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In the ebb and flow of crowded crosswalks, a surprising pattern emerges: people can naturally form neat lanes of movement. But what flips the switch from graceful organization to chaotic weaving?

An international team of researchers has pinpointed a specific tipping point: when pedestrians deviate more than 13 degrees from their path, order collapses. Backed by math, experiments, and real-world testing, this discovery could revolutionize how cities manage foot traffic.

From flow to frenzy: what disrupts pedestrian order?

Type 2 diabetes may quietly alter the brain in ways that mimic early Alzheimer’s, weakening reward perception and memory signals in a key brain area called the anterior cingulate cortex (ACC). In a rat study, diabetic animals still behaved normally but processed rewarding locations differently, s

Scientists at EMBL have captured how human chromosomes fold into their signature rod shape during cell division, using a groundbreaking method called LoopTrace. By observing overlapping DNA loops forming in high resolution, they revealed that large loops form first, followed by nested smaller loo