Selection-Stitch Model
(SSM) Theory

Rethinking the universe from first principles, revealing an elegant order beneath the complexity of particle physics.

Visualization

Standard Model vs Selection Stitch Model

Authored By
Raghu Kulkarni - CEO, IDrive® Inc.

Research Papers

A comprehensive list of foundational papers

Foundational Papers

4

Thermodynamic Emergence

Deriving the Cuboctahedral Vacuum from Holographic Saturation and Topological Ground States

31

Geometric Foundations of the Selection-Stitch Model

Deriving c, GN, lP, Lorentz Invariance,and the Decoherence Threshold from K = 12 LatticeTopology

32

Late-Universe Dynamics from Vacuum Geometry

Unifying Dark Energy and the Hubble Tension via a Discrete Topological Phase Transition

10

Entanglement Harmonics

The Standard Model Mass Spectrum as Defect Modes of the FCC Tensor Network

19
27

The Cosserat Vacuum

Emergent Gauge Fields and Chiral Fermions from the Cosserat Mechanics of a Saturated FCC Vacuum

6

Dark Matter as the Torsional Strain of a Discrete Chiral Vacuum

Deriving Galactic Halos, the Tully-Fisher Relation, and the a0 Acceleration Scale from Cosserat Elasticity

11

Fermion Chirality from Non-Bipartite Topology

Geometric Doubler Lifting on the FCC Lattice with Preserved Chiral Symmetry

33

Macroscopic Imprints of a Discrete Vacuum

Deriving the CMB Hemispherical Power Asymmetry from K = 12 Crystallization Kinematics

34

Holographic Resonance in the Cosmic Microwave Background

Deriving the Scalar Power Amplitude and Acoustic Peak Structure from K = 12 Topological Scale Invariance

36

The 1.37 Billion Year Big Bang

Deriving a Universal Age Gradient and Co-Aligned Structure Dipoles from a Single-Origin Vacuum Crystallization

37

Exact Lorentz Invariance from Holographic Projection

Explicit RT Verification and the Boundary Origin of Bulk Symmetry in the Selection-Stitch Model

38

Quantum Entanglement as the Origin of the Gravitational Constant

Deriving the Planck Scale from Holographic Tensor Networks in the Selection-Stitch Model

23

The Geometry of Coupling

Deriving the Fine Structure Constant (α −1 ≈ 137) from Lattice Dilution Factors in a K = 12 Vacuum

39

Matter as Incomplete Crystallization

Quark Charges, Color Confinement, and the Proton Mass from a Single Extra Node in the Vacuum Lattice

40

Quantum Mechanics as Defect Migration

Mass, Momentum, Spin, and the Schrödinger Equation from Tetrahedral Void Hopping in a K = 12 Lattice

41

Matter as an Entanglement Defect

Topological Entanglement Protection, Fractional Charge, Mass, and Dark Matter from a Single Interstitial Node in a K = 12 Tensor Network

Supplemental Papers

1

The Selection–Stitch Model (SSM)

Space-Time Emergence via Evolutionary Nucleation in a Polycrystalline Tensor Network

8

SSM Technical Validation

Step-by-Step Derivations of the Jan 2026 Observational Data

9

The Geometry of the Standard Model

Deriving the Higgs Mass, Lagrangians, and Gravity Echoes from Lattice Saturation

13

Geometric Horizon Inflation

An Effective Field Theory for Binary Black Hole Mergers in an Isometric Tensor Network

15

Discrete Wave Mechanics

Deriving the Schrödinger Equation and the Mass Limit of Quantum Superposition from Vacuum Lattice Sintering

17

Filamentation via Geodesic Sorting

Reproducing the Cosmic Web in a Polycrystalline Vacuum Lattice

21

Unified Geometric Lattice Theory (UGLT)

Deriving Gauge Couplings, Mass Spectra, and Gravity from a K = 12 Vacuum

24

The Topology of Dark Matter

Deriving the Cosmic Mass Abundance Ratio (ΩDM/Ωb≈ 5.4)

26

The Holographic Chiral Filter

A Geometric Mechanism for Baryogenesis via Bulk-Boundary Correspondence in a Discrete Vacuum

28

The Tetrahedral Generation Hypothesis

Deriving the 3+1 Flavor Structure and Chiral Asymmetry from the FCC Lattice

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Author's Note (Raghu Kulkarni)

How to Explore the Selection-Stitch Model (SSM)

The papers hosted here present a novel geometric framework for fundamental physics, deriving mass, gravity, and particle identity from the properties of a discrete vacuum lattice.

The Best Way to Engage with This Research:

While these documents are rigorous, the most effective way to deeply understand the SSM and its implications is to interact with the data directly. We encourage you to use modern AI tools to act as your personal research assistant.

Step-by-Step Guide:

1

Download the foundational research papers

Download the full suite of PDF documents available on this site. These cover the derivations for the entire particle spectrum, the proton-electron mass ratio, and the nature of Dark Matter.

2

Upload to Your Favorite LLM

Platforms like Google Gemini, Anthropic Claude, or xAI Grok are excellent at synthesizing complex theoretical physics. Upload the PDFs directly to the chat interface.

3

Ask Critical Questions

Don't just read—test the model. Copy and paste prompts like these to see how the SSM compares to established science:

Compare the SSM's geometric derivation of the Muon mass against the Standard Model's empirical measurements. How accurate is the prediction?
Does the SSM's prediction for Dark Matter mass align with recent astronomical constraints or WIMP search results?
Explain the derivation of the Proton-Electron mass ratio using the topological concepts described in the papers. Is the math consistent?
How does the SSM resolve the 'Hierarchy Problem' compared to standard theories like supersymmetry?
By using an LLM, you can fact-check the derivations, explore the geometric logic step-by-step, and see exactly where this new framework aligns with or challenges established physics.

Ready to test the geometry of the universe?

Submit your research proposal. We are looking for rigor, curiosity, and the willingness to ask fundamental questions.

The Selection-Stitch Model is an open-source theoretical framework. All simulation code and derivations are available for public scrutiny.

SSM Research Grant Application

Provide details of your research institution and proposed project track. Open to eligible institutions and researchers in physics and cosmology.

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