What question did this study set out to answer?

This paper explores how fundamental bounds in physics may collectively influence the organization and stability of matter.

June 23, 2026Open Access

Stability as an Emergent Organizing Principle of Reality: A Hypothesis on Vacuum Fluctuations, Confinement and the Emergence of Stable Matter

Key Points

This paper explores how fundamental bounds in physics may collectively influence the organization and stability of matter.
Analyzes fundamental physical bounds such as speed of light and quantum discreteness.
Examines the quark-hadron transition within Quantum Chromodynamics (QCD) as a case study.
Develops a conceptual framework for understanding stability and emergence of structures.
Identifies stability-enabling boundaries in physical reality that influence matter's formation.
Demonstrates how unstable configurations disappear while stable structures emerge across various scales.
Reveals that physical persistence is an emergent property rather than a new law.

Abstract

Modern physics reveals that the observable universe is characterized by a variety of fun-damental bounds. Examples include the speed of light, quantum discreteness, confinement inQuantum Chromodynamics (QCD), and limits associated with information and thermodynam-ics. These bounds are typically treated as separate features of physical theories. However, theirbroader physical significance remains less explored.This paper examines the possibility that fundamental bounds constitute a common organiz-ing aspect of observable reality. The central observation is that stable physical structures emergeonly within specific physical constraints. Across many scales of nature, unstable configurationsdisappear, while stable configurations persist and become the building blocks of increasinglycomplex forms of organization.Particular attention is given to the quark–hadron transition. The QCD scale is interpretednot only as the onset of confinement, but also as a physically established example of a stability-enabling boundary. As the universe cooled through the QCD transition, deconfined quark–gluon degrees of freedom became reorganized into stable color-neutral hadronic states. Thesepersistent structures subsequently enabled the formation of nuclei, atoms, stars, galaxies, andall known forms of ordinary matter.Within this perspective, persistence is not introduced as a new physical law or interaction.Rather, it is viewed as an emergent consequence of the constraints imposed by physical realityitself. Observable reality is therefore dominated not by all physically possible configurations,but by those capable of remaining dynamically relevant across successive stages of physicalevolution.The framework developed here is exploratory and remains fully consistent with establishedquantum field theory, Quantum Chromodynamics, and standard cosmology. Its purpose is toinvestigate whether the recurring appearance of physical bounds may provide a useful conceptualframework for understanding the emergence of stability, persistence, and organized structurethroughout the observable universe.

Read Full Paperexternally

Ask AI

Mark Helpful

Bookmark

Relay

View Full Paper