange physics of how waste coils, a molecular “buckyball” made of boron, and the latest breakthrough in reading scrolls charred by Mount Vesuvius. Here are the standouts worth a closer look.
The physics of soccer's scissors feint
With the FIFA World Cup in full swing, even scientists’ thoughts have turned to soccer. One of the most common and effective dribbling moves is the “scissors feint,” in which a player uses the outside of their feet to fake going one way before cutting the other. Japanese researchers studied university and junior-high players of varying skill levels to break down the dribbling dynamics of the feint, capturing the movements with high-speed cameras. The work aims to pin down what separates a convincing feint from an easily read one — useful insight for anyone who follows the science of human movement.
Why poop coils the way it does
A trio of physicists examined how fresh waste coils, using the lugworm (Arenicola marina) as an unusual test case. Unlike most animals, lugworms defecate against gravity: they live in U-shaped burrows beneath the sand, and at low tide they position their rear below the burrow entrance and push feces up onto the beach. Remarkably, the resulting coils still obey elastic rope-coiling theory — the same physics that governs how a rope or a stream of honey piles up as it falls. It’s a quirky but genuine demonstration that everyday biological materials follow well-understood mechanical laws.
An 80-atom boron 'buckyball'
Researchers at Brown University reported the first experimental evidence for a “buckyball” made from 80 boron atoms — a cousin of the famous carbon buckyball. The original, known formally as buckminsterfullerene, is a soccer-ball-shaped molecule of 60 carbon atoms whose discovery helped launch the nanotechnology revolution just over 40 years ago. Finding a stable boron equivalent is a notable step for nanomaterials research, since boron’s bonding behavior differs from carbon’s and opens fresh possibilities. It’s the kind of fundamental result that quietly underpins future materials breakthroughs.
Reading the Herculaneum scrolls
The roundup also flags the latest milestone in the Vesuvius Challenge, the ongoing effort to decipher the Herculaneum papyri — scrolls carbonized by the eruption of Mount Vesuvius nearly 2,000 years ago. These fragile, blackened rolls are too delicate to physically unroll, so researchers use high-resolution scanning combined with AI to virtually “unwrap” and read the hidden text. After centuries in which the contents seemed permanently lost, the challenge has produced steady, remarkable progress in recovering ancient writing without ever touching it.
Why these stories matter
Taken together, these findings show the sheer range of modern research — from sports biomechanics and the physics of soft matter to nanoscale chemistry and AI-assisted archaeology. None will dominate headlines, but each adds a small, concrete piece to how we understand the physical world, whether it’s a striker’s footwork, a molecule’s geometry, or a message written before Pompeii fell. This roundup covers the stories detailed in the source; the full monthly list includes additional entries.
Frequently asked questions
What is the scissors feint in soccer?
A dribbling move where a player uses the outside of their feet to fake going one direction before cutting to the other; researchers used high-speed cameras to study its dynamics across skill levels.
What is a boron buckyball?
An 80-atom cage-like boron molecule reported by Brown University researchers — a counterpart to the carbon buckyball (buckminsterfullerene), the 60-carbon molecule that helped launch nanotechnology.
How are the Herculaneum scrolls being read?
Through the Vesuvius Challenge, which uses high-resolution scanning and AI to virtually unwrap and decipher scrolls too charred and fragile to open physically.
