Revolutionary 'Universal Murray's Law' Bridges Gap Between Natural and Synthetic Materials

A new theory inspired by natural vein structures promises enhanced efficiency in energy and environmental technologies.

Researchers at Cambridge Graphene Centre develop 'Universal Murray's Law', expanding the century-old biophysical Murray's Law to suit synthetic materials.
The new law minimizes energy use and flow resistance in diverse applications from batteries to gas sensors.
Graphene aerogel experiments validate the theory, showing reduced resistance and improved efficiency in fluid transport.
The adaptation allows for the structural design of materials with any pore shape, enhancing their application in various industries.
Potential impacts include more efficient energy storage solutions and faster, more responsive gas sensors.