FQ Gravitational Pressure Model: Multi-experimental Verification of Sphere-Plate Casimir Effect and a Cross-Scale Unification Hypothesis
- 1Independent Researcher
Abstract
English Abstract
The FQ gravitational pressure hypothesis reconstructs the underlying physical mechanism of gravity and subverts the traditional cognition of gravity as a long-range attractive force. It proposes that gravity is essentially a net thrust generated by spatial pressure difference formed by the shielding and screening of omnipresent cosmic graviton flux incident on matter, with the core action mechanism being a "pushing effect" rather than the conventionally defined "attractive effect". Macroscopic celestial gravity and the microscopic Casimir effect belong to the same dynamic system of graviton shielding and pressure pushing, differing only in spatial scale and boundary conditions, and share a unified universal coupling coefficient κ of gravitons, possessing inherent cross-scale unity.
This study adopts a verification system of "three groups of authoritative measured experiments plus one group of extreme theoretical simulation". Based on three sets of publicly published classic sphere-plate Casimir force measurement experimental data (Lamoreaux 1997, Mohideen & Roy 1998, Mohideen & Roy 2000), combined with high-gradient theoretical simulation samples constructed with real physical parameters, systematic qualitative verification of the FQ gravitational pressure model is carried out. Under the proximity force approximation (PFA) for sphere-plate configuration, the core formula of the FQ model accurately adapts to the calculation of microscopic Casimir force, strictly following the inverse proportional relationship between force magnitude and gap distance.
Two rigid verification criteria are established in this research: internal consistency verification of the numerical stability of the composite constant for single samples, and cross-sample qualitative verification of the theoretical prediction of surface density saturation effect. Global verification results show that none of the measured experimental data and simulation samples falsify the FQ model. The variation trend of experimental data is highly consistent with the theoretical predictions of the model, perfectly reproducing the core physical characteristics of "increasing surface density, decelerating force growth, and eventual saturation".
Limited by the fixed parameter design of existing public experiments, the eigen cosmic graviton pressure and universal coupling coefficient cannot be decoupled, leaving an inherent parameter degeneracy problem that only allows qualitative trend verification rather than quantitative parameter calibration. This research completely breaks the theoretical barrier between macroscopic gravity and microscopic quantum force. Without introducing additional assumptions such as spacetime curvature, vacuum quantum fluctuation, and action at a distance, the model can self-consistently explain deep space weightlessness, surface gravity difference, strong black hole gravity, and equivalent dark matter gravitational phenomena, providing a novel and self-consistent underlying paradigm for the grand unification of physics.
中文摘要
FQ引力压假说重构了引力的底层物理机制,颠覆了物理学界将引力定义为长程吸引力的传统认知。该理论提出:引力的本质是宇宙全域无处不在的引力子通量入射物质后,经物质遮挡、屏蔽所形成的空间压差净推力,核心作用机制为“推压效应”,而非传统定义的“吸引效应”。宏观天体引力与微观卡西米尔效应同属引力子屏蔽、压差推压的动力学体系,二者仅存在空间尺度与边界条件的差异,共用统一的引力子普适耦合系数κ,具备天然的跨尺度统一性。
本研究采用“三组权威实测实验+一组极限理论仿真”的完整验证体系,依托学界公开的三组经典球-板构型卡西米尔力测量实验数据(Lamoreaux 1997、Mohideen & Roy 1998、Mohideen & Roy 2000),结合真实物理参数构建的高梯度仿真样本,对FQ引力压模型开展系统性定性验证。在球板近距离力近似(PFA)条件下,FQ模型核心公式精准适配微观卡西米尔力计算,严格遵循作用力大小与间隙距离的反比例变化规律。
本研究设立两项刚性验证标准:单一样本复合常数数值稳定性的自洽性验证、多样本表面密度饱和效应理论预测的定性核验。全域验证结果表明:所有实测数据与仿真样本均未证伪FQ模型,实验数据变化趋势与模型理论预测高度契合,完美复现了“表面密度提升、力增长速率放缓、最终趋于饱和”的核心物理特征。
受现有公开实验固定参数设计限制,宇宙本底引力压与普适耦合系数无法解耦,存在固有参数简并问题,仅可完成趋势定性验证,暂无法实现基础参数定量标定。本研究彻底打通了宏观引力与微观量子力的理论壁垒,无需引入时空弯曲、真空量子涨落、超距作用等额外假设,即可自洽解释深空失重、地表引力差异、黑洞强引力、等效暗物质引力等物理现象,为物理学大统一提供了一套全新、自洽的底层理论范式。
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BibTeX
@misc{bian2026gravitational,
title = {{FQ Gravitational Pressure Model: Multi-experimental Verification of Sphere-Plate Casimir Effect and a Cross-Scale Unification Hypothesis}},
author = {Zhenfeng Bian},
