PROJECT GENESIS: QUANTUM TETRAHEDRAL HYBRID PROPULSION MANIFESTO GEN 1, PART 1: FOUNDATIONS OF BOUNDARY-LAYER FLUID DYNAMICS

Project Genesis defines a scalable, multi-stage Quantum Tetrahedral Hybrid Propulsion System designed to achieve silent, high-efficiency, solid-state flight. This open-source architecture resolves the two critical limitations that have historically restricted atmospheric electrohydrodynamic (EHD) propulsion to lab-bench models: prohibitive energy requirements and extreme atmospheric sensitivity (arcing under high humidity). The system transitions past brute-force high-voltage scaling by establishing an integrated, multi-physics environmental loop. A first-generation (Gen 1) trial blueprint achieves this through four highly coordinated stages: Mechanical Pre-Compression: An asymmetrical, non-equilateral triangular array of non-bladed Tesla disc packs (featuring lightweight carbon nanofiber skeletons cross-linked with highly electropositive sugarcane bio-waste and casein proteins) pulls in and compresses ambient air without rotational gyroscopic flight roll. Thermodynamic Densification: A micro-dimpled hexagonal honeycomb stator mesh straightens the turbulent rotational air, while structurally embedded Thermoelectric Coolers (TECs) flash-freeze the incoming column. This spikes absolute air density and mass flow rate before the fluid encounters the primary positive ionic corona rings. Closed-Loop Static Scavenging: High-velocity air-shearing through the nano-textured disc gaps triggers a continuous triboelectric exchange, mechanically pre-charging the air mass and lowering downstream high-voltage demands. Residual exhaust kinetic and acoustic energy is safely recycled via an isolated downstream Triboelectric Nanogenerator (TENG) mesh. Absolute Material Containment: The entire framework is micro-sealed in an iron-flake-infused flexible ceramic UV vacuum coat globally embossed with a bio-mimetic dragonfly skin nano-pillar texture to ensure total hydrophobicity and zero skin-friction drag. Electromagnetic Interference (EMI) is completely trapped within the core by a nested, triple-twisted tungsten wire hexagonal Faraday cage embedded with sub-micron diamond dust and backed by flexible silica aerogel firewalls. Flight maneuvering is handled via Differential Fluidic Thrust Vectoring across a 3D tetrahedral diamond drive configuration. Contactless, biaxial (radial-axial) magnetic stator hinges pivot the side wings from high-load VTOL lift modes into low-profile cruise channels that function as an underbelly ram-air trap. When parked on the tarmac, the architecture functions in reverse as a passive, solid-state trickle-charging engine—harvesting static friction from headlines and converting ambient thermal differentials into current, scaling in charging efficiency as the surrounding weather conditions become more extreme.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-05
DOI
https://doi.org/10.5281/zenodo.23967142
Primary Topic
Plasma and Flow Control in Aerodynamics
Type
article
Field-Weighted Citation Impact
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article

PROJECT GENESIS: QUANTUM TETRAHEDRAL HYBRID PROPULSION MANIFESTO GEN 1, PART 1: FOUNDATIONS OF BOUNDARY-LAYER FLUID DYNAMICS

David Michael Seagal
1 links
Zenodo (CERN European Organization for Nuclear Research)
Plasma and Flow Control in Aerodynamics
article

PROJECT GENESIS: QUANTUM TETRAHEDRAL HYBRID PROPULSION MANIFESTO GEN 1, PART 1: FOUNDATIONS OF BOUNDARY-LAYER FLUID DYNAMICS

David Michael Seagal
article en

Abstract

Project Genesis defines a scalable, multi-stage Quantum Tetrahedral Hybrid Propulsion System designed to achieve silent, high-efficiency, solid-state flight. This open-source architecture resolves the two critical limitations that have historically restricted atmospheric electrohydrodynamic (EHD) propulsion to lab-bench models: prohibitive energy requirements and extreme atmospheric sensitivity (arcing under high humidity). The system transitions past brute-force high-voltage scaling by establishing an integrated, multi-physics environmental loop. A first-generation (Gen 1) trial blueprint achieves this through four highly coordinated stages: Mechanical Pre-Compression: An asymmetrical, non-equilateral triangular array of non-bladed Tesla disc packs (featuring lightweight carbon nanofiber skeletons cross-linked with highly electropositive sugarcane bio-waste and casein proteins) pulls in and compresses ambient air without rotational gyroscopic flight roll. Thermodynamic Densification: A micro-dimpled hexagonal honeycomb stator mesh straightens the turbulent rotational air, while structurally embedded Thermoelectric Coolers (TECs) flash-freeze the incoming column. This spikes absolute air density and mass flow rate before the fluid encounters the primary positive ionic corona rings. Closed-Loop Static Scavenging: High-velocity air-shearing through the nano-textured disc gaps triggers a continuous triboelectric exchange, mechanically pre-charging the air mass and lowering downstream high-voltage demands. Residual exhaust kinetic and acoustic energy is safely recycled via an isolated downstream Triboelectric Nanogenerator (TENG) mesh. Absolute Material Containment: The entire framework is micro-sealed in an iron-flake-infused flexible ceramic UV vacuum coat globally embossed with a bio-mimetic dragonfly skin nano-pillar texture to ensure total hydrophobicity and zero skin-friction drag. Electromagnetic Interference (EMI) is completely trapped within the core by a nested, triple-twisted tungsten wire hexagonal Faraday cage embedded with sub-micron diamond dust and backed by flexible silica aerogel firewalls. Flight maneuvering is handled via Differential Fluidic Thrust Vectoring across a 3D tetrahedral diamond drive configuration. Contactless, biaxial (radial-axial) magnetic stator hinges pivot the side wings from high-load VTOL lift modes into low-profile cruise channels that function as an underbelly ram-air trap. When parked on the tarmac, the architecture functions in reverse as a passive, solid-state trickle-charging engine—harvesting static friction from headlines and converting ambient thermal differentials into current, scaling in charging efficiency as the surrounding weather conditions become more extreme.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 18%
Plasma and Flow Control in Aerodynamics
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