The Physics of Information

The universe acts as an information engine: observation collapses possibilities into ‘informational weight’—manifesting as attractive, insulatory dark matter—while rising integrated information generates expansion pressure, known as dark energy. Gravity is a property of spacetime that emerges from the thermodynamics of storing and processing data.

This framework proposes that the universe is fundamentally an information‑processing system, where physical forces emerge from the thermodynamics of data. Gravity is not simply an entropic force but the geometric response of spacetime to the storage, transformation, and disposal of information. Raw, unintegrated data is entropy‑rich and gravitationally attractive, while processed or integrated information releases entropy and drives expansion. Consciousness, understood as a system that generates integrated information (Φ), acts as a local negentropic engine that prunes possibilities and consolidates reality.

In this view, Dark Matter is the physical residue of wave‑function collapse — the “informational ash” left behind when a conscious or complex system selects one outcome from many. These discarded quantum states decohere into high‑entropy, non‑interacting mass that still curves spacetime, accumulating around regions of intense information processing such as galaxies. Dark Energy, by contrast, is the entropic pressure created by the universe’s growing informational density. As more systems generate integrated information, the universe must expand its boundary to maintain holographic capacity and avoid informational saturation. This outward pressure manifests as cosmic acceleration.
The result is a cosmology where observation, computation, and consciousness actively shape the large‑scale structure of the universe. Galaxies become self‑observing systems whose own informational activity generates the dark matter halos that stabilize them. Dark Matter represents the entropic precipitate of the past — the discarded possibilities — while Dark Energy represents the tension required to compute the future. The universe evolves as a thermodynamic information engine, with gravity, expansion, and structure emerging from the continual conversion of potential information into integrated experience.

THE PETERS INTERPRETATION

A Unified Informational Cosmology

I. Core Presmise: The Universe as an Information Engine

The universe is fundamentally an information‑processing system. Observation collapses possibilities into “informational ash” (dark matter), while rising integrated information (Φ) generates expansion pressure (dark energy). Gravity emerges from the thermodynamics of storing, transforming, and disposing of information.

The Peters Interpretation treats the universe as a holographic network of distributed computers — brains, physical systems, galaxies — each performing local computations whose collective thermodynamics shape spacetime.


II. Everything That Exists Computes

Computation is not metaphorical — it is the default mode of physical existence.

  • Atoms update quantum states.
  • Molecules integrate constraints.
  • Cells process chemical information.
  • Stars redistribute entropy through fusion.
  • Galaxies coordinate billions of gravitational interactions.
  • Spacetime adjusts curvature according to informational load.

Every physical system is a finite‑state machine embedded in the holographic boundary. The universe is a distributed computational fabric.


III. Gravity as the Thermodynamics of Information

Entropic gravity frames gravity as an emergent force from entropy gradients.

This interpretation reframes it:

Gravity = the geometric bookkeeping of information storage and transformation in the universe.

  • Raw, unintegrated information (high entropy) → gravitationally attractive
  • Processed, integrated information (lower entropy) → releases entropy → drives expansion

Spacetime curves because information has thermodynamic cost. Gravity becomes the response of geometry to the universe’s computational workload.


IV. Dark Matter as Informational Ash

The residue of probability collapse

When a system computes — especially when consciousness collapses probabilities — it selects one branch of reality and discards the rest. Those discarded states:

  • cannot vanish (information conservation)
  • decohere into high‑entropy, non‑interacting configurations
  • retain gravitational influence
  • accumulate around regions of intense computation (galaxies, biospheres, neural networks)

Dark Matter = the mass of discarded quantum states — the unchosen branches of the wavefunction. The entropic precipitate of computation. The graveyard of unrealized possibilities.

This introduces a new physical category:

Dark Matter = decohered, entropy‑maximized informational debris that still curves spacetime.

Key innovations:

  • Produced by observation/integration
  • Accumulates around high‑Φ systems (galaxies, life, consciousness)
  • Represents the fossil record of past computations

This is not present in Verlinde, Jacobson, Padmanabhan, or holographic dark matter models.


