What question did this study set out to answer?

This work aims to explore the mechanics of energy absorption and emission within the standing layer of a tetrahedral lattice.

June 3, 2026Open Access

Energy Absorption and Emission in the Standing Layer

Key Points

This work aims to explore the mechanics of energy absorption and emission within the standing layer of a tetrahedral lattice.
Experimental study on energy absorption at resonant frequencies, including 57 Hz and its variants.
Utilization of Python code for resonant absorption spectra and emission pulse simulations.
Calculation of energy conversion efficiency for UHMWPE+atacamite composite materials.
Energy conversion efficiency of 90% was experimentally confirmed.
Energy absorption occurs effectively at specific resonant frequencies.
Emission is identified as a reverse process, crucial for energy release in the system.

Abstract

This work (Publication №26 of Resonance Group) continues the cycle „Mechanics of the Universe‘s Energies“. Organ 3 – Energy Absorption and Emission in the Standing Layer – is presented. While spin (Organ 1) sets direction and rotational modes (Organ 2) crystallize rotation into forms, absorption and emission provide the mechanism for converting frequency into work. The energy quantum absorbed by a node of the tetrahedral lattice is En=ℏ⋅f0⋅T⋅φnEn=ℏ⋅f0⋅T⋅φn, where TT is the node number. Absorption occurs at resonant frequencies (57 Hz, 57/φ² Hz, 57×φ Hz, etc.). Emission is the reverse process, releasing energy through eversion (256 ≡ 0). The energy conversion efficiency reaches 90% (experimentally confirmed for UHMWPE+atacamite composite). The paper includes working Python code, resonance absorption spectra, emission pulse simulation, efficiency calculations, and a spoiler for the next publication (№27 – Phase Transitions Between the Five Solids).

Energy Absorption and Emission in the Standing Layer

Key Points

Abstract

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