Biological systems spontaneously convert energy input into the actions necessary to survive.
Motivated by the efficacy of these processes, researchers aim to forge materials systems that …

In the presence of appropriate substrates, surface-anchored enzymes can act as pumps and
propel fluid through microchambers. Understanding the dynamic interplay between catalytic …

Both non-neural and neural biological systems can learn. So rather than focusing on purely
brain-like learning, efforts are underway to study learning in physical systems. Such efforts …

Nanoscale enzymes anchored to surfaces act as chemical pumps by converting chemical
energy released from enzymatic reactions into spontaneous fluid flow that propels entrained …

Communication in biological systems typically involves enzymatic reactions that occur within
fluids confined between the soft, elastic walls of bio-channels and chambers. Through the …

We study the emergence of fluid flow in a closed chamber that is driven by dynamical
deformations of an elastic sheet. The sheet is compressed between the sidewalls of the …

The immense potential of active colloids in practical applications and fundamental research
calls for an efficient method to synthesize active colloids of high uniformity. Herein, a facile …

O termo" auto-organização em sistemas químicos" compreende a área de estudo da
dinâmica de sistemas que reagem quimicamente em condições afastadas do equilíbrio …