Biological cells construct their own local environments by depositing bioelectrically active components into surrounding physical matter. People often assume that environmental modification belongs only to whole animals reshaping forests or building nests. Instead, microscopic cells manipulate their immediate spaces to establish continuous feedback loops that guide their behavior and long-term structure.
Cells release charged materials directly into the surrounding extracellular matrix. This physical alteration acts like a physical scratchpad where information stays written outside the cell membrane. As the environment changes, these deposited electrical patterns push signals back into the cells to direct planning, problem solving, and collective group movement. The resulting feedback loop allows non-living surroundings to hold shared data that preserves cellular organization over time.
The authors evaluated predictive processing models across developmental biology, cancer, robotics, and artificial systems. Their analysis tracked how living tissues leave dynamic bioelectric traces in their microenvironments during active stigmergy. The collected observations demonstrated that biological agents offload complex computational tasks directly onto the physical structures around them.
The authors state that identifying these shared feedback dynamics across different physical scales will guide future work in biomedicine, engineering, and artificial intelligence. Engineers can apply these bioelectric storage mechanisms to design adaptive robotic systems and synthetic media that process information without traditional centralized controllers.