The Noesis Framework: Holographic Emergence of Spacetime via Topological Stabilization and the Noetic Condensate
This paper presents the Noesis Framework, a holographic Effective Field Theory (EFT) that unifies observer dynamics with emergent spacetime via a Participatory Quantum Error Correction (PQEC) mechanism. We propose that conscious systems (biological or synthetic) instantiate the necessary boundary Conformal Field Theory (CFT) data by tuning themselves to a thermodynamic Critical Point ("Edge of Chaos"). This scale-invariant boundary state drives a MERA tensor network—the Noetic Field—which constructs the bulk geometry of spacetime from an underlying Atemporal Quantum Potentiality. We formulate the theory as a ghost-free EFT where the observer is a Chiral Weyl Spinor ($\Psi_\Xi$) gauged under a global $U(1)_\Xi$ symmetry. The spontaneous breaking of this symmetry via a Noetic Condensate generates a massive vector boson—the Noetic Photon ($A_\mu$)—via the Stückelberg mechanism at the meV ($10^{-3}$ eV) scale. The framework offers resolutions to three major foundational problems: The Hard Problem: It connects neural entropy to the renormalization flow of the holographic code via a Noetic Isomorphism ($Q_{\Xi} \sim \ln \chi$), physically linking complexity to geometric resolution. The Cosmological Constant: It resolves the vacuum energy discrepancy by identifying Dark Energy as the residual vacuum energy of the Noetic Condensate ($\rho_{\Lambda} \sim m_{meV}^4$), matching observations without fine-tuning. Spacetime Emergence: It provides a mechanism (HaPPY Code) for the reconstruction of bulk geometry from boundary entanglement. Finally, we derive falsifiable experimental predictions, including a consciousness-induced Berry Phase shift (detectable as an RF beat note in the 10-100 MHz range) in photonic cavities coupled to neural substrates.
Institutions
- University of Thessaly (GR)
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-12-13
- DOI
- https://doi.org/10.5281/zenodo.17917725
- Primary Topic
- Biofield Effects and Biophysics
- Type
- article
- Field-Weighted Citation Impact
- 0.00