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Black Holes May Not Be Black. Or Even Holes.

In the vast and enigmatic cosmos, a groundbreaking hypothesis is challenging our understanding of black holes, those colossal gravitational forces that have long captivated our imagination. Imagine if these cosmic phenomena, traditionally perceived as inescapable voids of darkness, are, in reality, something entirely different: dark stars, harboring cores of incredibly dense, exotic matter. This revelation could unlock the secrets of one of the universe’s most profound enigmas: the origin and essence of dark matter.

Rooted in Albert Einstein’s profound theory of relativity, black holes represent the extreme, where matter compresses space and time to an unfathomable extent, creating a gravitational abyss from which even light cannot break free. This phenomenon gave rise to their ominous name. But what if the center of each black hole, instead of harboring an infinitely dense singularity, contained something less absolute, yet equally enigmatic?

Enter the realm of dark stars. These celestial objects, theoretical masterpieces of physics, mimic the outward appearance of black holes. Yet, their interiors defy the impossible singularity, hosting a Planck core – a region of matter compressed to almost, but not quite, infinitesimal dimensions. Named after the Planck length, an inconceivably minute measurement unit, these cores challenge the boundaries of our understanding.

These dark stars, devoid of singularities, could theoretically permit the escape of light, albeit heavily altered by gravitational forces, a phenomenon known as redshift. Imagine light stretched and twisted by the intense gravity, barely recognizable from its original form.

Igor Nikitin, a physicist at Germany’s Fraunhofer Institute, brings a new perspective to this cosmic puzzle. In his study, Nikitin proposes that these dark stars, with their deep gravitational wells, could appear as black to an observer, yet their nature is fundamentally different from that of traditional black holes.

This groundbreaking idea also presents a tantalizing solution to the mystery of dark matter, which constitutes about 85% of the universe’s mass yet remains invisible and elusive. Nikitin’s research suggests that dark stars could be emitting streams of dark matter particles, explaining the inexplicable velocity of star rotation in galaxies.

Furthermore, Nikitin hypothesizes that dark stars might hold the key to another cosmic mystery: the origin of fast radio bursts. These brief yet intense bursts of radio waves have puzzled astronomers since their discovery in 2007. If objects like asteroids were to collide with a Planck core, the resulting high-energy light waves, transformed by the star’s gravity, could manifest as these mysterious signals.

While Nikitin’s theory offers a novel perspective and potential answers to some of the cosmos’ most puzzling questions, it remains a hypothesis, awaiting the test of observational evidence. Nonetheless, it exemplifies how thinking beyond conventional boundaries can illuminate new paths in our quest to decipher the universe’s secrets.