ERRATUM Correction to the Prime Harmonic Ladder Formula

Summary A transcription error was identified in the published Prime Harmonic Ladder formula. The originally published formula does not produce the claimed sub-ppm accuracy. This erratum provides the corrected formula that achieves the validation results stated in the papers. The Error Published (Incorrect) Formula: P_H(x) = x / (1 + Σⱼ aⱼ sin(φⱼ log x + δⱼ)) This formula produces predictions approximately 10× too large, with relative errors of 275% to 1095% rather than the claimed sub-ppm accuracy. The divisor (1 + small oscillations) evaluates to approximately 1.07, yielding P_H(x) ≈ 0.93x instead of the correct π(x) ≈ x/log(x). The Corrected Formula Correct Formula: P_H(x) = li(x) + (√x / log x) × Σⱼ aⱼ sin(φⱼ log x + δⱼ) Where: • li(x) = logarithmic integral (the classical baseline approximation for π(x)) • √x / log(x) = amplitude scaling factor derived from the Riemann explicit formula • φⱼ = 2ʲ × 2π/log(10) = frequency of the j-th harmonic tier • aⱼ, δⱼ = amplitude and phase of the j-th harmonic (optimized coefficients) Mathematical Basis The corrected formula aligns with the Riemann explicit formula for π(x), which expresses the prime counting function as: π(x) = li(x) − Σ_ρ li(x^ρ) + (smaller terms) where the sum is over the non-trivial zeros ρ = ½ + iγ of the Riemann zeta function. The contribution from each zero has the form: li(x^ρ) ~ (√x / log x) × e^(iγ log x) This explains why the oscillatory corrections must be scaled by √x / log(x) rather than added to a constant baseline. The harmonic frequencies φⱼ = 2ʲ × 2π/log(10) capture a specific band structure related to the zeta zeros. Optimized Coefficients The following coefficients achieve sub-ppm accuracy for x ≥ 10¹²: Tier 0: a₀ = −1.810027037, δ₀ = 1.750790 Tier 1: a₁ = 0.001833146, δ₁ = −5.466931 Tier 2: a₂ = 0.000624352, δ₂ = 3.645884 Tier 3: a₃ = 0.000026897, δ₃ = −14.485643 Validation Results The corrected formula produces the following results: x = 10¹²: π(x) = 37,607,912,018, P_H(x) = 37,607,885,869, Error = 0.70 ppm ✓ x = 10¹³: π(x) = 346,065,536,839, P_H(x) = 346,065,457,789, Error = 0.23 ppm ✓ x = 10¹⁴: π(x) = 3,204,941,750,802, P_H(x) = 3,204,941,513,587, Error = 0.07 ppm ✓ These results confirm the sub-ppm accuracy originally claimed in the papers.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-11
DOI
https://doi.org/10.5281/zenodo.17887781
Primary Topic
Advanced Electrical Measurement Techniques
Type
article
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article

ERRATUM Correction to the Prime Harmonic Ladder Formula

Zenodo (CERN European Organization for Nuclear Research)
Advanced Electrical Measurement Techniques
article

ERRATUM Correction to the Prime Harmonic Ladder Formula

article en

Abstract

Summary A transcription error was identified in the published Prime Harmonic Ladder formula. The originally published formula does not produce the claimed sub-ppm accuracy. This erratum provides the corrected formula that achieves the validation results stated in the papers. The Error Published (Incorrect) Formula: P_H(x) = x / (1 + Σⱼ aⱼ sin(φⱼ log x + δⱼ)) This formula produces predictions approximately 10× too large, with relative errors of 275% to 1095% rather than the claimed sub-ppm accuracy. The divisor (1 + small oscillations) evaluates to approximately 1.07, yielding P_H(x) ≈ 0.93x instead of the correct π(x) ≈ x/log(x). The Corrected Formula Correct Formula: P_H(x) = li(x) + (√x / log x) × Σⱼ aⱼ sin(φⱼ log x + δⱼ) Where: • li(x) = logarithmic integral (the classical baseline approximation for π(x)) • √x / log(x) = amplitude scaling factor derived from the Riemann explicit formula • φⱼ = 2ʲ × 2π/log(10) = frequency of the j-th harmonic tier • aⱼ, δⱼ = amplitude and phase of the j-th harmonic (optimized coefficients) Mathematical Basis The corrected formula aligns with the Riemann explicit formula for π(x), which expresses the prime counting function as: π(x) = li(x) − Σ_ρ li(x^ρ) + (smaller terms) where the sum is over the non-trivial zeros ρ = ½ + iγ of the Riemann zeta function. The contribution from each zero has the form: li(x^ρ) ~ (√x / log x) × e^(iγ log x) This explains why the oscillatory corrections must be scaled by √x / log(x) rather than added to a constant baseline. The harmonic frequencies φⱼ = 2ʲ × 2π/log(10) capture a specific band structure related to the zeta zeros. Optimized Coefficients The following coefficients achieve sub-ppm accuracy for x ≥ 10¹²: Tier 0: a₀ = −1.810027037, δ₀ = 1.750790 Tier 1: a₁ = 0.001833146, δ₁ = −5.466931 Tier 2: a₂ = 0.000624352, δ₂ = 3.645884 Tier 3: a₃ = 0.000026897, δ₃ = −14.485643 Validation Results The corrected formula produces the following results: x = 10¹²: π(x) = 37,607,912,018, P_H(x) = 37,607,885,869, Error = 0.70 ppm ✓ x = 10¹³: π(x) = 346,065,536,839, P_H(x) = 346,065,457,789, Error = 0.23 ppm ✓ x = 10¹⁴: π(x) = 3,204,941,750,802, P_H(x) = 3,204,941,513,587, Error = 0.07 ppm ✓ These results confirm the sub-ppm accuracy originally claimed in the papers.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 44%
Advanced Electrical Measurement Techniques
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