Beyond Chemical Signaling: Evidence for a Universal Information - Exchange Mechanism in Living Systems Revealed Through Ant Foraging Behavior

Ant navigation is widely explained through pheromone-mediated trail formation and reinforcement, which accounts for efficient shortest-path selection in two-dimensional environments. However, certain three-dimensional foraging behaviors—such as navigation toward suspended food sources or the rapid use of newly established material paths—raise questions about whether chemical gradients alone fully explain route detection and selection. This paper examines experimental observations that appear difficult to reconcile with purely diffusion-based pheromone models and proposes an expanded framework incorporating the concept of Intrinsic Energy Spin (IESpin) fields. According to this hypothesis, all entities possess an intrinsic spin (ISpin) that encodes their fundamental intrinsic properties. The ISpin field propagates through space and interacts with other entities in the universe, giving rise to an IESpin field. These fields are proposed to propagate preferentially through continuous matter, potentially allowing organisms to detect spatial pathways and resource signatures via field gradients. The hypothesis generates experimentally testable predictions concerning material-dependent transmission, pheromone-independent navigation, and the possible existence of non-chemical sensory mechanisms in ants.