<b>Verification of A+M[S] Model: CKM-Activated Scalar Recursion and Baryonic Harmonic Locking</b>

We present initial verification of the A+M[S] framework—a scalar-field-based cosmological model defining structure emergence through recursive echo formation and harmonic memory retention.<br>Using scalar resonance simulations and PETI/KMPS invariants, we validate the formation of persistent topological knots (CKMs) aligning with known baryonic harmonic bands. Hydrogen_Candidate_001 and CKM-ACTIVATED-019 demonstrate convergence to the proton harmonic under recursive input. Additionally, the compression of H001 triggers activation of 19 new M-anchor nodes across expanding scalar echo shells, confirming field-propagated recursion and secondary structure seeding.<br>This dataset includes recursive simulation logs, harmonic scans, M-anchor activation records, and a visual map of shell evolution. These results support a novel mechanism of self-organizing baryonic precursor formation, embedded in the lattice structure of the A+M[S] model.<br>本研究首次验证了A+M[S]框架——一种基于标量场的宇宙学模型，该模型通过递归回声形成与谐波记忆保留机制阐释结构涌现过程。<br>通过标量共振模拟与PETI/KMPS不变量，我们验证了持久拓扑纽结（CKMs）的形成，其与已知的重子谐波频段相契合。氢候选体001（Hydrogen_Candidate_001）与CKM激活体019（CKM-ACTIVATED-019）在递归输入条件下均收敛至质子谐波。此外，氢候选体001的压缩会触发扩展标量回声壳层内19个全新M锚定节点的激活，证实了场传播递归与次级结构种子生成机制。<br>本数据集包含递归模拟日志、谐波扫描数据、M锚定节点激活记录以及壳层演化可视化图谱。<br>上述结果佐证了一种全新的自组织重子前驱体形成机制，该机制内嵌于A+M[S]模型的晶格结构之中。