The Song of the Stone: How a Vibrational Technology Could Solve Many of the Unexplained Feats of Ancient Builders

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Authors: Julien Sivan
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Abstract

ALBA Ancient Engineering Analysis Series, Paper #1 of 4 We present a numerical model of acoustic erosion by inverse piezoelectric excitation (ABIEH) that reproduces the geometry of ancient stone-cut cavities from a single free parameter. Applied to the Barabar caves (India), the model predicts chamber length to within 2%, vault height to 3%, and recovers the measured resonance frequency of 34.4 Hz, while six geometric properties emerge spontaneously from the physics without being programmed. The same protocol extends to the Serapeum of Saqqara (24 granite chests tuned to 0.45% coefficient of variation), Persepolis, Stonehenge, Hal Saflieni, and Newgrange, with errors below 5.2%. A universal scaling law L = 12.9 × Φ−n links chamber dimensions across eight sites on four continents through the golden ratio. Three independent peer-reviewed studies confirm acoustic and electromagnetic signatures at megalithic sites (Cook et al. 2008, Balezin et al. 2018, Wolfe et al. 2021). The model yields a falsifiable prediction testable via rotating magnetic field excitation of granite, currently in experimental preparation (Phase 0). This paper is the first in a series of four exploring the hypothesis of a pre-industrial ancient technology based on piezoelectric resonance, acoustic energy transmission, and Schumann frequency coupling. Keywords: archaeoacoustics, piezoelectricity, finite element simulation, acoustic resonance, megalithic architecture, Barabar caves, Serapeum, golden ratio, Schumann resonances, ABIEH Project: ALBA – Ancient Legacy Bayesian AssessmentWebsite: alba-project.orgContact: julien.sivan@alba-project.orgLicense: CC-BY 4.0

Fields of Study & Subjects

Historical and Architectural Studies Archaeological and Geological Studies Acoustic Wave Phenomena Research

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
4 March 2026
Language
EN
Document type
Preprint