Abstract
This article proposes a general theoretical framework for describing the conditions under which a form ceases to be a local fluctuation and becomes a force that effectively acts within a milieu. The central hypothesis is that no pattern acquires real effectivity unless it simultaneously crosses three critical thresholds: a threshold of intensity, which allows it to emerge from noise; a threshold of coherence, which allows it to act as a unit; and a threshold of transmissibility, which allows it to persist and propagate despite dissipation.
The ambition of the framework is not to replace the specialised theories proper to each domain, but to provide a transversal structure for thinking about phenomena of emergence, stabilisation and propagation in fields as diverse as culture, politics, biology, complex systems and artificial intelligence.
Table of contents
- Introduction
- Theoretical object and field of application
- Fundamental definitions
- Central hypothesis: the triple condition of effectivity
- The three dimensions of an acting pattern
- A graded ontology of forms
- Minimal formalisation of effectivity
- Relation to the milieu
- Grid for analysing the statuses of a pattern
- Temporal dynamics
- Non-linear interaction between I, C and T
- Competition between patterns
- Theoretical contributions
- Testable theoretical propositions
- Fields of application
- Issues of operationalisation
- Points of tension and open work
- Priorities of development
- Discussion
- Conclusion
Introduction
Many forms appear in reality without managing to weigh on it durably. Some emerge briefly, then dissipate. Others acquire a relative stability, but without significantly transforming their environment. Still others cross a decisive threshold: they maintain themselves, spread, inflect their milieu and sometimes end up durably structuring a space of action, perception or meaning.
This difference of status cannot be reduced to mere appearance, to visibility alone, or to persistence alone. A form can be spectacular without being organised. It can be organised without being transmissible. It can be transmissible without producing any notable transformative power.
The question is therefore not only how a form appears, but under what conditions it becomes effectively acting.
The hypothesis defended in this article is that a pattern becomes a force only on condition of simultaneously crossing three thresholds. It must be intense enough to emerge from noise, coherent enough to act as a unit, and transmissible enough to last beyond its initial occurrence. That triple condition defines what will here be called the effectivity threshold.
1. Theoretical object and field of application
The theory proposed does not bear on the whole of reality, but on a precise question: that of the passage from a local form to an effective force.
The term motif here designates any identifiable configuration of differences, relations, regularities or orientations liable, under certain conditions, to produce an effect. Depending on the case, a pattern may be a signal, a narrative, an idea, a behaviour, a technical innovation, an organisational structure, a cognitive representation, a biological mutation or a symbolic form.
The term milieu designates the set of constraints, supports, resistances, resources, interactions and inertias within which the pattern attempts to emerge, act and maintain itself.
2. Fundamental definitions
2.1. Pattern
A pattern will be understood as an identifiable configuration, relatively distinct from a statistical background, composed of elements that maintain a certain relation of organisation. The pattern is not necessarily stable or acting. It may be no more than a local or transient occurrence.
2.2. Effectivity
Effectivity will be understood as the real capacity of a pattern to emerge from noise, to maintain a sufficient functional unity, to produce a non-negligible causal effect, to persist over time and to be transmitted or propagated within a milieu. Effectivity is therefore not to be confused with mere presence or with visibility alone. It designates a regime in which a form ceases to be purely undergone and becomes locally operative.
2.3. Mass
The term mass does not here designate merely a quantity or a volume. It designates the set of background forces that tend to absorb, disperse, damp or neutralise emerging patterns. Mass includes in particular noise, statistical inertia, dissipation, fragmentation, chaotic redundancy and, more generally, everything that prevents a form from maintaining itself as a distinct and acting unit.
3. Central hypothesis: the triple condition of effectivity
The central hypothesis of this article is that a pattern becomes effectively acting only if it simultaneously crosses three critical thresholds:
These three dimensions are jointly necessary. None is sufficient on its own.
A pattern can be intense without being coherent. It then surges without structuring. It can be coherent without being intense enough. It then remains latent or marginal. It can be intense and coherent without being transmissible. It acts locally, then disappears. The passage to effectivity therefore presupposes a convergence.
4. The three dimensions of an acting pattern
4.1. Intensity
Intensity designates the capacity of a pattern to emerge from background noise. It corresponds to the minimal threshold of effective appearance. Without sufficient intensity, the pattern remains merged with the ordinary agitation of the milieu.
