The Preonic Universe as a Gravitationally Coupled Computational System: Instantaneous Feedback Amplification, Algorithmic Constraints, Computational Capacity, and Observational Gravitational Tomography

Thought process Thought process Description Quantum-Geometry Dynamics (QGD) establishes on two independent grounds that quantum computational speedup is physically precluded: ontological superposition does not exist in the preonic universe, and gate operations are irreversible causal events from which no exponential parallelism can be extracted. The same axiomatic structure that forecloses quantum computation mandates a categorically different computational substrate. Because gravity in QGD is instantaneous, unshieldable, and amplified — not attenuated — at cosmological distances through the n-gravitational interaction G⁻(a;b) = mₐ·m_b·(d²+d)/2, the finite preonic universe constitutes a naturally occurring gravitationally coupled computational system. This paper derives the Gravitational Feedback Amplification Theorem (GFAT): any locally encoded causal signature σ can be raised above the gravitational background noise in a finite number of feedback cycles, with causal depth fixed at 2 per cycle regardless of spatial separation. Two major implications follow. First, the amplified return signal carries information about the mass, spatial separation, and directional position of all participating cosmological masses — constituting Observational Gravitational Tomography accessible in real causal time, unlike electromagnetic observation, which is limited to the past state of distant objects. The paper identifies compatible algorithm classes, characterises the physical write and read mechanisms via controlled photon delivery to nuclear and electronic targets, and compares the computational capacity of the gravitational channel with classical architectures and projected quantum devices. This revision adds a derivation of why "the current causal step" — the well-defined, universe-wide simultaneity the tomography argument depends on — is a theorem rather than an unexamined assumption, grounded in the universal, instantaneous character of gravitational coupling, and directly answers the relativity-of-simultaneity objection this presupposition invites.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-24
DOI
https://doi.org/10.5281/zenodo.21535815
Primary Topic
Space Science and Extraterrestrial Life
Type
preprint
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preprint

The Preonic Universe as a Gravitationally Coupled Computational System: Instantaneous Feedback Amplification, Algorithmic Constraints, Computational Capacity, and Observational Gravitational Tomography

Daniel Burnstein
Zenodo (CERN European Organization for Nuclear Research)
Space Science and Extraterrestrial Life
preprint

The Preonic Universe as a Gravitationally Coupled Computational System: Instantaneous Feedback Amplification, Algorithmic Constraints, Computational Capacity, and Observational Gravitational Tomography

Daniel Burnstein
preprint en

Abstract

Thought process Thought process Description Quantum-Geometry Dynamics (QGD) establishes on two independent grounds that quantum computational speedup is physically precluded: ontological superposition does not exist in the preonic universe, and gate operations are irreversible causal events from which no exponential parallelism can be extracted. The same axiomatic structure that forecloses quantum computation mandates a categorically different computational substrate. Because gravity in QGD is instantaneous, unshieldable, and amplified — not attenuated — at cosmological distances through the n-gravitational interaction G⁻(a;b) = mₐ·m_b·(d²+d)/2, the finite preonic universe constitutes a naturally occurring gravitationally coupled computational system. This paper derives the Gravitational Feedback Amplification Theorem (GFAT): any locally encoded causal signature σ can be raised above the gravitational background noise in a finite number of feedback cycles, with causal depth fixed at 2 per cycle regardless of spatial separation. Two major implications follow. First, the amplified return signal carries information about the mass, spatial separation, and directional position of all participating cosmological masses — constituting Observational Gravitational Tomography accessible in real causal time, unlike electromagnetic observation, which is limited to the past state of distant objects. The paper identifies compatible algorithm classes, characterises the physical write and read mechanisms via controlled photon delivery to nuclear and electronic targets, and compares the computational capacity of the gravitational channel with classical architectures and projected quantum devices. This revision adds a derivation of why "the current causal step" — the well-defined, universe-wide simultaneity the tomography argument depends on — is a theorem rather than an unexamined assumption, grounded in the universal, instantaneous character of gravitational coupling, and directly answers the relativity-of-simultaneity objection this presupposition invites.

Zenodo (CERN European Organization for Nuclear Research)
Space Science and Extraterrestrial Life
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The Preonic Universe as a Gravitationally Coupled Computational System: Instantaneous Feedback Amplification, Algorithmic Constraints, Computational Capacity, and Observational Gravitational Tomography — Daniel Burnstein · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS