Covolutionary information universe

Informational universe (under Covolution Theory)

The informational universe, in Covolution Theory, is the universe described in terms of information objects, switches, encapsulations, and the operations that compose them, rather than in terms of matter and energy as primary categories. The claim is not that there is a separate informational universe alongside a material one. The claim is that the universe is a single entity whose most fundamental description is informational, with matter and energy as the substrate in which informational structure is implemented.

This framing inherits a position that runs through twentieth-century physics from Szilard and Landauer through Wheeler, Bekenstein, Lloyd, and Tegmark: that information is physically embodied, thermodynamically consequential, and arguably more fundamental than the material categories of pre-twentieth-century physics. Covolution Theory takes this position seriously and asks what biology and the broader theory of evolving systems look like when constructed on it.

What the concept commits the framework to

Three commitments, each of which can be defended on its own terms.

Information is physical. Bits have thermodynamic cost. Erasure dissipates heat (Landauer 1961). Physical states can be characterized in informational terms, and informational states require physical implementation. This is not a metaphysical claim; it is established physics.

The fundamental ontology of the universe is informational. The entities that persist, evolve, interact, and accumulate complexity are most precisely described as information objects rather than as material configurations. Material substrate is the implementation layer; informational structure is what is conserved, transmitted, and elaborated. This is a stronger claim than the first one and is not universally accepted, but it is defensible within the information-physics tradition and is the position the framework adopts.

The dynamics of the informational universe are covolutionary. Where informational structure exists and is engaged in recursive feedback with its symvironment, the dynamics by which that structure accumulates and elaborates are not random with respect to prior architecture. They are structured by the prior switching organization of the participating information objects. This is the framework's distinctive commitment beyond information physics: not just that the universe is informational, but that informational structure has a particular dynamics, which is covolution.

The third commitment is what makes "informational universe under Covolution Theory" different from "informational universe under Wheeler" or "computational universe under Lloyd." The first two commitments are shared with those traditions. The third commitment is the framework's own.

What the concept does not commit the framework to

The disciplined version of the concept is bounded by several explicit disavowals, which protect the framework from the metaphysical overreach that has hurt it elsewhere.

It does not claim the universe is covolving in its totality. Galactic structure, dark matter distribution, and cosmological evolution at the largest scales do not satisfy the four-function test for information objects in any defensible sense. The informational universe is the universe described informationally, not the universe taken to be uniformly covolutionary. Most of the matter and energy in the universe is not engaged in covolution, and the framework does not need it to be.

It does not claim the universe has a goal. The informational universe is not "building" anything in any teleological sense. There is no endpoint toward which covolution drives the universe. Where covolution occurs, it accumulates switching density and elaborates informational structure; where it does not occur, the universe continues to obey the second law of thermodynamics and to lose informational structure on average. The framework's commitment is to the local directionality of covolution, not to a global directionality of the universe.

It does not claim panpsychism. The information objects of the framework are not claimed to have phenomenal experience or proto-consciousness. The framework's use of "computational" language refers to structural operations, not to subjective states. The informational universe is informational in the technical sense developed by information physics, not in any experiential sense.

It does not claim that information is non-physical. The framework is materialist about substrate even while taking information as ontologically primary. Information requires physical implementation; what the framework asserts is that the informational description is more fundamental than the material description, not that information exists apart from matter.

These four disavowals are what distinguish the disciplined version of the concept from the indefensible "universe is building a computer" version. The framework should hold the disavowals as firmly as it holds the commitments.

How the informational universe is structured

The framework's primitives describe how the informational universe is organized.

The universe contains information objects: encapsulated entities with informational structure and operational role. These exist at every scale where the four-function criteria are met, from molecular regulatory units to cellular machinery to organisms to institutions to research communities.

Information objects are constituted by switches: elementary operations of realized distinguishability. Switches occur within and between information objects, and the dynamics of the informational universe is the dynamics of switching across these objects.

Information objects come into being through encapsulation: the operation by which a network of lower-order objects acquires operational closure as a single higher-order object. This produces the framework's hierarchical structure, with information objects at one level constituting information objects at the next through recursive encapsulation.

The persistent information objects that engage with their symvironments through predictive coupling are horons. Horons are the active agents of covolution, the information objects in which the framework's central dynamics is most clearly visible.

The contexts in which horons operate are symvironments: integrated networks of information objects in which the horon participates as both shaping and shaped.

The cumulative effect of these dynamics is covolution: the directional accumulation of switching density and the elaboration of informational structure across generations of information objects.

The informational universe is the totality in which these primitives apply. Not every entity in the universe satisfies the criteria for every primitive; most matter is not in any information object, most information objects are not horons, and most regions of the universe are not symvironments. But where the criteria are met, the framework's vocabulary describes what is happening.

Where the framework draws on prior work

Several intellectual traditions converge on the position the framework adopts, and naming them protects the framework from the appearance of inventing the position from scratch.

