A Boundary-Stabilized Theory of Emergent Integer Objects

This paper proposes a theory in which the number of objects in a system is not treated as a primitive given, but as an emergent result of structural stability. An entity becomes countable only when it has a sufficiently stable boundary, a self-maintaining internal organization, and enough separability from other entities. The starting point is the destruction side of the framework. An already existing object can lose its countability when its boundary is damaged or when its internal self-maintaining structure breaks down. In this view, destruction is not simply the loss of material. A system may preserve mass, energy, or matter while still losing objecthood. What disappears is the stable structure that allows something to be counted as one object. The paper then develops the inverse process: creation. Creation does not begin with an already formed object. It begins with a proto-region, an undifferentiated part of the background that is not yet countable. Such a region becomes a countable object only when it acquires both a boundary and an internal self-maintaining structure. In this sense, creation is the formation of countability from a previously unformed region. The destruction and creation processes are formally dual. Destruction measures how much of an existing object remains stable under an action. Creation measures how much boundary and internal organization a proto-region acquires under an action. Destruction is therefore a loss process, while creation is an acquisition process. A key result of the paper is that object number changes through threshold transitions. As a destructive action becomes stronger, existing objects cross critical points and disappear from the count. The number of objects then decreases in discrete steps. Conversely, as a constructive action becomes stronger, proto-regions cross formation thresholds and enter the count as new objects. The number of objects then increases in discrete steps. Thus integer countability arises from continuous stability data through thresholding. The paper also shows that countability is not determined only by individual objecthood. Even if several candidates are individually stable, they cannot be counted separately unless they are mutually separable. This is expressed through a separability graph. The actual number of countable objects is determined by the largest collection of candidates that are both individually viable and mutually distinguishable. The same idea applies to creation. Several proto-regions may acquire enough structure to become object-like, but if they are not separable from one another, they do not necessarily increase the count by the same amount. The created count is therefore also constrained by separability. The central dynamical claim is that the object count evolves by a balance between destruction and creation. At each stage, the next count is obtained by subtracting the number of destroyed objects and adding the number of newly created objects. Object number is therefore not a conserved quantity. It is a dynamic integer produced by the competition between loss of structure and formation of structure. The Hamiltonian interpretation gives a physical realization of this idea. Destruction corresponds to the disappearance or destabilization of an existing stable minimum. Creation corresponds to the birth of a new stable minimum. A proto-region becomes a new object only when a stable branch appears and when that branch also satisfies the boundary and self-maintenance requirements. Finally, the paper emphasizes an important asymmetry between creation and destruction. Mathematically, the two processes are dual. Physically, they are not symmetric. Destruction can often proceed along the direction of increasing entropy. Creation, however, requires the formation of order. It must create a boundary and an internal maintenance structure, so it requires a favorable free-energy channel. In this sense, destruction can occur as a flow, while creation is a climb. The main conclusion is that the integer structure of the world is not simply imposed from outside. It emerges from the interaction of boundary stability, internal maintenance, separability, energetic stability, and the competing flows of creation and destruction. Countability is therefore not merely a logical label, but a dynamic structural property.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-17
DOI
https://doi.org/10.5281/zenodo.20252831
Primary Topic
Origins and Evolution of Life
Type
preprint
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A Boundary-Stabilized Theory of Emergent Integer Objects

Jeong Min Yeon
Zenodo (CERN European Organization for Nuclear Research)
Origins and Evolution of Life
preprint

A Boundary-Stabilized Theory of Emergent Integer Objects

Jeong Min Yeon
preprint en

Abstract

This paper proposes a theory in which the number of objects in a system is not treated as a primitive given, but as an emergent result of structural stability. An entity becomes countable only when it has a sufficiently stable boundary, a self-maintaining internal organization, and enough separability from other entities. The starting point is the destruction side of the framework. An already existing object can lose its countability when its boundary is damaged or when its internal self-maintaining structure breaks down. In this view, destruction is not simply the loss of material. A system may preserve mass, energy, or matter while still losing objecthood. What disappears is the stable structure that allows something to be counted as one object. The paper then develops the inverse process: creation. Creation does not begin with an already formed object. It begins with a proto-region, an undifferentiated part of the background that is not yet countable. Such a region becomes a countable object only when it acquires both a boundary and an internal self-maintaining structure. In this sense, creation is the formation of countability from a previously unformed region. The destruction and creation processes are formally dual. Destruction measures how much of an existing object remains stable under an action. Creation measures how much boundary and internal organization a proto-region acquires under an action. Destruction is therefore a loss process, while creation is an acquisition process. A key result of the paper is that object number changes through threshold transitions. As a destructive action becomes stronger, existing objects cross critical points and disappear from the count. The number of objects then decreases in discrete steps. Conversely, as a constructive action becomes stronger, proto-regions cross formation thresholds and enter the count as new objects. The number of objects then increases in discrete steps. Thus integer countability arises from continuous stability data through thresholding. The paper also shows that countability is not determined only by individual objecthood. Even if several candidates are individually stable, they cannot be counted separately unless they are mutually separable. This is expressed through a separability graph. The actual number of countable objects is determined by the largest collection of candidates that are both individually viable and mutually distinguishable. The same idea applies to creation. Several proto-regions may acquire enough structure to become object-like, but if they are not separable from one another, they do not necessarily increase the count by the same amount. The created count is therefore also constrained by separability. The central dynamical claim is that the object count evolves by a balance between destruction and creation. At each stage, the next count is obtained by subtracting the number of destroyed objects and adding the number of newly created objects. Object number is therefore not a conserved quantity. It is a dynamic integer produced by the competition between loss of structure and formation of structure. The Hamiltonian interpretation gives a physical realization of this idea. Destruction corresponds to the disappearance or destabilization of an existing stable minimum. Creation corresponds to the birth of a new stable minimum. A proto-region becomes a new object only when a stable branch appears and when that branch also satisfies the boundary and self-maintenance requirements. Finally, the paper emphasizes an important asymmetry between creation and destruction. Mathematically, the two processes are dual. Physically, they are not symmetric. Destruction can often proceed along the direction of increasing entropy. Creation, however, requires the formation of order. It must create a boundary and an internal maintenance structure, so it requires a favorable free-energy channel. In this sense, destruction can occur as a flow, while creation is a climb. The main conclusion is that the integer structure of the world is not simply imposed from outside. It emerges from the interaction of boundary stability, internal maintenance, separability, energetic stability, and the competing flows of creation and destruction. Countability is therefore not merely a logical label, but a dynamic structural property.

Zenodo (CERN European Organization for Nuclear Research)
Korea Aerospace University (KR)
Origins and Evolution of Life
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