Paper 11: The Five-Dimensional Einstein Tensor of the Corrected Scale-Space Metric: Vacuum Structure, Required Stress-Energy, and the Non-Vacuum Nature of the Framework

Paper 10 derived the corrected 5D metric for the scale-space framework, replacing gtt =−c2 with gtt =−(1+2/L)c^2 to resolve the factor-of-2 gravitational time dilation discrepancy, and asked whether this metric satisfies the 5D Einstein equations G^(5)MN + Λ5g^(5)MN = κ5T^(5)MN. We answer this by computing the full 5D Einstein tensor symbolically (SymPy-verified). Four results are established. (1) The Ricci scalar is unchanged. Both the corrected metric and the block-diagonal metric of Paper 9 give R=−12/L^3, identical to the AdS4 result scaled to five dimensions. (2) The spatial and scale Einstein components are identical. Gxx = Gyy = Gzz = 3e^(2s/L)/L^3 and Gss = 3/L^2 for both metrics. The correction to gtt leaves the (x,y,z,s) sector of the Einstein tensor completely unchanged. (3) Neither metric is a 5D vacuum solution. The spatial sector requires Λ5 =−3/L^3, while the tt sector requires Λ5 =−6/L^3. These differ by 3/L^3 and cannot be reconciled by a single cosmological constant. This structural inconsistency is present in both the block-diagonal (Paper 9) and corrected (Paper 10) metrics; it is a property of the entire metric class, not of the correction specifically. The framework requires a non-vacuum 5D theory with non-zero T^(5)MN. (4) The correction is self-consistent: ∆Λ5 = 0. The gtt correction does not shift the cosmological constant. With Λ5 =−3/L^3 (from the spatial sector), the required tt stress-energy changes from κ5Ttt =−3c^2/L^3 (block-diagonal) to κ5Ttt =−3c^2(L+ 2)/L^4 (corrected), a ratio of (L+ 2)/L= 1 + 2/L — exactly the gtt correction factor. The correction modifies gtt and Ttt in the same proportion. These results sharpen the physical interpretation of Paper 10: the gtt correction is not an independent geometric addition but a self-consistent modification requiring a corresponding non-vacuum energy component in the t-sector. This Ttt is the field-equation signature of the missing configurational change identified in Paper 10. Its physical origin — whether an additional dimension, additional coupling, or sourced matter field — remains the central open question.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-12
DOI
https://doi.org/10.5281/zenodo.20171755
Primary Topic
Cosmology and Gravitation Theories
Type
preprint
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Paper 11: The Five-Dimensional Einstein Tensor of the Corrected Scale-Space Metric: Vacuum Structure, Required Stress-Energy, and the Non-Vacuum Nature of the Framework

Donald G Palmer
Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
preprint

Paper 11: The Five-Dimensional Einstein Tensor of the Corrected Scale-Space Metric: Vacuum Structure, Required Stress-Energy, and the Non-Vacuum Nature of the Framework

Donald G Palmer
preprint en

Abstract

Paper 10 derived the corrected 5D metric for the scale-space framework, replacing gtt =−c2 with gtt =−(1+2/L)c^2 to resolve the factor-of-2 gravitational time dilation discrepancy, and asked whether this metric satisfies the 5D Einstein equations G^(5)MN + Λ5g^(5)MN = κ5T^(5)MN. We answer this by computing the full 5D Einstein tensor symbolically (SymPy-verified). Four results are established. (1) The Ricci scalar is unchanged. Both the corrected metric and the block-diagonal metric of Paper 9 give R=−12/L^3, identical to the AdS4 result scaled to five dimensions. (2) The spatial and scale Einstein components are identical. Gxx = Gyy = Gzz = 3e^(2s/L)/L^3 and Gss = 3/L^2 for both metrics. The correction to gtt leaves the (x,y,z,s) sector of the Einstein tensor completely unchanged. (3) Neither metric is a 5D vacuum solution. The spatial sector requires Λ5 =−3/L^3, while the tt sector requires Λ5 =−6/L^3. These differ by 3/L^3 and cannot be reconciled by a single cosmological constant. This structural inconsistency is present in both the block-diagonal (Paper 9) and corrected (Paper 10) metrics; it is a property of the entire metric class, not of the correction specifically. The framework requires a non-vacuum 5D theory with non-zero T^(5)MN. (4) The correction is self-consistent: ∆Λ5 = 0. The gtt correction does not shift the cosmological constant. With Λ5 =−3/L^3 (from the spatial sector), the required tt stress-energy changes from κ5Ttt =−3c^2/L^3 (block-diagonal) to κ5Ttt =−3c^2(L+ 2)/L^4 (corrected), a ratio of (L+ 2)/L= 1 + 2/L — exactly the gtt correction factor. The correction modifies gtt and Ttt in the same proportion. These results sharpen the physical interpretation of Paper 10: the gtt correction is not an independent geometric addition but a self-consistent modification requiring a corresponding non-vacuum energy component in the t-sector. This Ttt is the field-equation signature of the missing configurational change identified in Paper 10. Its physical origin — whether an additional dimension, additional coupling, or sourced matter field — remains the central open question.

Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
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Paper 11: The Five-Dimensional Einstein Tensor of the Corrected Scale-Space Metric: Vacuum Structure, Required Stress-Energy, and the Non-Vacuum Nature of the Framework — Donald G Palmer · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS