The Dipole-Cold Spot Double Repeller etc. Fit Geier's Fibonacci-Lucas-Φ Programme very well (>98%) by Stefan Geier et al., Gerhart-Hauptmann-Straße 6, 83071 Haidholzen
by Stefan Geier et al., Gerhart-Hauptmann-Straße 6, 83071 Haidholzen
Main result. In the normalized
cosmographic coordinate r100
= VCMB/(100 km s⁻¹), the
Cosmicflows-3 Dipole and Cold Spot repellers and the Cosmicflows-4 ungrouped
merged basin take the values 140, 230 and 197.95. They align with F12 = 144, F13 = 233 and L11 = 199 ≈ Φ¹¹ = 199.005,
respectively, with 98.469% mean bounded proximity.
Question
and analytical framework
In standard ΛCDM
cosmography, a repeller is an underdense region associated with outward
peculiar flow, not an object exerting exotic antigravity. Cosmicflows-3 (CF3)
reconstructed two basins of repulsion - the Dipole Repeller at approximately
14,000 km s⁻¹ and the Cold Spot Repeller at approximately 23,000 km s⁻¹ -
whereas Cosmicflows-4 (CF4) later represented them as one enormous extended
basin.[1-3] The present test asks whether these data-fixed radial coordinates
are descriptively compatible with the Φ, Φⁿ, Fibonacci and Lucas structure
proposed in Geier's programme.[4]
Φ = (1 + √5)/2 = 1.6180339… Fn ≈ Φⁿ/√5 Ln ≈ Φⁿ
The bounded proximity score is P(x,t) = 100 min(x,t)/max(x,t). Exact
equality gives 100%. This score is a transparent similarity measure, not a
probability, confidence level or statistical significance.
Principal
numerical result
The
two CF3 endpoints map to consecutive Fibonacci numbers: 140 ≈ F12 =
144 and 230 ≈ F13 = 233. Their dimensionless ratio 230/140 = 1.642857 has 98.489%
proximity to Φ (relative deviation +1.534%). The radial difference
90 is close to F11 = 89, yielding (90, 140, 230) ≈ (F11, F12, F13); however, 90 is derived from the two radii and is not an independent
observation. The CF4 ungrouped centre, 197.95, is especially close to L11 =
199 and Φ¹¹ = 199.005 (99.47%). The central triplet thus occupies the local
mixed lattice F12 - L11 - F13.
Figure 1. Observed
cosmographic coordinates (circles) and Fibonacci-Lucas targets (squares). The
first three entries form the primary F12 - L11 - F13 triplet (mean
proximity 98.469%); the grouped CF4 reconstruction is retained as the principal
robustness warning.
Results
at a glance
Table 1. Direct comparison of the selected astronomical
quantities with the fixed Φ-Fibonacci-Lucas targets.
|
Astronomical quantity |
Observed |
Fixed
target |
Proximity |
Scientific reading |
|
CF3 Dipole Repeller radius |
140 |
F₁₂ = 144 |
97.222% |
Supportive central-value fit; relative deviation -2.778%. |
|
CF4 merged basin, individual galaxies |
197.95 |
L₁₁ = 199 |
99.472% |
Closest match and the Lucas/Φⁿ branch of the triplet. |
|
CF3 Cold Spot Repeller radius |
230 |
F₁₃ = 233 |
98.712% |
Supportive, but the published distance is only a rough lower limit. |
|
CF3 radial ratio, 230/140 |
1.642857 |
Φ = 1.618034 |
98.489% |
Unit-independent relation; relative deviation +1.534%. |
|
CF4 merged basin, grouped galaxies |
177.64 |
L₁₁ = 199 |
89.266% |
Major robustness warning: the Lucas match is not reproduced. |
Note: Proximity = 100 min(observed,target)/max(observed,target); it is
descriptive and must not be read as a probability.
Scientific
interpretation
The
pattern is internally coherent because the two separate CF3 repellers occupy
the Fibonacci branch Fn ≈ Φⁿ/√5, while the merged CF4 centre occupies the Lucas/Φⁿ branch Ln ≈
Φⁿ. The ratio 230/140 ≈ Φ is the most defensible bridge because it is
independent of the chosen physical unit. A one-common-scale least-squares fit
of (140, 197.95, 230) to (144, 199, 233) reaches 99.240% mean proximity, but this
adds a fitted parameter and is therefore secondary to the direct 98.469%
result.
Limitations
and prospective falsification
The absolute-number matches depend
on the conventional normalization by 100 km s⁻¹. The Cold Spot value is not a
precision estimate, and the three principal coordinates are correlated
reconstructions of largely the same cosmic underdensity rather than independent
systems. Most importantly, the grouped CF4 reconstruction gives 177.64 instead
of 197.95; its proximity to L11 is only
89.266%. Moreover, the 1.05-unit difference between 197.95 and 199 is below the
approximately 7.8 h⁻¹ Mpc CF4 voxel size.[3] An exploratory multiplicative
phase scan found about 6.43% of Fibonacci-Lucas phases at least as close; this
is not a p-value.
A decisive study should pre-register
the coordinate r100 and the
targets F12 - L11 - F13; propagate full posterior uncertainties across grouped and ungrouped
reconstructions; compare with phase-shifted Fibonacci-Lucas lattices, Pell
sequences and generic second-order recurrences; and apply the same statistic to
independent surveys and ΛCDM simulations.
Conclusion. The double-repeller system
provides a compact and reproducible hypothesis-generating fit to Geier's Φ-Fibonacci-Lucas programme:
140 ≈ F12, 197.95 ≈ L11 ≈ Φ¹¹ and 230 ≈ F13. The coherence justifies
prospective testing, but the grouped CF4 counter-result, unit dependence and
absence of a derived cosmological recurrence prevent interpretation as evidence
for a new physical law.
References
[1] Hoffman, Y., Pomarède, D., Tully, R. B. & Courtois, H. M. The dipole repeller. Nature Astronomy 1, 0036 (2017). doi:10.1038/s41550-016-0036.
[2] Courtois, H. M. et al. Cosmicflows-3: Cold Spot Repeller? The Astrophysical Journal Letters (2017). doi:10.3847/2041-8213/aa88b2.
[3] Dupuy, A. & Courtois, H. M. Dynamic cosmography of the local Universe: Laniakea and five more watershed superclusters. Astronomy & Astrophysics 678, A176 (2023). doi:10.1051/0004-6361/202346802.
[4] Geier, S. A. When are Φ and 1/Φ attractors? Projective dynamics and empirical meaning - A first approach. ResearchGate preprint (2026).
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