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THEORETICAL PHYSICSRESEARCH PAPER / 2026
THE SELF-GROWING UNIVERSE PROJECT

The Self-Growing
Universe

Planck Spacetime Unit Fission Self-Replication Theory

A proposed model of discrete spacetime self-replication constrained by holographic information capacity, exploring a possible connection between microscopic boundary growth and cosmic expansion, with dynamical relations and directions for testing.

Theoretical physicsQuantum gravityCosmologySelf-organized criticality
EDITION
Version 2.5
PAPER DATE
September 16, 2026
FIGURE 1 / CONCEPTUAL MODEL

From information boundaries to spacetime growth

PSUPSU₁PSU₂

Information enters across the boundary, increasing the information carried by the unit.

Conceptual · Not a numerical simulation
Information inflow → capacity threshold → unit fission. A schematic of the proposed hypothesis, not an observed microscopic structure.
dε/dt = J − ε(1 + ε)/τ₀
RESEARCH QUESTION

Can the growth of discrete spacetime boundaries provide a microscopic description of cosmic expansion?

THEORETICAL CONTEXT
Holographic principleBekenstein boundER = EPR conjectureThree-R spiral growth law

A proposal for how space grows

This paper proposes a fission self-replication model of Planck Spacetime Units (PSUs). It hypothesizes discrete units that divide when their information exceeds holographic capacity, increasing boundary area and capacity. The paper explores a connection between this microscopic process and cosmic expansion.

01

Information & boundaries

Information enters across a boundary, constrained by holographic capacity.

02

Threshold & fission

Units above capacity undergo fission, increasing total boundary area.

03

Growth & expansion

An ensemble of dividing units offers a proposed picture of cosmic expansion.

Research status: an author-supplied theoretical paper. Publication here does not establish peer review or observational validation.

From microscopic units to cosmic scales

Five relations proposed in the paper. ε denotes supercriticality, τ₀ the attempt time, and J the information inflow rate. The steady-state approximation assumes Jτ₀ ≪ 1.

01 / Boundary area growth
dA/dt ∼ εA/τ0
02 / Expansion rate
H ∼ ε/τ0
03 / Dark energy scale
Λlp2 ∼ ε2
04 / Supercriticality dynamics
dε/dt = J − ε(1 + ε)/τ0
05 / Low-supercriticality steady state
ε* ≈ Jτ0

A model should offer a path to being tested.

The paper predicts an environmental dependence of local expansion and proposes five levels of investigation. These are research directions, not completed experimental results.

  1. 01Cross-scale universality of the growth equation
  2. 02Quantitative tabletop growth experiments
  3. 03Environmental dependence of Hubble tension
  4. 04Gravitational waves and ultra-high-energy cosmic rays
  5. 05Direct probing at the Planck scale

Questions still open

  • How does local fission yield global FRW expansion?
  • What is the physical origin of information inflow J?
  • How do quantum mechanics, gravity and the Standard Model emerge?
THE PAPER / V2.5

Paper & citation

Planck Spacetime Unit Fission Self-Replication Theory

27 pages · Chinese + English · 16 chapters · v2.5

Discuss the model

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