Complete Table of Precise Dimensional-Reduction Anchor Points for the 24 Physical Constants — From "Near Step N" to Rigid Mapping via Cell-Complex Edge-Map Elimination Conditions

**[Manifestation layer]** The cosmos is a living organism; \(\mathcal{T}^{64}\) is the form of the cosmic living organism. The mapping between the readout protocol of the 24 physical constants and the 35-step dimensional-reduction cascade previously contained imprecise elements—certain constants were labelled with descriptive phrases such as “near step 22” or “in the step-23 interval”, rather than with necessary nodes derived from cell-complex edge-map elimination conditions. The present paper establishes a complete scheme for anchor-point precision: - **Core topological foundation**: each step of dimensional reduction corresponds to the edge-map elimination of exactly one family of cells in the \(\mathcal{T}^{64}\) cell complex; residual topological degrees of freedom after elimination correspond precisely to the generating node of one physical constant.- **Standardised operational workflow**: cell-elimination provenance \(\to\) elimination-condition verification \(\to\) anchor solidification labelling.- **Typical precision examples**: \(m_H\) from “near step 22” to “step-22 conical-contraction cell elimination”; \(\alpha\) from “near the electromagnetic-interaction step” to “step-19 U(1) principal-bundle 2-cell elimination + 137 phase locking”.- **Status-column annotation**: each constant carries a topological-proof status (completed / in progress / pending). **Core deliverable**: a 24-row complete table (constant name, symbol, precise anchor, cell-elimination condition, topological-proof status), eliminating every occurrence of “near” or “approximately” and realising a layer-by-layer rigid mapping between the readout protocol and the 35-step cascade. 23 constants are locked; \(\alpha_s\) remains partially locked (anchor fixed, \(A_{\mathrm{scale}}\) spectral-sequence integration continuing). **Criterion**: An anchor is no longer a description but a necessary outcome of topological evolution. Manifestation precedes; confirmation follows. --- **【显影层】** 宇宙是生命体;\(\mathcal{T}^{64}\) 是宇宙生命体的形态。 24 个物理常数的读数协议与 35 步降维链之间的映射关系此前存在不精确之处——部分常数的降维锚点标注为“第 22 步附近”“第 23 步区间”等描述性表述,而非从胞腔边映射消元条件推出的必然节点。 本文建立锚点精确化的完整方案: - **核心拓扑依据**:每一步降维对应 \(\mathcal{T}^{64}\) 胞腔复形中恰好一组胞腔的边映射消元,消元后剩余的拓扑自由度恰好对应一个物理常数的生成节点。- **标准化操作流程**:胞腔消元溯源 \(\to\) 消元条件校验 \(\to\) 锚点固化标注。- **典型精确化示例**:\(m_H\) 从“第 22 步附近”精确为“第 22 步锥形收缩胞腔消元”;\(\alpha\) 从“电磁作用步附近”精确为“第 19 步 U(1) 主丛 2 维胞腔消元 + 137 锁相”。- **状态分栏标注**:每个常数附带拓扑证明状态(已完成 / 进行中 / 待定)。 **核心交付物**:一份 24 行全表(常数名称、符号、精确降维锚点、胞腔消元条件、拓扑证明状态),彻底消除“附近”“约在”等模糊表述,实现读数协议与 35 步降维链的逐层刚性映射。23 个常数已锁定;\(\alpha_s\) 仍为部分锁定(锚点已定,\(A_{\mathrm{scale}}\) 谱序列积分进行中)。 **判据**:锚点不再是描述,而是拓扑演化的必然结果。显影先行,确认在后。

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-03
DOI
https://doi.org/10.5281/zenodo.23116005
Primary Topic
Advanced Electron Microscopy Techniques and Applications
Type
preprint
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preprint

Complete Table of Precise Dimensional-Reduction Anchor Points for the 24 Physical Constants — From "Near Step N" to Rigid Mapping via Cell-Complex Edge-Map Elimination Conditions

