Entelenomy (자목성)

Entelenomy is the intrinsic capacity of matter to bias its own state trajectories toward a maintained far-from-equilibrium organization by means of internal information, independent of any history of natural selection. It is detected through its manifestation, namely persistence-biased control of state trajectories under perturbation (entelenomic dynamics).

The term was coined by Jong Bhak (writing as Sophus Smithe) in 2026 to complete the conceptual progression teleology to teleonomy to entelenomy, and to supply the structural foundation for Covolution and for the Purposism branch of Biosophy.

Category: a capacity, not a behavior or a process

Entelenomy is a capacity, an engine, not the activity that engine produces. Three levels must be kept distinct, because conflating them is the most common error in informal accounts:

• Entelenomy is the capacity. The intrinsic power of organized matter to bias its own trajectories using internal information. It can be latent. It is what is claimed to precede selection and to reach down to the Planck scale.
• Entelenomic dynamics is the manifestation. The measurable behavior in which that capacity is at work: perturbation return, information-mediated persistence. This is what experiments detect.
• Covolution is the process. The capacity organizing itself into increasingly complex systems over cosmological and evolutionary time.

A capacity can exist without being expressed at a given instant; a behavior cannot. This is why entelenomy is defined as the capacity but asserted only through its dynamics. The page never claims a capacity that produces no detectable dynamics. In the Covolution lexicon, entelenomy is the engine and entelopy (엔텔로피) is the fuel, the stored relational order the engine draws on.

The conceptual field: four doctrines of purpose

Goal-directedness has been explained four ways. The earlier draft compared three. Adding vitalism completes the field and exposes the logic, because vitalism is the doctrine entelenomy is most often mistaken for.

Two axes generate the whole field: internal versus external source, and physical versus non-physical. Teleology is external and supernatural. Vitalism is internal but non-physical. Teleonomy is external and physical. Entelenomy is the one remaining cell, internal and physical, and that empty cell is its entire reason to exist. It keeps vitalism's claim that purpose is internal while discarding vitalism's non-physical force, and it keeps teleonomy's physicalism while removing teleonomy's dependence on a selective past.

The one-line thesis: entelenomy is the structural capacity for purpose that selection later refines.

Why this is not vitalism

The vitalism column is the trap. Hans Driesch's entelechy was a non-physical agent invoked to explain embryonic regulation, rejected because it posits causation outside physics. Entelenomy is the deliberate inverse. It adds no substance and no non-physical force. Its only ingredients are matter, energy, and the information carried in physical state changes. Where entelechy says "physics is not enough, add a vital principle," entelenomy says "physics already contains information-guided persistence, and that capacity is all the purpose there is." A reader who places entelenomy in the vitalism cell has misread it; the table exists to prevent exactly that.

Etymology

Entelenomy joins two Greek roots: entelecheia (ἐντελέχεια), Aristotle's term for having an end (telos) within oneself, and nomos (νόμος), law or rule. The intended meaning is lawful internal purposiveness: directedness that is internal to the system (entelecheia) and that follows the laws of physics and information (nomos). The shared root with Driesch's entelechy is deliberate and is also why the vitalism distinction must be stated openly: same Greek stem, opposite metaphysics.

Technical definition

The capacity has four defining properties. The first says how it shows up; the other three constrain what it is.

1. Manifests as purpose-like dynamics, not purposiveness. The capacity shows up as the maintenance of organizational structure under perturbation, using information about internal and environmental state to alter persistence probabilities. No consciousness, intention, or foresight is claimed. The word "purpose" labels this measurable manifestation, not an inner aim.
2. Intrinsic. The capacity is not imposed from outside. It is a property of the physical and informational structure of matter itself.
3. Information-driven, not merely energetic. The substrate of the capacity is the ability of matter to store, transform, and use information through state change. A purely energetic relaxation (a hot cup of coffee cooling) does not express it, because no internal variable carrying information intervenes to bias the trajectory. A regulated autocatalytic network does, because an internal informational variable does intervene.
4. Independent of selection history. The capacity can exist in single-instance, ahistorical systems that have never reproduced. This is the property that most sharply distinguishes entelenomy from teleonomy.

