Half a billion years ago, a strange sea-dwelling creature called Mollisonia symmetrica may have paved the way for modern spiders. Using detailed fossil brain analysis, researchers uncovered neural patterns strikingly similar to today’s arachnids—suggesting spiders evolved in the ocean, not on land as previously believed. This brain structure even hints at a critical evolutionary leap that allowed spiders their infamous speed, dexterity, and web-spinning prowess. The findings challenge long-held assumptions about arachnid origins and may even explain why insects took to the skies: to escape their relentless, silk-spinning predators.
Half a billion years ago, a strange sea-dwelling creature called Mollisonia symmetrica may have paved the way for modern spiders. Using detailed fossil brain analysis, researchers uncovered neural patterns strikingly similar to today’s arachnids—suggesting spiders evolved in the ocean, not on land as previously believed. This brain structure even hints at a critical evolutionary leap that allowed spiders their infamous speed, dexterity, and web-spinning prowess. The findings challenge long-held assumptions about arachnid origins and may even explain why insects took to the skies: to escape their relentless, silk-spinning predators. Half a billion years ago, a strange sea-dwelling creature called Mollisonia symmetrica may have paved the way for modern spiders. Using detailed fossil brain analysis, researchers uncovered neural patterns strikingly similar to today’s arachnids—suggesting spiders evolved in the ocean, not on land as previously believed. This brain structure even hints at a critical evolutionary leap that allowed spiders their infamous speed, dexterity, and web-spinning prowess. The findings challenge long-held assumptions about arachnid origins and may even explain why insects took to the skies: to escape their relentless, silk-spinning predators.