THE ABÏON VEHICLE Engineering Architecture for Momentum-Sourced Metric Displacement

This paper develops the complete engineering architecture for translating the ABÏON metric (Paper 1) into a physical device capable of generating measurable — and potentially macroscopic — gravitomagnetic frame-dragging. Starting from the mathematical requirements imposed by the metric, we derive the mechanical, structural, thermal, and experimental specifications for momentum-sourced spacetime engineering devices spanning three orders of magnitude in scale. Part I establishes the bridge from the metric to the machine, defining the engineering constraints that the stress-energy tensor imposes on any physical realization. Part II develops the hyperboloid architecture: the double nested paraboloid configuration, the Archimedes screw mechanism for rotational-to-translational conversion, counter-rotating shells for stability, and the flat interior geometry. Part III addresses materials and structural engineering, deriving the scale-free stress law σ_hoop = ρv² (independent of device radius), analyzing graphene and MATBG as candidate materials, and specifying structural, bearing, containment, and thermal systems. Part IV develops the amplification chain — Cooper-pair coherence amplification (A), resonant quality factor (Q), and the complete amplification equation h₀z = h₀φ × sin α × F_geo × A × Q — with capability tables spanning from A = 1 (no amplification) to A = 10¹⁸. Part V introduces the Multidimensional Physical Architecture (MPA) framework for systematic experimental design, treating mass, rotation, superconductivity, geometry, resonance, and electromagnetic coupling as independent experimental dimensions. Part VI develops the experimental program, incorporating lessons from the Tajmar and Graham experiments, materials as active variables, and the graphene hypothesis. Part VII presents three reference designs — the ABÏON 10m (laboratory prototype for measuring Cooper-pair amplification), the ABÏON 500m (the reference configuration analyzed in Paper 1), and a staircase roadmap from laboratory demonstration to interstellar capability. Part VIII concludes with the research program required to advance from the current theoretical framework to experimental validation. Companion paper: "The ABÏON Metric: A Momentum-Sourced Family of Warp Solutions in Linearized General Relativity" (Paper 1 of 2).

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-04
DOI
https://doi.org/10.5281/zenodo.23128097
Primary Topic
Pulsars and Gravitational Waves Research
Type
preprint
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preprint

THE ABÏON VEHICLE Engineering Architecture for Momentum-Sourced Metric Displacement

Alvaro Fabian BRICIO ARZUBIDE
Zenodo (CERN European Organization for Nuclear Research)
Pulsars and Gravitational Waves Research
preprint

THE ABÏON VEHICLE Engineering Architecture for Momentum-Sourced Metric Displacement

Alvaro Fabian BRICIO ARZUBIDE
preprint en

Abstract

This paper develops the complete engineering architecture for translating the ABÏON metric (Paper 1) into a physical device capable of generating measurable — and potentially macroscopic — gravitomagnetic frame-dragging. Starting from the mathematical requirements imposed by the metric, we derive the mechanical, structural, thermal, and experimental specifications for momentum-sourced spacetime engineering devices spanning three orders of magnitude in scale. Part I establishes the bridge from the metric to the machine, defining the engineering constraints that the stress-energy tensor imposes on any physical realization. Part II develops the hyperboloid architecture: the double nested paraboloid configuration, the Archimedes screw mechanism for rotational-to-translational conversion, counter-rotating shells for stability, and the flat interior geometry. Part III addresses materials and structural engineering, deriving the scale-free stress law σ_hoop = ρv² (independent of device radius), analyzing graphene and MATBG as candidate materials, and specifying structural, bearing, containment, and thermal systems. Part IV develops the amplification chain — Cooper-pair coherence amplification (A), resonant quality factor (Q), and the complete amplification equation h₀z = h₀φ × sin α × F_geo × A × Q — with capability tables spanning from A = 1 (no amplification) to A = 10¹⁸. Part V introduces the Multidimensional Physical Architecture (MPA) framework for systematic experimental design, treating mass, rotation, superconductivity, geometry, resonance, and electromagnetic coupling as independent experimental dimensions. Part VI develops the experimental program, incorporating lessons from the Tajmar and Graham experiments, materials as active variables, and the graphene hypothesis. Part VII presents three reference designs — the ABÏON 10m (laboratory prototype for measuring Cooper-pair amplification), the ABÏON 500m (the reference configuration analyzed in Paper 1), and a staircase roadmap from laboratory demonstration to interstellar capability. Part VIII concludes with the research program required to advance from the current theoretical framework to experimental validation. Companion paper: "The ABÏON Metric: A Momentum-Sourced Family of Warp Solutions in Linearized General Relativity" (Paper 1 of 2).

Zenodo (CERN European Organization for Nuclear Research)
Pulsars and Gravitational Waves Research
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