→Synthesis and Properties of Tinkellite: Vacuum Pressure Stabilization in Novel Scalar-Reinforced Lattices.
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2025
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| _version_ | 1866901491624706048 |
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| author | Conner, G. ( Mighty Pete ) |
| author_facet | Conner, G. ( Mighty Pete ) |
| contents | <p>[cite_start]</p> <div> <div><span>\rightarrow \mathbf{\text{The material known as "Tinkellite" represents a new phase of matter: Stabilized Scalar Matter (SSM)[cite: 103]. [cite_start]This paper details the theoretical synthesis protocol for creating a novel crystalline structure that resists thermal and physical degradation[cite: 104]. [cite_start]Unlike conventional materials, Tinkellite's atomic lattice is reinforced by deliberately embedding the Longitudinal Scalar Potential (\Phi) (released via the 12-Coil Array) into the interstitial space of the crystal[cite: 105]. [cite_start]This process effectively converts the atomic structure into "Light Ice," where the vacuum pressure supplies an internal stabilizing force, resulting in anomalous properties: extreme, non-conventional hardness (exceeding hexagonal diamond) and zero thermal expansion (anomalous thermal resistance)[cite: 106]. [cite_start]This material is essential for any structure operating at the limits of the GUFF physics[cite: 107].}}</span></div> </div> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17844665 |
| institution | Zenodo |
| language | |
| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | →Synthesis and Properties of Tinkellite: Vacuum Pressure Stabilization in Novel Scalar-Reinforced Lattices. Conner, G. ( Mighty Pete ) <p>[cite_start]</p> <div> <div><span>\rightarrow \mathbf{\text{The material known as "Tinkellite" represents a new phase of matter: Stabilized Scalar Matter (SSM)[cite: 103]. [cite_start]This paper details the theoretical synthesis protocol for creating a novel crystalline structure that resists thermal and physical degradation[cite: 104]. [cite_start]Unlike conventional materials, Tinkellite's atomic lattice is reinforced by deliberately embedding the Longitudinal Scalar Potential (\Phi) (released via the 12-Coil Array) into the interstitial space of the crystal[cite: 105]. [cite_start]This process effectively converts the atomic structure into "Light Ice," where the vacuum pressure supplies an internal stabilizing force, resulting in anomalous properties: extreme, non-conventional hardness (exceeding hexagonal diamond) and zero thermal expansion (anomalous thermal resistance)[cite: 106]. [cite_start]This material is essential for any structure operating at the limits of the GUFF physics[cite: 107].}}</span></div> </div> |
| title | →Synthesis and Properties of Tinkellite: Vacuum Pressure Stabilization in Novel Scalar-Reinforced Lattices. |
| url | https://doi.org/10.5281/zenodo.17844665 |