The Principle of Dynamical Sensitivity of Structures within a Shared Physical Environment

Research across multiple scientific disciplines has demonstrated that physical, chemical and biological structures exhibit sensitivity to properties of their local environment. Such sensitivity may manifest through resonance phenomena, oscillatory behavior, or partial synchronization between interacting systems. These effects are commonly studied within specialized domains and specific physical contexts. However, the possibility that such sensitivity reflects a more general principle operating within a shared physical environment has received comparatively little explicit attention.

This work proposes the Principle of Dynamical Sensitivity, suggesting that structures emerging within such an environment exhibit dynamical responsiveness. Because all systems within a single universe are governed by the same fundamental laws and fields, they share a common dynamical background. Such a shared background allows interactions across multiple scales, potentially manifesting through resonance, excitation of dynamical modes, energy transfer, or partial synchronization between systems.

The present work does not introduce a new physical interaction but offers a conceptual framework that connects known physical phenomena within a broader interpretation of dynamical sensitivity in a shared physical environment.