Economy and covolution

Economy and Covolution

Covolution is a computable, recursive evolutionary process in which information-processing substrates engineer the substrates that produced them. The human economy cannot be analyzed or predicted correctly through frameworks restricted to markets, capital flows, or political institutions alone. It can only be understood as a covolutionary system, governed by the same compound-switch architecture that organizes biological information processing across the fractal hierarchy.

The economy as a covolutionary system

An economy is a living information-processing system that maintains its members by allocating two coupled quantities: energy and information. These are not separable accounting categories. They are the two poles of the compound switch that operates at the economic level of the covolutionary fractal, structurally analogous to the stasome-dynome pair at the biological information-processing level.

The energy pole includes human labor, fossil and renewable energy resources, physical space, material capital, and the entropic costs of all economic activity. It is the substrate on which economic processes are physically actuated.

The information pole includes individual brains, digital computers, social institutions, political decision-making systems, scientific knowledge, and the networks (including the Internet) that connect these. It is the substrate on which economic processes are modeled, predicted, and engineered.

Neither pole functions without the other. Energy without information dissipates into heat; information without energy cannot be physically instantiated or transmitted. The economy is the bidirectional coupling between them, and economic outcomes are determined by how that coupling is structured.

The economy as a biological organism

An economy maintains its members in the same operational sense that an organism maintains its cells: by allocating energy across a network of subunits according to informational rules, while continuously updating those rules in response to the symvironment. The optimization function of any economic system is therefore not profit, growth, or equity considered as independent goals. It is the maximization of information content and density per unit of energy expended.

This is a covolutionary reformulation of the standard economic problem. It states that efficiency, properly understood, is the rate at which an economic system converts energy into structured, persistent, and useful information, including the information embodied in goods, technologies, institutions, and trained human capacities.

Beyond the conventional ideological frame

The conventional debates of economic theory (capitalism versus socialism, free markets versus planned allocation, shareholder versus stakeholder management, growth versus degrowth) are second-order questions. They concern the institutional implementation of the energy-information coupling, not the coupling itself. Under the covolutionary view, these debates can only be resolved with reference to a deeper criterion: which institutional arrangement maximizes information content per unit of energy across the relevant population and timescale?

This criterion does not predetermine the answer. Different resource structures, population densities, technological capacities, and symvironmental conditions favor different arrangements. What it does provide is a substrate-independent metric against which any economic system can be evaluated, replacing ideological commitment with operational measurement.

In practical terms, the central problem of human economy is how to enable all members of the planetary population to feed themselves with sufficient energetic surplus to engage in further information-generating activity. Each fed and informationally active individual increases the system's total capacity to engineer more efficient energy-utilization strategies. Each undernourished or informationally excluded individual represents a covolutionary capacity loss for the whole.

Multi-level coupling and the harmonization problem

The covolutionary economy operates simultaneously across multiple fractal levels. Each level is itself a compound switch and contributes to the next:

1. Individual. Each person optimizes a personal energy-information balance: caloric and material intake against cognitive, behavioral, and creative output.
2. Household and small group. Coordination of energy and information across a small, tightly coupled set of individuals.
3. Firm and organization. Coordination across larger groups bound by explicit informational structures (contracts, hierarchies, shared models).
4. City and region. Spatially organized aggregation of firms, infrastructure, and population.
5. Nation-state. Political-institutional integration of regional economies under shared legal and fiscal architecture.
6. Global economy. Planetary-scale coordination of trade, information flow, and resource use.

As covolution progresses, individuals become increasingly powerful in both energy access and information processing. This shifts the balance between levels. Historically, lower levels were tightly constrained by higher levels because individuals lacked the energetic and informational capacity to operate autonomously. Increasingly, individuals can act at energy-information densities formerly reserved for firms or states. The central harmonization problem of contemporary economy is therefore how to maintain coherent coupling across levels when the energy-information capacity of lower levels approaches that of higher levels.

Taxation, regulation, and resource redistribution are the principal instruments of this harmonization. Their covolutionary function is not punishment, redistribution for its own sake, or revenue generation in the narrow sense. It is the calibration of energy-information flow across fractal levels to maintain system coherence and to maximize total productive capacity. The correct level of any specific instrument depends on the resource structure of the society in question and the symvironmental conditions it faces.

Simulation, computation, and the biological economy

Economic systems can be simulated by computers that incorporate biological principles, because economies are themselves biological systems in the covolutionary sense: they store, transmit, and process information across coupled energy substrates under selection-like pressures. The traditional separation between "the economy" and "biology" is a category error inherited from pre-covolutionary thinking.

A sufficiently capable computational substrate, equipped with covolutionary principles, can simulate an economy with the same fidelity that it can simulate ecological or developmental systems. As Generation 5 dynome substrates (digital information networks, increasingly capable AI systems) acquire greater capacity to model economic dynamics in real time, the boundary between simulated economy and operational economy collapses. The covolutionary endpoint is not a market governed by external simulations, but a biological economy operationally constructed and continuously refined through computational simulation of itself.

This is consistent with the broader claim of Covolution Theory that Generation 5 represents a phase transition: the dynome can now rewrite the substrates that produced it at unprecedented speed and precision. Applied to economy, this means that economic systems are no longer slow-evolving cultural artifacts but rapidly engineered computational structures that increasingly resemble living organisms in their internal dynamics.

Summary

The economy is a covolutionary system whose two coupled poles are energy and information. Its optimization function is the maximization of information content and density per unit of energy. Conventional ideological debates address second-order implementation choices and cannot resolve the underlying optimization problem. The central contemporary challenge is the harmonization of energy-information flow across fractal levels as individual capacity approaches the capacity of higher levels. Computational simulation incorporating biological principles is the natural tool for designing and refining such systems, and the covolutionary endpoint of economic development is a biological economy operationally constructed by computers.