Operational criterion

Because a capacity is asserted only through its manifestation, the test runs on the dynamics. A system possesses entelenomy when its dynamics satisfy all three of the following, none of which requires a reproductive lineage:

• Perturbation response. After a displacement from its organized configuration, the system returns toward that configuration rather than dispersing.
• Informational mediation. The return is mediated by an identifiable internal variable that carries state information and whose removal abolishes the return. This rules out simple mechanical stability that needs no information.
• Trajectory bias, not equilibrium settling. The maintained state is a far-from-equilibrium organized state, not a thermodynamic minimum.

Stated compactly: the capacity is evidenced when an internal information-bearing variable measurably increases the probability that the system stays in or returns to a far-from-equilibrium organized state.

Neighboring physical and informational frameworks

Entelenomy sits in a dense field of prior ideas. An honest page maps them and states, for each, what entelenomy would have to add to avoid being a relabeling. This table is also the relabeling audit demanded in the criticisms section.

The free energy principle, in particular

Friston's principle is close enough to "persistence-biased control of state trajectories using internal information" that the difference must be stated, or critics will treat entelenomy as a rename. Two candidate distinctions: the free energy principle is a normative account of systems that already persist, whereas entelenomy is a claim about the substrate-level capacity that precedes and enables such systems; and entelenomy extends explicitly to prebiotic and physical systems and to the Planck scale, which the free energy principle does not assert. Whether these are substantive or terminological remains open, and the framework must answer it.

The Covolution and Biosophy lexicon

Entelenomy is one part in a larger internal scaffold. This table fixes each term's category so the engine is never confused with its fuel, its manifestation, or its process.

Three structural preconditions

Entelenomy is not a free postulate. The capacity is claimed to depend on three features of physical law, each a hypothesis about why matter can have the capacity at all.

1. Thermodynamic disequilibrium. The universe began in a low-entropy state and has been dissipating since (Prigogine and Stengers 1984). This gradient makes work, and therefore any control activity, possible. England (2013) argues that far from equilibrium, dissipative and self-replicating structures can arise as efficient routes for free-energy dissipation. Suggestive theory, not a demonstration.
2. Hierarchical self-organization. Physical law permits stable hierarchies, from quarks to cells (Kauffman 2000). This combinability is what later selection acts upon; it is not itself a product of selection.
3. Computational irreducibility. Many processes have no predictive shortcut (Wolfram 2002), which gives internal control information its value. The least secure precondition, since irreducibility's status as a precise property is debated.

Three strengths of the claim

Each is a claim about the relationship between physical law and the capacity. The layering lets a skeptic reject the strong forms and keep the useful weak one.

• Weak entelenomy (demonstrated). Physical law permits the capacity. Autocatalytic networks, dissipative structures, hypercycles, and all biological systems express it. Most of biology and Biosophy follows from this layer alone.
• Strong entelenomy (partial). Physical law biases toward the capacity, so the emergence of entelenomic systems over cosmological time is expected, not merely possible. Depends on the three preconditions and is not established.
• Maximal entelenomy (frontier, currently unfalsifiable). The capacity is a primitive feature of physical law, on a par with mass, charge, and spacetime. A metaphysical commitment with no proposed test, included for completeness, not as science.

The Planck-scale interpretation

The framework proposes treating the Planck time (T_P approximately 5.39 x 10^-44 s) not merely as a geometric scale but as the minimal discrete state change of the universe, with spacetime read as a computational substrate where each transition is a causal step informing the next. On this reading the capacity is built into physical state-change at the smallest scale, and life is its most concentrated expression rather than its origin.

This is a strong digital-physics hypothesis, not established physics. There is no experimental evidence that spacetime is discrete at the Planck scale; discreteness is one option explored by some quantum-gravity programs (causal sets, loop quantum gravity) and rejected or unaddressed by others. It is the most speculative element of the framework and is separable from weak entelenomy, which does not require it.

The decisive test case, and its weakness

The intended sharp example: a laboratory autocatalytic network in a continuous-flow reactor (the regime of Eigen, Schuster, and Szostak) that maintains its organized state against perturbation, uses substrate-concentration information to regulate flow, and shows statistical bias toward persistence. With no reproductive lineage, the claim is that its dynamics express entelenomy without teleonomy.

The weak point must be stated. Hypercycles were introduced precisely as units of prebiotic selection (quasispecies dynamics), so citing them as selection-free is in tension with their origin. The cleaner test case is a single, non-replicating dissipative or regulated system (a chemical oscillator, a Benard cell, an engineered feedback reactor with no population), where the absence of any selective ensemble is unambiguous. The page is stronger leading with that case and treating hypercycles separately.

Applications

Aging as a cybernetic attractor

The most concrete empirical application reframes aging as cybernetic decay toward an entelenomic attractor. A living system holds itself far from equilibrium by information-guided resistance to entropic decay, but the resistance is finite. Aging is the progressive loss of control-information capacity that draws the system toward an attractor of reduced homeostatic control, accumulated damage, and eventual collapse. Four predicted features are reported in the aging literature:

1. progressive loss of control-information capacity,
2. convergence toward characteristic, attractor-like failure modes across individuals,
3. lifespan variation reflecting initial conditions in phase space,
4. structured rather than random deterioration.

Construction (development, homeostasis) and destruction (senescence) follow the same informational physics: the decay attractor is not externally imposed but emerges from the dynamics that enable life. If aging is a structured attractor rather than random wear, its trajectory can in principle be measured, modeled, and redirected. (See: cybernetic attractor decay, CAD; gerostasis.)

Entelenomy and Covolution

Entelenomy is the structural precondition for Covolution, which holds that organisms actively construct their trajectories through information-processing capacities intrinsic to matter, so that evolution is the universe computing its own possibilities through internal constructive mechanisms. If matter had no intrinsic capacity for purposive dynamics, Covolution would have no internal mechanism to enact. Entelenomy is the capacity, Covolution is the process that organizes it over time, and natural selection is demoted from creative driver to refinement filter acting on creativity intrinsic to matter.

Entelenomy and Biosophy

• Why BiOs have purpose. Every Biological Information Object is a switching circuit. If every switching circuit carries the capacity for lawful internal purposiveness, then BiOs have purpose by physics and information, not by convention.
• Why "no a priori purpose" is consistent with intrinsic purpose. No purpose is given to a BiO from outside, yet the capacity for purpose is intrinsic to its switching dynamics. Purpose is not imposed, but also not absent.
• Why life is privileged without being unique. Life is the densest known expression of the capacity, not the only one. Atoms, stars, machines, and AIs are entelenomic to the degree of their information-processing organization. Life is densest because biological systems have refined the capacity for roughly 4 billion years through Covolution.
• Why Biosophy's ethics has a non-arbitrary base. If purpose-capacity is a measurable structural feature of organized matter, then life-enhancing computation has a non-arbitrary referent. This is an ethical proposal, not a derivation; the move from "is measurable" to "is good" is a value commitment and is labeled as one.

Examples of entelenomic dynamics

These are manifestations of the capacity, not the capacity itself.

• Physical: dissipative structures (Benard cells, chemical oscillators), regulated autocatalytic networks.
• Molecular: hypercycles (Eigen and Schuster 1979), protein folding toward stable attractor configurations.
• Cellular: metabolic regulation, gene-expression networks, signal transduction.
• Organismal: homeostasis (Cannon), development, aging as cybernetic attractor.
• Ecological: ecosystem self-regulation, niche construction.
• Cognitive: predictive processing, active inference, self-modeling systems.