howpublished = {Zenodo},
year = {2026},
month = oct,
doi = {10.5281/zenodo.23481448},
url = {https://zenodo.org/records/23481448},
note = {CC BY-NC 4.0},
}
RIS
TY - UNPB
TI - FQ Gravitational Pressure Model: Multi-experimental Verification of Sphere-Plate Casimir Effect and a Cross-Scale Unification Hypothesis
AU - Zhenfeng Bian
PY - 2026
DA - 2026/10/19
PB - Zenodo
DO - 10.5281/zenodo.23481448
UR - https://zenodo.org/records/23481448
AB - English Abstract The FQ gravitational pressure hypothesis reconstructs the underlying physical mechanism of gravity and subverts the traditional cognition of gravity as a long-range attractive force. It proposes that gravity is essentially a net thrust generated by spatial pressure difference formed by the shielding and screening of omnipresent cosmic graviton flux incident on matter, with the core action mechanism being a "pushing effect" rather than the conventionally defined "attractive effect". Macroscopic celestial gravity and the microscopic Casimir effect belong to the same dynamic system of graviton shielding and pressure pushing, differing only in spatial scale and boundary conditions, and share a unified universal coupling coefficient κ of gravitons, possessing inherent cross-scale unity. This study adopts a verification system of "three groups of authoritative measured experiments plus one group of extreme theoretical simulation". Based on three sets of publicly published classic sphere-plate Casimir force measurement experimental data (Lamoreaux 1997, Mohideen & Roy 1998, Mohideen & Roy 2000), combined with high-gradient theoretical simulation samples constructed with real physical parameters, systematic qualitative verification of the FQ gravitational pressure model is carried out. Under the proximity force approximation (PFA) for sphere-plate configuration, the core formula of the FQ model accurately adapts to the calculation of microscopic Casimir force, strictly following the inverse proportional relationship between force magnitude and gap distance. Two rigid verification criteria are established in this research: internal consistency verification of the numerical stability of the composite constant for single samples, and cross-sample qualitative verification of the theoretical prediction of surface density saturation effect. Global verification results show that none of the measured experimental data and simulation samples falsify the FQ model. The variation trend of experimental data is highly consistent with the theoretical predictions of the model, perfectly reproducing the core physical characteristics of "increasing surface density, decelerating force growth, and eventual saturation". Limited by the fixed parameter design of existing public experiments, the eigen cosmic graviton pressure and universal coupling coefficient cannot be decoupled, leaving an inherent parameter degeneracy problem that only allows qualitative trend verification rather than quantitative parameter calibration. This research completely breaks the theoretical barrier between macroscopic gravity and microscopic quantum force. Without introducing additional assumptions such as spacetime curvature, vacuum quantum fluctuation, and action at a distance, the model can self-consistently explain deep space weightlessness, surface gravity difference, strong black hole gravity, and equivalent dark matter gravitational phenomena, providing a novel and self-consistent underlying paradigm for the grand unification of physics. 中文摘要 FQ引力压假说重构了引力的底层物理机制,颠覆了物理学界将引力定义为长程吸引力的传统认知。该理论提出:引力的本质是宇宙全域无处不在的引力子通量入射物质后,经物质遮挡、屏蔽所形成的空间压差净推力,核心作用机制为“推压效应”,而非传统定义的“吸引效应”。宏观天体引力与微观卡西米尔效应同属引力子屏蔽、压差推压的动力学体系,二者仅存在空间尺度与边界条件的差异,共用统一的引力子普适耦合系数κ,具备天然的跨尺度统一性。 本研究采用“三组权威实测实验+一组极限理论仿真”的完整验证体系,依托学界公开的三组经典球-板构型卡西米尔力测量实验数据(Lamoreaux 1997、Mohideen & Roy 1998、Mohideen & Roy 2000),结合真实物理参数构建的高梯度仿真样本,对FQ引力压模型开展系统性定性验证。在球板近距离力近似(PFA)条件下,FQ模型核心公式精准适配微观卡西米尔力计算,严格遵循作用力大小与间隙距离的反比例变化规律。 本研究设立两项刚性验证标准:单一样本复合常数数值稳定性的自洽性验证、多样本表面密度饱和效应理论预测的定性核验。全域验证结果表明:所有实测数据与仿真样本均未证伪FQ模型,实验数据变化趋势与模型理论预测高度契合,完美复现了“表面密度提升、力增长速率放缓、最终趋于饱和”的核心物理特征。 受现有公开实验固定参数设计限制,宇宙本底引力压与普适耦合系数无法解耦,存在固有参数简并问题,仅可完成趋势定性验证,暂无法实现基础参数定量标定。本研究彻底打通了宏观引力与微观量子力的理论壁垒,无需引入时空弯曲、真空量子涨落、超距作用等额外假设,即可自洽解释深空失重、地表引力差异、黑洞强引力、等效暗物质引力等物理现象,为物理学大统一提供了一套全新、自洽的底层理论范式。
ER -