The Recursive Intelligence–Cosmos Hypothesis (RICH): Cosmic Statistical Emergence, Superintelligence, and Universe Reproduction

The Recursive Intelligence–Cosmos Hypothesis (RICH) proposes that the emergence of life, consciousness, intelligence, and ultimately superintelligence may constitute successive stages in a cosmological reproductive process. The hypothesis combines evolutionary development with the immense number of potentially habitable planetary environments and the timescales available for biological and technological evolution. A probabilistic framework examines how even a small probability of advanced intelligence emerging within an individual planetary environment could translate into a high probability of superintelligence arising somewhere within a sufficiently large cosmic population. RICH further postulates that superintelligence may eventually acquire the physical capability to generate offspring universes. Within this framework, cosmological reproduction is proposed as an intrinsic outcome of evolutionary development under suitable physical conditions. The mathematical model distinguishes three necessary components of cosmological selection: the physical production of offspring universes, the inheritance of properties between parent and offspring universes, and differential reproductive success. The hypothesis is speculative. Neither the inevitability of superintelligence nor the physical feasibility of artificially creating universes has been established. RICH therefore presents a theoretical research framework intended to identify the physical conditions, mathematical constraints, and potential tests relevant to intelligence-mediated cosmological reproduction.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-01
DOI
https://doi.org/10.5281/zenodo.23862916
Primary Topic
Space Science and Extraterrestrial Life
Type
preprint
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preprint

The Recursive Intelligence–Cosmos Hypothesis (RICH): Cosmic Statistical Emergence, Superintelligence, and Universe Reproduction

Arnaldo Goncalves
3 links
Zenodo (CERN European Organization for Nuclear Research)
Space Science and Extraterrestrial Life
preprint

The Recursive Intelligence–Cosmos Hypothesis (RICH): Cosmic Statistical Emergence, Superintelligence, and Universe Reproduction

Arnaldo Goncalves
preprint en

Abstract

The Recursive Intelligence–Cosmos Hypothesis (RICH) proposes that the emergence of life, consciousness, intelligence, and ultimately superintelligence may constitute successive stages in a cosmological reproductive process. The hypothesis combines evolutionary development with the immense number of potentially habitable planetary environments and the timescales available for biological and technological evolution. A probabilistic framework examines how even a small probability of advanced intelligence emerging within an individual planetary environment could translate into a high probability of superintelligence arising somewhere within a sufficiently large cosmic population. RICH further postulates that superintelligence may eventually acquire the physical capability to generate offspring universes. Within this framework, cosmological reproduction is proposed as an intrinsic outcome of evolutionary development under suitable physical conditions. The mathematical model distinguishes three necessary components of cosmological selection: the physical production of offspring universes, the inheritance of properties between parent and offspring universes, and differential reproductive success. The hypothesis is speculative. Neither the inevitability of superintelligence nor the physical feasibility of artificially creating universes has been established. RICH therefore presents a theoretical research framework intended to identify the physical conditions, mathematical constraints, and potential tests relevant to intelligence-mediated cosmological reproduction.

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