Project Genesis: Coaxial RF-Solar Hybrid Power Infrastructure Technical Manifesto

This engineering manifesto outlines a scalable, long-range, and highly efficient interplanetary wireless energy network designed to overcome the diffraction and atmospheric degradation constraints of traditional power beaming systems [1.4, 1.6]. The transmission cluster utilizes a modular array of three 20-sided whole-die icosahedron phased arrays arranged in an asymmetrical triangle [1.1, 1.36]. These senders project a chirped, multi-chromatic "disco light" spectrum—combining millimeter-wave radio frequencies and near-infrared optical laser lines along a single coaxial path—to eliminate narrow-band tracking vulnerabilities and optimize downstream multi-junction bandgap absorption [1.14]. Energy capture is handled by an Inverted Cavity Receiver styled as a 10-faceted concave half-icosahedron dome, creating a geometric trap that forces peripheral and scattered rays to bounce internally until fully captured [1.17, 1.18]. The aperture faces feature hyperbolic plano-convex single-crystal CVD diamond lenses layered with crystal-like hybrid quartz index buffers to eliminate focal aberrations and erase reflection losses [1.14, 1.42, 1.43]. The system achieves closed-loop thermodynamic efficiency via an outer structural shell of non-percolating Solar Carbon Nanofibre (CNF) Hybrid Skin, coupled with internal dimpled, cascaded thermoelectric modules (TEGs) sealed inside vacuum silica aerogel pods to recycle waste heat back into the DC power bus [1.21, 1.31, 1.34]. Real-time stabilization, микро-second alignment, and self-protection are driven completely solid-state by Active Reconfigurable Intelligent Metasurfaces (RIS), nose-cone style retro-directive pilot antenna arrays, and an adaptive Edge AI Demand-Side Signaling Protocol [1.36, 1.42]. Long-range interplanetary transits are sustained by an orbital chain of Ghost Satellite Relays that harvest ambient space solar energy to actively amplify the beam at each hop, establishing a zero-decay energy highway across the solar system.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-29
DOI
https://doi.org/10.5281/zenodo.23761813
Primary Topic
Wireless Power Transfer Systems
Type
article
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article

Project Genesis: Coaxial RF-Solar Hybrid Power Infrastructure Technical Manifesto

David Michael Seagal
4 links
Zenodo (CERN European Organization for Nuclear Research)
Wireless Power Transfer Systems
article

Project Genesis: Coaxial RF-Solar Hybrid Power Infrastructure Technical Manifesto

David Michael Seagal
article en

Abstract

This engineering manifesto outlines a scalable, long-range, and highly efficient interplanetary wireless energy network designed to overcome the diffraction and atmospheric degradation constraints of traditional power beaming systems [1.4, 1.6]. The transmission cluster utilizes a modular array of three 20-sided whole-die icosahedron phased arrays arranged in an asymmetrical triangle [1.1, 1.36]. These senders project a chirped, multi-chromatic "disco light" spectrum—combining millimeter-wave radio frequencies and near-infrared optical laser lines along a single coaxial path—to eliminate narrow-band tracking vulnerabilities and optimize downstream multi-junction bandgap absorption [1.14]. Energy capture is handled by an Inverted Cavity Receiver styled as a 10-faceted concave half-icosahedron dome, creating a geometric trap that forces peripheral and scattered rays to bounce internally until fully captured [1.17, 1.18]. The aperture faces feature hyperbolic plano-convex single-crystal CVD diamond lenses layered with crystal-like hybrid quartz index buffers to eliminate focal aberrations and erase reflection losses [1.14, 1.42, 1.43]. The system achieves closed-loop thermodynamic efficiency via an outer structural shell of non-percolating Solar Carbon Nanofibre (CNF) Hybrid Skin, coupled with internal dimpled, cascaded thermoelectric modules (TEGs) sealed inside vacuum silica aerogel pods to recycle waste heat back into the DC power bus [1.21, 1.31, 1.34]. Real-time stabilization, микро-second alignment, and self-protection are driven completely solid-state by Active Reconfigurable Intelligent Metasurfaces (RIS), nose-cone style retro-directive pilot antenna arrays, and an adaptive Edge AI Demand-Side Signaling Protocol [1.36, 1.42]. Long-range interplanetary transits are sustained by an orbital chain of Ghost Satellite Relays that harvest ambient space solar energy to actively amplify the beam at each hop, establishing a zero-decay energy highway across the solar system.

Zenodo (CERN European Organization for Nuclear Research)
Affordable and clean energy, Industry, innovation and infrastructure
Openalex Percentile: Top 25%
Wireless Power Transfer Systems
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