Honeybee aging as an emergent property of a self-organizing dissipative system.

The honeybee colony provides a remarkable example of aging plasticity emerging from collective biological organization. Through the reciprocal regulation of juvenile hormone (JH) and vitellogenin (Vg), honeybees demonstrate that aging is a dynamic and reversible process shaped by social and environmental conditions. The JH-Vg axis acts as a biological metronome that coordinates behavioral state, lifespan, and seasonal colony dynamics, synchronizing colony persistence with ecological and planetary rhythms. At the colony level, physiological states are continuously adjusted through interactions among endocrine regulation, pheromonal communication, and environmental cues. As a result, the colony maintains its organization not through static equilibrium, but through ongoing transitions between alternative physiological states that support either rapid growth or long-term survival. In this sense, the honeybee superorganism can be viewed as a self-organizing dissipative system-an open biological system that maintains order through the continuous exchange of energy, information, and resources with its environment. This perspective highlights how aging in eusocial insects emerges not solely from individual decline, but from multilevel regulatory interactions linking cells, organisms, colonies, and ecosystems.