4.2. Coherence
Coherence designates the degree of internal alignment of the components of the pattern. It corresponds to the minimal threshold of effective organisation. Without sufficient coherence, the components contradict, neutralise or disperse one another.
4.3. Transmissibility
Transmissibility designates the capacity of a pattern to reproduce, communicate or propagate itself with sufficient fidelity to persist despite dissipation. It corresponds to the minimal threshold of historical persistence.
5. A graded ontology of forms
One of the major contributions of the framework is to introduce a distinction between several degrees of existence.
| Degree | Description |
|---|---|
| Fluctuation | Weak existence. A form appears, but without managing to stabilise itself or to produce a durable effect. |
| Motif | Organised existence. A form acquires a certain unity, an identifiable structure, even a functional coherence, without yet being necessarily acting in the strong sense. |
| Force | Effective existence. The pattern becomes able to inflect its milieu, to maintain itself and to propagate. |
6. Minimal formalisation of effectivity
A first formalisation of the effective power of a pattern can be given by the following function:
A pattern becomes acting when S > Scrit
This expression has above all a structural value. It means that a major weakness on any one of the three dimensions can compromise overall effectivity.
7. Relation to the milieu
The effectivity of a pattern does not depend only on its internal properties. It also depends on the texture of the milieu in which it attempts to deploy itself.
A pattern becomes effective when Φ > 1
A finer formulation consists in distinguishing differentiated resistances:
8. Grid for analysing the statuses of a pattern
| Status | Characteristics |
|---|---|
| Fluctuation | Reaches no threshold significantly. Absorbed by noise, dispersion or dissipation. |
| Emergence without action | A pattern that is mainly intense. Visible, sometimes spectacular, but not coherent enough to produce a durable action. |
| Latent structure | A coherent, sometimes transmissible pattern, whose intensity nevertheless remains insufficient to emerge in the dominant field. |
| Local but non-durable action | Intense and coherent, able to act locally, but insufficiently transmissible to maintain itself. |
| Passive persistence | A form that is transmitted, but without strong intensity or marked transformative power. |
| Acting pattern | Crosses all three thresholds simultaneously and acquires an effectivity of its own. |
9. Temporal dynamics
Crossing the effectivity threshold is not necessarily instantaneous. In many systems it results from a dynamic process.
It then becomes relevant to introduce time-dependent variables: I(t), C(t), T(t), and to consider equations of the type:
dC/dt = g(I, C, T, m)
dT/dt = h(I, C, T, m)
This perspective makes it possible to think several possible trajectories: slow growth by accumulation, rapid tipping under positive feedback, collapse through loss of coherence, stabilisation on a plateau, or oscillation between visibility and reabsorption.
10. Non-linear interaction between I, C and T
The simple product I · C · T has the merit of clarity. It nevertheless remains too rigid to represent all real cases.
There are situations in which a very high coherence partly compensates a moderate intensity. There are others in which an exceptional transmissibility temporarily carries a weakly coherent pattern. Conversely, some highly visible patterns collapse for want of internal organisation.
Several alternative forms can therefore be envisaged:
min(I, C, T) > θ
S = I · C · T + λIC(I · C) + λIT(I · T) + λCT(C · T)
11. Competition between patterns
In many cases, a pattern does not only struggle against the inertia of the milieu. It also competes with other patterns that mobilise the same resources, the same supports or the same niches of attention.
12. Theoretical contributions
The first contribution of the framework is ontological. It makes it possible to distinguish several degrees of existence and to show that the appearance of a form is not enough to confer a real power upon it.
The second contribution is analytical. It provides a grid for finely qualifying the state of a pattern according to the thresholds it does or does not cross.
The third contribution is transversal. It offers a common language for describing phenomena of emergence, stabilisation, propagation and transformation across heterogeneous fields.
The fourth contribution is methodological. It formulates propositions liable to be confronted with empirical observations, which makes it possible to move from a general intuition to a research programme.
13. Testable theoretical propositions
- At constant coherence and transmissibility, increasing intensity raises the probability of the pattern emerging.
- At constant intensity and transmissibility, decreasing coherence reduces the effective causal capacity of the pattern.
- At constant intensity and coherence, increasing transmissibility raises the temporal persistence and the contextual extension of the pattern.
