LFIS–28: CMB Phenomenology and the Production Model
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2026
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| _version_ | 1866901831081263104 |
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| author | Beaupain, Michael John |
| author_facet | Beaupain, Michael John |
| contents | <p>LFIS–28 develops the CMB phenomenology of Light Frame Cadence Theory (LFCT). Its purpose is to translate the structural readout architecture of LFIS–27 into the observable peak pattern of the CMB angular power spectrum, including peak count, placement, amplitude structure, and high-multipole behavior.</p> <p>The volume introduces the bidirectional n⁵ × n⁵ scaffold, in which a ten-peak structural cycle splits into two counter-flowing half-cycles when viewed from the observer. One half defines the directly readable sector anchored at the observer, while the other propagates from the saturation boundary and contributes a deformed return. This structure provides a structural account of the observed reduction from ten scaffold peaks to eight visible peaks without invoking per-peak adjustment.</p> <p>LFIS–28 separates the peak scaffold (which fixes positions) from the amplitude envelope (which governs peak heights). The scaffold follows the fixed D(F) = 2F + 3 sequence, while the envelope is set by structural damping, density–velocity channel decomposition, and the saturation boundary. The volume formalizes the readable half, the observer anchor, and the distinction between directly readable peaks and boundary-distorted returns.</p> <p>The phenomenology includes the zero-parameter peak architecture, the density and velocity channel decomposition, the role of representability limits at high multipoles, and the emergence of the observed peak spacing and amplitude hierarchy from a single fixed scaffold. The detailed production-model refinements—such as fine-structure corrections to peak heights and trough residuals—are identified but treated as secondary layers that do not alter the core architectural result.</p> <p>LFIS–28 therefore serves as the phenomenological realization of the LFCT CMB model. It connects the structural readout rules of LFIS–27 to the observable TT spectrum, while isolating the minimal architecture required to reproduce the peak structure from the additional refinement machinery developed in later work.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_19326427 |
| institution | Zenodo |
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| publishDate | 2026 |
| publisher | Zenodo |
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| spellingShingle | LFIS–28: CMB Phenomenology and the Production Model Beaupain, Michael John Light Frame Cadence Theory; LFCT; CMB phenomenology; cosmic microwave background; acoustic peaks; peak structure; n5 scaffold; bidirectional waves; saturation boundary; damping envelope; density velocity decomposition; angular power spectrum; geometric cosmology <p>LFIS–28 develops the CMB phenomenology of Light Frame Cadence Theory (LFCT). Its purpose is to translate the structural readout architecture of LFIS–27 into the observable peak pattern of the CMB angular power spectrum, including peak count, placement, amplitude structure, and high-multipole behavior.</p> <p>The volume introduces the bidirectional n⁵ × n⁵ scaffold, in which a ten-peak structural cycle splits into two counter-flowing half-cycles when viewed from the observer. One half defines the directly readable sector anchored at the observer, while the other propagates from the saturation boundary and contributes a deformed return. This structure provides a structural account of the observed reduction from ten scaffold peaks to eight visible peaks without invoking per-peak adjustment.</p> <p>LFIS–28 separates the peak scaffold (which fixes positions) from the amplitude envelope (which governs peak heights). The scaffold follows the fixed D(F) = 2F + 3 sequence, while the envelope is set by structural damping, density–velocity channel decomposition, and the saturation boundary. The volume formalizes the readable half, the observer anchor, and the distinction between directly readable peaks and boundary-distorted returns.</p> <p>The phenomenology includes the zero-parameter peak architecture, the density and velocity channel decomposition, the role of representability limits at high multipoles, and the emergence of the observed peak spacing and amplitude hierarchy from a single fixed scaffold. The detailed production-model refinements—such as fine-structure corrections to peak heights and trough residuals—are identified but treated as secondary layers that do not alter the core architectural result.</p> <p>LFIS–28 therefore serves as the phenomenological realization of the LFCT CMB model. It connects the structural readout rules of LFIS–27 to the observable TT spectrum, while isolating the minimal architecture required to reproduce the peak structure from the additional refinement machinery developed in later work.</p> |
| title | LFIS–28: CMB Phenomenology and the Production Model |
| topic | Light Frame Cadence Theory; LFCT; CMB phenomenology; cosmic microwave background; acoustic peaks; peak structure; n5 scaffold; bidirectional waves; saturation boundary; damping envelope; density velocity decomposition; angular power spectrum; geometric cosmology |
| url | https://doi.org/10.5281/zenodo.19326427 |