A Structural Instability in Early Halo Formation Preserved by Curvature Memory

This paper presents the first structural interpretation of a starless dark‑matter halo as a preserved generative mistake from the early universe. Using the Creation and Structural Memory frameworks, the analysis shows that the halo’s properties arise not from baryonic suppression or environmental effects, but from an inherited curvature configuration that never progressed toward ignition. The work reconstructs the halo’s generative pathway, identifies the misalignment that prevented star formation, and demonstrates how structural memory stabilized the incomplete configuration across cosmic time.The paper introduces a new interpretive category for non‑luminous halos: preserved curvature artifacts. It outlines the structural conditions under which generative errors arise, explains how memory maintains their identity, and distinguishes these objects from conventional dark‑matter subhalos. The study also develops observational criteria for identifying preserved structural mistakes through lensing profiles, dynamical signatures, and deviations in large‑scale structure.By reframing the halo as the universe’s earliest structural mistake, the paper expands the structural grammar of cosmology and highlights the role of memory in preserving both successful and incomplete generative outcomes. This case study establishes a foundation for future work on the taxonomy, distribution, and observational detection of preserved curvature misalignments.