Vitology and Complexity Science: Self-Organization, Emergence, and the Dynamics of Viability

This article presents a theoretical comparison between Vitology and complexity science in order to distinguish established concepts of self-organization, emergence, nonlinear dynamics, and complex adaptive systems from the possible scientific added value of the Vitological approach. It is shown that the existence of self-organization, the emergence of systemic properties, multiplicity of states, nonlinear transitions, adaptivity, distributed interaction, and formation of new levels of organization cannot be regarded as independent scientific novelties of Vitology. Particular attention is given to the distinction between emergence of order and change in viability. Self-organization may expand system possibilities, but it may also generate rigid, fragile, or resource-intensive configurations. Similarly, an emergent property may increase, leave unchanged, or reduce subsequent viability. On this basis, a candidate hypothesis concerning the direction of complexity dynamics relative to viability is developed. It is proposed that change in a complex system be investigated not only through its structure and emergent properties but also through changes in V, recovery and adaptive reserves, position relative to viability boundaries, and the space of accessible future states. A distinction is introduced between self-organization as a mechanism of emergence or restructuring of order and viability as a candidate coordinate for assessing the functional significance of that order for subsequent system preservation. The article further distinguishes emergence as the appearance of a new property from the effect of emergence on viability as a separate testable outcome. The independent scientific value of this extension is made conditional on whether it improves prediction of subsequent complex-system trajectories relative to existing descriptions of structure, dynamics, and complexity. The article establishes a basis for subsequent comparison between Vitology and cybernetics and for later empirical testing of candidate regularities of viability. Keywords Vitology; complexity science; viability; self-organization; emergence; complex adaptive systems; nonlinear dynamics; viable trajectory; viability coordinate; future viable states; adaptive reserve; recovery reserve; viability boundary; direction of complexity dynamics; scientific novelty; falsifiability; empirical testing.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-25
DOI
https://doi.org/10.5281/zenodo.22101011
Primary Topic
Complex Systems and Dynamics
Type
article
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article

Vitology and Complexity Science: Self-Organization, Emergence, and the Dynamics of Viability

Serhii Hostiunin
Zenodo (CERN European Organization for Nuclear Research)
Complex Systems and Dynamics
article

Vitology and Complexity Science: Self-Organization, Emergence, and the Dynamics of Viability

Serhii Hostiunin
article en

Abstract

This article presents a theoretical comparison between Vitology and complexity science in order to distinguish established concepts of self-organization, emergence, nonlinear dynamics, and complex adaptive systems from the possible scientific added value of the Vitological approach. It is shown that the existence of self-organization, the emergence of systemic properties, multiplicity of states, nonlinear transitions, adaptivity, distributed interaction, and formation of new levels of organization cannot be regarded as independent scientific novelties of Vitology. Particular attention is given to the distinction between emergence of order and change in viability. Self-organization may expand system possibilities, but it may also generate rigid, fragile, or resource-intensive configurations. Similarly, an emergent property may increase, leave unchanged, or reduce subsequent viability. On this basis, a candidate hypothesis concerning the direction of complexity dynamics relative to viability is developed. It is proposed that change in a complex system be investigated not only through its structure and emergent properties but also through changes in V, recovery and adaptive reserves, position relative to viability boundaries, and the space of accessible future states. A distinction is introduced between self-organization as a mechanism of emergence or restructuring of order and viability as a candidate coordinate for assessing the functional significance of that order for subsequent system preservation. The article further distinguishes emergence as the appearance of a new property from the effect of emergence on viability as a separate testable outcome. The independent scientific value of this extension is made conditional on whether it improves prediction of subsequent complex-system trajectories relative to existing descriptions of structure, dynamics, and complexity. The article establishes a basis for subsequent comparison between Vitology and cybernetics and for later empirical testing of candidate regularities of viability. Keywords Vitology; complexity science; viability; self-organization; emergence; complex adaptive systems; nonlinear dynamics; viable trajectory; viability coordinate; future viable states; adaptive reserve; recovery reserve; viability boundary; direction of complexity dynamics; scientific novelty; falsifiability; empirical testing.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 9%
Complex Systems and Dynamics
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