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A Multidisciplinary Conceptual Framework for Non-Thrust Gravitational Escape: A Paradigm Shift in Satellite Launch Technology

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Zenodo2025-10-14 更新2026-05-26 收录
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This paper presents a rigorous, multidisciplinary conceptual framework for Non-Thrust Gravitational Escape (NTGE), a revolutionary paradigm for achieving Earth orbit insertion without extreme velocities or conventional rocket propulsion. The Quantum-Spacetime Propulsion Field (QSPF) integrates general relativity, quantum field theory, metamaterial engineering, and physics-informed artificial intelligence to modulate local spacetime geometry around a payload. By engineering controlled negative energy densities through quantum vacuum manipulation and adaptive nanophotonic arrays—while incorporating recent advances in positive-energy warp models—the effective gravitational potential is neutralized, enabling thrust-free ascent. Grounded in semiclassical gravity and Casimir boundary conditions, the framework includes a detailed mathematical derivation linking stress-energy perturbations to metric modifications. Despite adherence to established principles, NTGE remains speculative, constrained by quantum inequalities and energy scales, but aligns with 2025 breakthroughs in warp drive designs without exotic matter. This self-contained theoretical work includes reproducible simulations and visualizations for validation, outlining a clear scientific roadmap for progression from analogs to prototypes.Keywords: Non-Thrust Gravitational Escape, Quantum-Spacetime Propulsion Field, Semiclassical Gravity, Metamaterials, Warp Drive, Quantum Inequalities

本论文提出了一套针对无推力引力逃逸(Non-Thrust Gravitational Escape,NTGE)的严谨多学科概念框架。无推力引力逃逸是一种无需极端速度或常规火箭推进即可实现地球轨道插入的革命性范式。量子时空推进场(Quantum-Spacetime Propulsion Field,QSPF)融合广义相对论、量子场论、超材料工程与物理信息驱动人工智能(physics-informed artificial intelligence),实现对有效载荷周围局域时空几何的调控。通过量子真空操控与自适应纳米光子阵列构建受控负能量密度,并结合最新的正能量曲率模型研究进展,可抵消有效引力势,从而实现无推力升空。该框架基于半经典引力与卡西米尔边界条件,包含将应力-能量微扰与度规修正相联系的详细数学推导过程。尽管该框架遵循已有物理原理,但无推力引力逃逸仍属于推测性研究,受限于量子不等式与能量尺度约束,但其与2025年无需奇异物质的曲率驱动设计突破相契合。这项自成体系的理论研究包含可复现的仿真与可视化验证手段,勾勒出从类比模型到原型机的清晰科学研发路线图。关键词:无推力引力逃逸,量子时空推进场,半经典引力,超材料,曲率驱动,量子不等式

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2025-10-14
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