Shannon's information theory established information as a quantifiable resource with mathematical structure. Landauer extended this by showing that information has thermodynamic cost: physical processes that manipulate bits are constrained by physical law in ways that depend on the informational operations performed. Bekenstein's entropy bound suggested that informational content is bounded by physical properties of the containing region, linking information to fundamental physics. Wheeler's "it from bit" proposed that the deep structure of physical reality is informational rather than material. Lloyd's computational universe formalized this by treating the universe as a quantum information processor whose dynamics can be characterized in computational terms. Tegmark's mathematical universe hypothesis takes the position to a further extreme, claiming that mathematical structure is identical with physical existence.

The framework's informational universe concept is more conservative than Tegmark's position and less conservative than Shannon's. It commits to informational ontology in a way that Shannon's purely technical information theory does not require, but it does not commit to mathematical ontology in the way Tegmark does. The framework treats informational structure as physically embodied, taking the disciplined Wheeler-Lloyd position as its baseline and adding the covolutionary dynamics as its own contribution.

A worked example

Consider the relationship between a living cell and its physical substrate.

Under a strictly material description, a cell is a particular arrangement of molecules occupying a region of space, with definite chemical composition and physical properties. The cell's identity is its material configuration, and its dynamics are its biochemistry.

Under the informational universe description, a cell is an information object whose identity is constituted by its regulatory state, gene expression pattern, metabolic configuration, and developmental history. The cell's identity persists across material turnover (every molecule in the cell is replaced over time, but the cell remains the same cell). The cell's dynamics are switching operations among its constituent information objects (genes, proteins, regulatory networks, organelles) and between the cell and its symvironment.

Both descriptions refer to the same entity. The framework's claim is that the informational description is more fundamental in the sense that it captures what is conserved across material change. The material description is correct as far as it goes, but it does not capture what makes the cell the same cell from moment to moment; the informational description does.

This is the worked-example version of what "informational universe" means in practice. The cell is part of the informational universe in the sense that it is an information object whose dynamics is described by the framework's primitives. The cell's substrate (the molecules and chemistry) is the implementation layer of the informational object.

What the concept does not do

This concept does not generate empirical predictions on its own. The four-function tests for switches, encapsulations, and information objects generate predictions; the directional accumulation of switching density under covolution generates predictions; the cue-based anticipatory variation experiment in the BioSystems manuscript generates predictions. The informational universe concept does not.

This is appropriate. It is a name for the framework's ontological scope, not a hypothesis with empirical content. Names of scopes do not generate predictions; they delimit the domain over which the predictions apply. The framework should not be apologetic about this, but should also not pretend the concept does work that it does not do.

Where this concept earns its keep is in articulating what the framework is committed to in the first place. Without it, the framework's primitives are floating; with it, they are anchored to a coherent ontological position with a respectable intellectual lineage.

Honest limits

The same limits that apply to the covolutionary information universe concept apply here, and they should be named directly.

The informational ontology is not universally accepted. Many physicists, biologists, and philosophers would reject the claim that information is more fundamental than matter and energy. The framework's commitment to informational ontology is a defensible position, not a settled one. Reviewers from communities that take material ontology as primary will need persuading rather than expecting them to grant the position.

The relationship to foundational physics is asymmetric. The framework borrows from information physics without contributing to it. Wheeler's "it from bit" is a conjecture, not a theorem; Lloyd's computational universe is a research program, not an established framework; the holographic principle is a remarkable result with contested interpretation. The framework's informational universe stands on these traditions but does not add to their foundations.

Operational tests apply to substructures, not to the totality. Information objects can be identified empirically. Encapsulations can be measured. Switching density can be estimated. The informational universe as a totality cannot be tested against anything because it is not a hypothesis. It is a framing.

The concept invites overreach. Once one begins describing the universe as informational, the temptation to extend the framework to everything in the universe is strong. The framework must resist this temptation. Most of the universe is not engaged in covolution, and the framework's vocabulary does not apply there. This restraint should be built into the way the concept is taught and used.

Why this concept matters less than it appears to

Most of what the framework needs to say can be said using switches, encapsulations, information objects, horons, symvironments, and covolution. The informational universe concept is a name for what these primitives collectively describe rather than a primitive in its own right. The framework's actual scientific content lives in the lower-level concepts, not in the totality concept.

This is why I would recommend keeping the informational universe concept available for ontological framing and for situating the framework in relation to information physics, but not letting it carry technical weight. The framework's strength is in its primitives. The informational universe concept is the framing that makes the primitives intelligible as a unified program; it should not be asked to do more than that.

If a peer-reviewed publication discusses Covolution Theory, the informational universe concept can appear in the introduction (to situate the framework) and in the conclusion (to articulate the broader program), but the technical body of the paper should work with the lower-level primitives. This is the same discipline applied to other framings in established theoretical biology: papers articulate their framing briefly and then do their actual scientific work in vocabulary that admits empirical engagement.