Demonstrates a mapping between a mathematical constant and the CMB temperature, suggesting physical implications.
本文尝试将偏元数学系列基础论文(0-∞.0)中引入的纯数学常数ε锚定到一个经验物理可观测值上:宇宙微波背景(CMB)温度T_cmb ≈ 2.72548 K。我们提出,残余ε不仅仅是一个形式符号,它对应于嵌入宇宙初始条件中的真实物理偏好。通过分析早期宇宙中的对称性破缺结构,我们推导出ε与CMB单极温度之间的映射关系。该推导从阴阳二相振荡子模型出发,在该模型中,每一次宇宙呼吸周期都会引入一个不可约的方向偏好δ₀ ≈ 10⁻⁶⁰。我们证明,ε正是这个物理挣脱偏角在数学上的投影。当ε→0时,该模型退化为具有完美各向同性的经典CMB宇宙学。我们提供了一个初步的可证伪条件:如果未来的CMB观测证明单极温度是完全各向同性的,且残余方向偏好精确为零(在10⁻⁶⁰量级以下),则ε物理锚定的这一框架被证伪。 This paper attempts to anchor the purely mathematical Partial-Deviation constant ε, introduced in the foundational paper 0-∞.0, to an empirical physical observable: the Cosmic Microwave Background (CMB) temperature T_cmb ≈ 2.72548 K. We propose that the residual ε is not merely a formal symbol but corresponds to a real physical bias embedded in the universe's initial condition. By examining the structure of symmetry breaking in the early universe, we derive a mapping between ε and the CMB monopole temperature. The derivation proceeds from the Yin-Yang Two-Phase Oscillator model, in which each universal breath cycle introduces an irreducible directional preference δ₀ ≈ 10⁻⁶⁰. We show that ε is the mathematical projection of this physical escape bias. When ε → 0, the model degenerates to classical CMB cosmology with perfect isotropy. We provide a tentative falsification condition: if future CMB observations demonstrate that the temperature monopole is exactly isotropic with zero residual directional preference at the 10⁻⁶⁰ level, then the physically anchored Partial-Deviation framework is falsified.
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Song Chen (2026) studied this question.
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