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April 14, 20260 citationsOpen Access

NSk--Gravity Emergent Gravity, Stabilising Drift, and Source Reconstruction in the NSk/ψ program

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PNPaweł NowakMSMaciej Stachowiak

Key Points

  • This research aims to derive gravity as an emergent phenomenon using a graph-theoretic approach.
  • Introduced the partition lattice and coarse-graining framework.
  • Defined the canonical gravitational field using graph-Poisson methods.
  • Established a stabilising drift operator and investigated its properties.
  • Developed a series of proofs for gravitational effects like time dilation and frequency redshift.
  • Derived a Newtonian theorem package including inverse-square law dynamics.
  • Achieved a weak-field Einsteinian bridge relating gravitational phenomena.
  • Characterized key gravitational constants and conditions for proofs extending from the NSk--Einstein framework.

Abstract

We develop NSk--Gravity, the gravitational module of the NSk/ψ program, in which gravity is derived as an emergent stabilising drift on a partition lattice rather than introduced as an independently postulated field. The construction is finite and graph-theoretic: mass is transported towards higher values of the existence density P, and the canonical gravitational field is defined by g = -∇G P on the associated neighbourhood graph. The module provides a self-contained deductive core. PRE-PURE introduces the partition lattice and coarse-graining framework; PURE defines the canonical gravitational field and graph-Poisson apparatus; CORE-A establishes the stabilising drift operator and monotonicity; CORE-B develops the self-consistent Poisson variant; CORE-C provides the admissibility gate and multiscale certificate. For the canonical H1 realisation on the helical q3D torus, we derive a Newtonian theorem package, including the Green-function asymptotics 1/ (4πr), the inverse-square law after source normalisation, and the effective Newton constant GNSk. We also formulate a weak-field Einsteinian bridge in the EXT layer, yielding gravitational time dilation, frequency redshift, and the metric coefficient g₀0, with proofs conditional on contracts imported from NSk--Einstein. Full general relativity is not part of the deductive core.

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Cite This Study

Nowak et al. (2026) studied this question.

synapsesocial.com/papers/69ddd9e1e195c95cdefd7396https://doi.org/10.5281/zenodo.19480117
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1NSk--Gravity Gravity as an Emergent Stabilising Drift2026
  2. 2NSk--Einstein Local Spacetime in the NSk/ψ Program: Geometry, Proper Time, Weak-Field Limit, and Compatibility with the Helical Background2026
  3. 3NSk--Einstein Local Lorentzian Spacetime, the Einstein Field Equation, and the Einstein--Dirac Package in the the NSk/ψ Program2026
  4. 4NSk--Dirac First-Order Dirac Framework in the NSk/ψ Program2026
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