- An intense but incoherent pattern produces more peaks of appearance than durable transformations.
- A coherent but weakly transmissible pattern produces local effects without strong historical reach.
- A transmissible but weakly intense pattern can persist quietly without becoming structuring.
- Robust collective tipping points appear when intensity, coherence and transmissibility reinforce one another.
14. Fields of application
| Domain | Application |
|---|---|
| Cultural and memetic dynamics | Distinguishing what flares up briefly from what durably structures a culture or an imaginary. |
| Political dynamics | Illuminating the passage from a slogan or a diffuse indignation to an organised collective force. |
| Biological systems | Thinking the passage from a local variation to a stable and transmissible form. |
| Complex systems | Describing the moment when an emergent structure ceases to be a fluctuation and becomes a local attractor or organiser. |
| Artificial intelligence | Rereading certain learned representations as salient, coherent and transferable patterns. |
15. Issues of operationalisation
The value of a theoretical framework depends in part on its capacity to be translated into empirical indicators. Here that translation remains to be built domain by domain.
| Dimension | Possible proxies |
|---|---|
| Intensity | Signal amplitude, visibility, emotional charge, frequency of occurrence, perceptual salience |
| Coherence | Narrative stability, semantic convergence, topological cohesion, behavioural alignment, functional compatibility |
| Transmissibility | Uptake rate, faithful replication, retention, cross-network extension, robustness to deformation |
16. Points of tension and open work
16.1. Residual arbitrariness of the aggregation functions
The minimal formalisation by the product S = I · C · T has great conceptual clarity, but the choice of the aggregation function remains partly arbitrary as long as no empirical, comparative or simulational anchoring allows the options to be discriminated.
16.2. A dynamics that is still mainly qualitative
The framework correctly identifies several dynamic intuitions, but it still lacks a minimal dynamic skeleton that would make it possible to model the trajectories of a pattern over time.
16.3. A still overly schematic competition between patterns
Introducing a term of competition between patterns is an important advance, but it remains schematic, particularly on the side of the competition coefficients ωij.
16.4. A still programmatic testability
The theoretical propositions formulated by the framework have real heuristic value, but for now they remain mostly directional. One or two pilot cases documented with explicit proxies and numerical results would be decisive.
17. Priorities of development
17.1. A first quantified pilot case
The choice must fall on a phenomenon that is at once rich, traceable and sufficiently well documented to allow a first credible operationalisation.
17.2. Visualisation of the framework
A three-dimensional representation of the (I, C, T) space, with zones of status and typical trajectories, would greatly strengthen the legibility of the model.
17.3. Comparative table of operationalisation
A comparative table for a few domains only — three or four to begin with — would make the theory more portable and more credible beyond the merely speculative level.
17.4. A minimal dynamic skeleton
Once a first pilot case has been laid down and a table of operationalisation established, the next task would be to introduce a simple dynamic skeleton:
dC/dt = dI − e(1 − C)
dT/dt = fC − gD(m)
18. Discussion
The main interest of the framework proposed lies in its capacity to articulate, within a single structure, three dimensions often thought separately: the perceptible emergence of a form, its internal organisation and its transmissible persistence.
Its main limit is symmetrical to its strength. The more transversal the framework, the more it risks excessive abstraction if it is not accompanied by a rigorous operationalisation.
The reasonable ambition of such a framework is not to offer a finished theory from the outset, but to propose a conceptual matrix liable to be tested, corrected and partly specialised.
Conclusion
The thesis defended in this article is simple in its formulation but demanding in its consequences: a form does not become a force by the mere fact of existing, nor even by the mere fact of being visible. It becomes acting when it simultaneously crosses three thresholds. It must be intense enough to emerge from noise, coherent enough to act as a unit, and transmissible enough to persist or propagate despite dissipation.
Final synthesis
This framework makes it possible to distinguish fluctuation, organised pattern and effective force. It offers a grid for analysing intermediate statuses, a minimal formalisation of effectivity, and a transversal language for describing phenomena of emergence and stabilisation across heterogeneous fields.
Its main interest is to turn a diffuse intuition into a theoretical structure. Its main challenge, from now on, is to be tested, made precise, compared and enriched.
Indicative theoretical bibliography
1. Emergence, complexity, self-organisation
Ashby, W. R. (1956). An Introduction to Cybernetics. London: Chapman & Hall.