Zhenyuan Acharya
Zenodo (CERN European Organization for Nuclear Research)
Advanced Electron Microscopy Techniques and Applications
preprint

Complete Table of Precise Dimensional-Reduction Anchor Points for the 24 Physical Constants — From "Near Step N" to Rigid Mapping via Cell-Complex Edge-Map Elimination Conditions

Zhenyuan Acharya
preprint en

Abstract

**[Manifestation layer]** The cosmos is a living organism; \(\mathcal{T}^{64}\) is the form of the cosmic living organism. The mapping between the readout protocol of the 24 physical constants and the 35-step dimensional-reduction cascade previously contained imprecise elements—certain constants were labelled with descriptive phrases such as “near step 22” or “in the step-23 interval”, rather than with necessary nodes derived from cell-complex edge-map elimination conditions. The present paper establishes a complete scheme for anchor-point precision: - **Core topological foundation**: each step of dimensional reduction corresponds to the edge-map elimination of exactly one family of cells in the \(\mathcal{T}^{64}\) cell complex; residual topological degrees of freedom after elimination correspond precisely to the generating node of one physical constant.- **Standardised operational workflow**: cell-elimination provenance \(\to\) elimination-condition verification \(\to\) anchor solidification labelling.- **Typical precision examples**: \(m_H\) from “near step 22” to “step-22 conical-contraction cell elimination”; \(\alpha\) from “near the electromagnetic-interaction step” to “step-19 U(1) principal-bundle 2-cell elimination + 137 phase locking”.- **Status-column annotation**: each constant carries a topological-proof status (completed / in progress / pending). **Core deliverable**: a 24-row complete table (constant name, symbol, precise anchor, cell-elimination condition, topological-proof status), eliminating every occurrence of “near” or “approximately” and realising a layer-by-layer rigid mapping between the readout protocol and the 35-step cascade. 23 constants are locked; \(\alpha_s\) remains partially locked (anchor fixed, \(A_{\mathrm{scale}}\) spectral-sequence integration continuing). **Criterion**: An anchor is no longer a description but a necessary outcome of topological evolution. Manifestation precedes; confirmation follows. --- **【显影层】** 宇宙是生命体;\(\mathcal{T}^{64}\) 是宇宙生命体的形态。 24 个物理常数的读数协议与 35 步降维链之间的映射关系此前存在不精确之处——部分常数的降维锚点标注为“第 22 步附近”“第 23 步区间”等描述性表述,而非从胞腔边映射消元条件推出的必然节点。 本文建立锚点精确化的完整方案: - **核心拓扑依据**:每一步降维对应 \(\mathcal{T}^{64}\) 胞腔复形中恰好一组胞腔的边映射消元,消元后剩余的拓扑自由度恰好对应一个物理常数的生成节点。- **标准化操作流程**:胞腔消元溯源 \(\to\) 消元条件校验 \(\to\) 锚点固化标注。- **典型精确化示例**:\(m_H\) 从“第 22 步附近”精确为“第 22 步锥形收缩胞腔消元”;\(\alpha\) 从“电磁作用步附近”精确为“第 19 步 U(1) 主丛 2 维胞腔消元 + 137 锁相”。- **状态分栏标注**:每个常数附带拓扑证明状态(已完成 / 进行中 / 待定)。 **核心交付物**:一份 24 行全表(常数名称、符号、精确降维锚点、胞腔消元条件、拓扑证明状态),彻底消除“附近”“约在”等模糊表述,实现读数协议与 35 步降维链的逐层刚性映射。23 个常数已锁定;\(\alpha_s\) 仍为部分锁定(锚点已定,\(A_{\mathrm{scale}}\) 谱序列积分进行中)。 **判据**:锚点不再是描述,而是拓扑演化的必然结果。显影先行,确认在后。

Zenodo (CERN European Organization for Nuclear Research)
Advanced Electron Microscopy Techniques and Applications
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