After 43 continuous hours of testing, we finally managed to separate a microscopic fragment from the original Vossium sample. The cut was made using four synchronized ultraviolet industrial lasers operating at maximum output. Every conventional cutting method failed. Diamond-tipped drills shattered on contact. Tungsten-carbide blades deformed almost instantly. Even plasma torches barely left a visible mark. The fragment measured just 0.18 millimeters across. Initial spectroscopic analysis produced results unlike anything we have ever observed. The sample contains familiar atoms including iron, nickel, titanium, chromium, and trace amounts of iridium, all elements commonly found inside metallic meteorites. However, these elements are not bonded together in any known crystalline structure. Instead, their atomic lattice appears compressed into an ultra-dense arrangement that should be physically impossible under natural conditions found on Earth. Our simulations suggest the material could only have formed under pressures exceeding several trillion atmospheres while being exposed to temperatures hotter than the core of our Sun. There is only one environment we know of capable of producing such conditions. The core of a dying planet during a catastrophic collision. If an Earth-sized world collided with another planetary body billions of years ago, fragments of its compressed metallic core could have been launched into space. One of those fragments may have wandered through the solar system for millions of years before striking Earth’s oceans during the planet’s early formation. That would explain why no geological records contain anything remotely similar. Further analysis revealed another anomaly. The faint blue glow observed inside the sample is not caused by heat or radiation. The crystal lattice itself appears to trap and slowly release energy absorbed from its surroundings. Light, heat, electricity, and even mechanical impacts leave behind tiny amounts of stored energy. The sample behaves almost like a natural battery, yet it has shown no measurable loss in capacity despite continuous testing. At this time, we have no explanation for this phenomenon. If the effect can be replicated, Vossium may become the greatest energy storage material ever discovered. If weaponized… I don’t want to finish that sentence. I’ve ordered all findings sealed under OMEGA classification until we better understand what we’ve found Every answer seems to create two more questions For the first time in my career… I’m not sure whether we’ve discovered humanity’s future …or its extinction.
