FRACTAL UNIVERSE, KRAWCA QUANTUM FIELD AND THE ULTRA-LIGHT EWON

The quest to unify the description of the Universe across quantum and cosmological scales remains one of the most fundamental challenges in physics. While the standard model of cosmology and quantum field theory have both achieved remarkable success, they also leave open profound questions concerning the origin of spacetime, the nature of dark energy, and the apparent discreteness underlying continuous physical laws.

In this work, we propose a framework built upon three core ideas: the Fractal Universe, the Krawca quantum field, and the ultra-light ewon. The fractal Universe provides a self-similar, dendritic structure in which each cycle branches into two, enabling cosmic evolution through iterative duplication. Within this structure, the Krawca field represents a quantum field of time–energy, acting as the dispersive counterpart to gravity. Its quanta are the ewons, whose masses decrease and temporal quanta increase across cycles.

This perspective allows for a redefinition of time as an energy-like quantity that expands and disperses, while gravity acts as its complementary force, clustering and binding matter. Matter emerges at the intersection of these dual processes. The ultra-light ewon, the present-day quantum of the Krawca field, not only provides a candidate for the missing mass of the Universe but also embeds a fundamental granularity of time that reconciles quantum mechanics with relativity.

Through this approach, we aim to demonstrate that the observed size, age, and mass of the Universe, as well as its accelerated expansion, can naturally emerge from a minimal set of assumptions.