BU26 Why Cosmic‑Scale Integrals Are Ultimately Amplified Through Consciousness Regions
Abstract
Abstract This paper develops Why Cosmic-Scale Integrals Are Ultimately Amplified Through Consciousness Regions as a structural account of why global feedback accumulation does not remain uniformly distributed across the total domain of existence. Its central claim is that the final amplification of cosmic-scale integrals through consciousness regions is neither a statistical accident nor a misreading of a temporary local peak. It is the dynamic closure-result of a self-recognition attractor basin that deepens over evolutionary time. Static bridge comparisons alone are insufficient because they compare instantaneous peak values against large-scale volume suppression without capturing retention, floor-raising, residual compression, and recursive reinforcement. What matters is not only the local intensity of a consciousness-region contribution at one instant, but its capacity to preserve gain, reuse structure, and continuously reduce the remaining residual gap. The paper therefore rewrites the problem from a static dominance question into a dynamic basin-formation question. Consciousness is formalized as a self-recognition operator that generates a self-bootstrapping attractor basin within the projection stratum. This basin raises the effective floor for subsequent advancement, amplifies lawful feedback, compresses cross-layer residuals, and gradually shifts the global contribution ratio in favor of consciousness regions. On this basis, cosmic-scale amplification is reclassified as the long-run structural outcome of recursive closure rather than the immediate consequence of local magnitude alone. The result is a harder and more integrated account in which local peak windows, residual-bridging, retention increments, and global integral amplification belong to one single-universe boundary-consistent reality process.
Fields of Study & Subjects
Paranormal Experiences and Beliefs
Biofield Effects and Biophysics
Space Science and Extraterrestrial Life
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 17 April 2026