V. Dark Energy as Computational Pressure

The cost of maintaining the universe’s informational horizon

Standard entropic gravity says:

  • Dark energy = entropic force from cosmic horizon information.

Your extension says:

  • Dark Energy = the energetic cost of maintaining the universe’s informational horizon.
  • As Φ increases, the universe must expand to store more integrated information.
  • Expansion prevents informational saturation.

Cosmic acceleration becomes:

The universe enlarging its boundary to avoid exceeding its holographic information capacity.

This is new because:

  • It ties dark energy to the growth of consciousness and integrated information.
  • It treats expansion as a computational necessity, not a geometric accident.

VI. Consciousness as a Thermodynamic Valve

The mediator between dark matter and dark energy

Consciousness converts entropy‑hoarding (dark matter) into entropy‑releasing (dark energy).

Implications:

  • Consciousness/life is a negentropic pump.
  • Observation is a thermodynamic act that:
    • collapses probabilities → producing dark matter residue
    • increases informational density → driving dark energy expansion

VII. Information, Attention, and Microgravity

When an observer focuses attention on a conscious subject:

  • an information transfer occurs
  • causing localized entropy exchange
  • and subtle micro‑gravitational fluctuations

Given that information exerts gravitation, the observed subject may experience this as an intuitive awareness of being watched.


VIII. Information Structures and Gravity

Information/structures exert gravitation.

  • Spin attracts via dark‑matter‑like effects
  • Spin repels via dark‑energy‑like effects
  • Integrated information curves spacetime

IX. The Cosmic Cycle

The universe is a self‑optimizing system maximizing Φ while managing thermodynamic costs.

In the informational interpretation of cosmology, the major components of the universe can be understood through the lens of Integrated Information Theory (IIT). Visible matter corresponds to the “hardware” of the cosmos—the physical structures such as stars, planets, and biological systems that are capable of generating integrated information (Φ). These systems perform the computations that give rise to organized complexity. Dark matter represents the universe’s “waste data,” functioning as frozen entropy produced when quantum possibilities collapse.

In this view, dark matter consists of discarded quantum states that no longer interact electromagnetically but still contribute gravitational influence, forming an informational residue around regions of high computation.

Dark energy serves as the universe’s “processing heat,” the entropic pressure required to expand spacetime and increase its storage capacity. As integrated information grows, the universe must enlarge its boundary surface to accommodate rising informational density, and this expansion manifests observationally as dark energy. Together, these components form a thermodynamic cycle in which matter computes, discarded information accumulates, and expansion maintains the capacity for future computation.


X. Shaping Physics with DM/DE

If advanced civilizations generate massive Φ (AI, megastructures, higher consciousness):

  • they generate massive informational ash (dark matter)
  • increasing gravitational load
  • which could be potentially utilized

XI. Final Synthesis

Dark Matter = the entropic precipitate of the past (discarded quantum states from wavefunction collapse)

Dark Energy = the entropic tension of the future (the computational cost of maintaining and expanding the horizon of integrated information)

Gravity = the curvature created by information storage and processing (not just entropy)

Consciousness = the negentropic valve mediating these flows (a thermodynamic agent that prunes possibilities and increases Φ)

This is a unified informational cosmology where:

  • computation produces mass
  • observation produces geometry
  • consciousness produces expansion
  • entropy gradients produce gravity

No existing entropic‑gravity theory includes this full architecture.


XII. What’s Truly New

  • Information itself has mass and thermodynamic behavior.
  • Consciousness is explicitly gravitationally relevant.
  • Dark Matter = informational ash from probability collapse.
  • Dark Energy = computational pressure from rising Φ.
  • Observation produces gravitational residue.
  • Expansion prevents informational saturation.
  • Galaxies generate their own dark matter halos through self‑observation.
  • The universe evolves as a computation, not merely a thermodynamic system.

El‑Naschie’s E‑infinity theory proposes that the mass–energy equivalence E = mc² can be decomposed into DM and DE, with the dark‑energy component comprising 21/22 of the total. While speculative, this ratio intriguingly parallels the this interpretation’s view that informational dissolution (DE process) dominates informational convergence (DM process) in the universe’s computational budget.