Spacetime Crystal Can Collapse into Tiny Black Hole

Physicists have mathematically described a novel “spacetime crystal” that can either dissolve or collapse into a microscopic black hole when its energy is altered by an infinitesimal amount. The model predicts that a tiny perturbation can trigger a dramatic phase transition, turning the crystal’s structure into a singularity on a microscopic scale.

The breakthrough was achieved by applying an unconventional technique that invokes an infinite number of dimensions. By treating the system in this higher‑dimensional framework, the researchers were able to capture the critical behavior of the crystal and its collapse into a black hole. This approach provides a new theoretical tool for probing the properties of primordial and microscopic black holes, which have long been difficult to study experimentally.

The findings could open new avenues for exploring early‑universe physics and the formation of small‑scale black holes. By offering a tractable model that links exotic spacetime structures to black‑hole dynamics, the work may help physicists test fundamental theories about gravity, quantum mechanics, and the nature of spacetime.