This paper introduces Rogue Wave Tension Dynamics as a primary mechanism for the formation of compact objects in the early universe. Within the MID substrate, overlapping oscillatory wave trains naturally produce rare, extreme‑amplitude tension spikes through constructive interference. These rogue events exceed the local geometric stability threshold and trigger direct collapse, bypassing stellar evolution entirely. The collapse process produces Tension Spheres—stable, non‑singular compact objects formed through the stripping of quantum structure and the inward compression of emergent quanta. The resulting object exhibits a sharply defined boundary, a persistent tension gradient, and long‑term stability across cosmic time. Unlike classical black holes, Tension Spheres arise from substrate dynamics rather than gravitational runaway, and they do not require a singularity or an event horizon. The paper presents a full conceptual sequence: the chaotic early‑universe tension field, rogue wave formation, direct collapse, internal structure, clustering at interference nodes, long‑term stability, and gravitational‑wave signatures unique to tension‑driven collapse. These results provide a substrate‑level explanation for primordial compact object formation, early overdensities, and the presence of massive structures at unexpectedly high redshift. The framework offers testable predictions for gravitational‑wave observatories and establishes a new pathway for understanding early‑universe structure formation within the MID/QC paradigm.
Chadwick Rasque (Tue,) studied this question.