Holland, J. H. (1998). Emergence: From Chaos to Order. Reading, MA: Addison-Wesley.
Kauffman, S. A. (1993). The Origins of Order. New York: Oxford University Press.
Morin, E. (1977). La méthode. 1. La nature de la nature [Method. 1. The nature of nature]. Paris: Seuil.
Nicolis, G., & Prigogine, I. (1977). Self-Organization in Nonequilibrium Systems. New York: Wiley.
Prigogine, I., & Stengers, I. (1979). La Nouvelle Alliance [Order out of Chaos]. Paris: Gallimard.
2. Information, signal, noise, organisation
Shannon, C. E., & Weaver, W. (1949). The Mathematical Theory of Communication. Urbana: University of Illinois Press.
Wiener, N. (1948). Cybernetics. Cambridge, MA: MIT Press.
Bateson, G. (1972). Steps to an Ecology of Mind. Chicago: University of Chicago Press.
Atlan, H. (1979). Entre le cristal et la fumée [Between crystal and smoke]. Paris: Seuil.
3. Evolution, replication, transmission
Dawkins, R. (1976). The Selfish Gene. Oxford: Oxford University Press.
Hull, D. L. (1988). Science as a Process. Chicago: University of Chicago Press.
Maynard Smith, J., & Szathmáry, E. (1995). The Major Transitions in Evolution. Oxford: Oxford University Press.
Sperber, D. (1996). La contagion des idées [Explaining Culture]. Paris: Odile Jacob.
Boyd, R., & Richerson, P. J. (1985). Culture and the Evolutionary Process. Chicago: University of Chicago Press.
4. Diffusion, contagion, collective dynamics
Granovetter, M. (1978). Threshold Models of Collective Behavior. American Journal of Sociology, 83(6), 1420–1443.
Schelling, T. C. (1978). Micromotives and Macrobehavior. New York: Norton.
Rogers, E. M. (2003). Diffusion of Innovations (5th ed.). New York: Free Press.
Tarde, G. (1890). Les lois de l'imitation [The Laws of Imitation]. Paris: Alcan.
Centola, D. (2018). How Behavior Spreads. Princeton: Princeton University Press.
5. Form, morphogenesis, structuring
Thom, R. (1972). Stabilité structurelle et morphogenèse [Structural Stability and Morphogenesis]. Reading, MA: Benjamin.
Simondon, G. (1964). L'individuation à la lumière des notions de forme et d'information [Individuation in the light of the notions of form and information]. Grenoble: Millon.
DeLanda, M. (2002). Intensive Science and Virtual Philosophy. London: Continuum.
Deacon, T. W. (2011). Incomplete Nature. New York: Norton.
6. Cognition, representation, salience, learning
Dennett, D. C. (1995). Darwin's Dangerous Idea. New York: Simon & Schuster.
Clark, A. (1997). Being There. Cambridge, MA: MIT Press.
Hofstadter, D. R. (1979). Gödel, Escher, Bach. New York: Basic Books.
Krakauer, D. C., et al. (2020). The Information Theory of Individuality. Theory in Biosciences, 139(2), 209–223.
Levin, M. (2019). The Computational Boundary of a Self. Frontiers in Psychology, 10, 2688.
7. Networks, propagation, relational structures
Barabási, A.-L. (2002). Linked. Cambridge, MA: Perseus.
Newman, M. (2010). Networks: An Introduction. Oxford: Oxford University Press.
Watts, D. J. (2002). A Simple Model of Global Cascades on Random Networks. PNAS, 99(9), 5766–5771.
Watts, D. J., & Strogatz, S. H. (1998). Collective Dynamics of Small-World Networks. Nature, 393, 440–442.
8. Philosophical and epistemological neighbourhoods
Bachelard, G. (1934). Le nouvel esprit scientifique [The New Scientific Spirit]. Paris: PUF.
Canguilhem, G. (1968). Études d'histoire et de philosophie des sciences [Studies in the history and philosophy of science]. Paris: Vrin.
Dupuy, J.-P. (1992). Introduction aux sciences sociales [Introduction to the social sciences]. Paris: Ellipses.
Serres, M. (1980). Le Parasite [The Parasite]. Paris: Grasset.
Stengers, I. (1987). La science et ses pouvoirs [Science and its powers]. Paris: La Découverte.