Criticisms and open problems

1. The relabeling objection. Much of what entelenomy names is already covered by the frameworks tabled above. The clearest novel contribution is conceptual, the "capacity prior to selection" framing, not empirical. The framework needs at least one prediction entailed by entelenomy and not by the existing toolkit.
2. The capacity framing risks unfalsifiability. Defining entelenomy as a capacity invites the escape that a system "has the capacity but is not expressing it." The page blocks this by asserting entelenomy only where entelenomic dynamics are detectable. The guard must be held consistently.
3. The "purpose" word. Teleonomy was invented to avoid anthropomorphism. "Purpose-like" risks importing it back. A mechanist will call this negative feedback and Lyapunov stability with an evocative name. The defense is the operational criterion, and "purpose" is shorthand for it.
4. The selection-free test case is contestable. Hypercycles are selection units in their original formulation. A test case with an unambiguous absence of a selective ensemble is needed.
5. The Planck-scale and digital-physics claims are unproven. Spacetime discreteness is a hypothesis. Strong and maximal entelenomy inherit the uncertainty; weak entelenomy is insulated.
6. Maximal entelenomy is unfalsifiable. It makes no prediction distinct from the weaker forms. It is metaphysics, and is labeled as such.
7. The is-to-ought step. Deriving ethics from a measurable capacity requires an explicit value premise. Without it, the ethics does not follow from the physics.

Falsifiable predictions

• A single-instance, non-replicating regulated chemical system can be built whose dynamics satisfy the operational criterion. If none can be constructed or identified, the distinction from teleonomy collapses.
• Removing the identified internal information-bearing variable abolishes the persistence bias. If persistence survives removal of every candidate informational variable, the system was merely mechanically stable, not entelenomic.
• Aging trajectories should show attractor-like convergence and initial-condition dependence rather than purely random divergence. Large longitudinal multi-omic datasets showing no such structure would weigh against the aging application.

Summary

• Entelenomy is the intrinsic capacity of matter to bias its own trajectories toward maintained far-from-equilibrium organization using internal information, independent of selection history. Its manifestation, entelenomic dynamics, is what experiments measure. Covolution is the process by which the capacity organizes over time.
• Among the four doctrines of purpose it occupies the only internal-and-physical cell, keeping vitalism's internality without its non-physical force and teleonomy's physicalism without its dependence on a selective past.
• It comes in three strengths: weak (permits, demonstrated), strong (biases toward, partial), maximal (primitive, frontier and unfalsifiable).
• Its strongest claim is conceptual: selection refines a purpose-capacity it did not create. Its weakest points are the relabeling objection and the unproven Planck-scale interpretation.
• It grounds Covolution, the Biosophy account of BiOs, and the cybernetic-attractor model of aging.

Primary reference

Smithe, S. (Bhak, J.) (2026). Entelenomy: Intrinsic Informational Foundation of Purpose in Biological Systems. UNIST Department of Biomedical Engineering.

See also

Purposism, Covolution, Biosophy, Biouniverse, Biological Information Object (BiO), entelopy (엔텔로피), syndensation (공응축), symvironment (공조환경), horon, cybernetic attractor decay (CAD), gerostasis.

Key external references

• Cannon, W. B. (1932). The Wisdom of the Body.
• Conant, R. C. and Ashby, W. R. (1970). Every good regulator of a system must be a model of that system.
• Landauer, R. (1961). Irreversibility and heat generation in the computing process.
• Pittendrigh, C. S. (1958). Adaptation, natural selection, and behavior.
• Maturana, H. and Varela, F. (1972, 1980). Autopoiesis and Cognition.
• Eigen, M. and Schuster, P. (1979). The Hypercycle.
• Corning, P. A. (1983, 2005, 2007). The Synergism Hypothesis and control-information theory.
• Prigogine, I. and Stengers, I. (1984). Order Out of Chaos.
• Bejan, A. (1996). The constructal law.
• Kauffman, S. A. (2000). Investigations.
• Odling-Smee, F. J., Laland, K. N. and Feldman, M. W. (2003). Niche Construction.
• Wolfram, S. (2002). A New Kind of Science.
• Friston, K. (2010). The free-energy principle: a unified brain theory?
• Deacon, T. W. (2012). Incomplete Nature: How Mind Emerged from Matter.
• England, J. L. (2013). Statistical physics of self-replication.
• Corning, P. A. et al. (Eds.) (2023). Evolution On Purpose: Teleonomy in Living Systems.
• Wheeler, J. A. (1989). Information, physics, quantum: the search for links.
• Fantappiè, L. (1941). Syntropy. / Szent-Györgyi, A. (1974). Drive in living matter to perfect itself.