A U.S. military satellite, launched in 1988 and designated as USA 32, broke apart in low Earth orbit at an altitude of about 775 kilometers. The U.S. Space Force confirmed the event, which happened nearly 38 years after the satellite was launched. Experts believe the satellite likely disintegrated due to a ruptured tank or battery that had weakened from repeated exposure to extreme temperature changes in space. However, they have not ruled out the possibility of a collision with space debris or a tiny meteorite. The satellite, known informally as FARRAH III in military circles, was named after the late actress Farrah Fawcett, though the reason for the nickname is not publicly known. USA 32 was designed during the Cold War to intercept and monitor Soviet radar signals. It used a unique "tuna can" design—so-called because of its cylindrical shape—to remain stable while scanning signals from Earth. While it's unclear how long the satellite remained functional, it continued to orbit the Earth until 2021, long after its original mission was likely complete. There is no confirmation whether it was properly passivated—meaning residual fuel was removed to prevent an explosion—before it was retired. This incident brings attention to the increasing issue of space debris in low Earth orbit, an area already crowded with active satellites. Current guidelines require satellites to be deorbited or moved to a higher, less populated orbit at the end of their missions to reduce risks. The breakup of USA 32 has led astronomers to track the resulting debris to determine its size and potential threat to other spacecraft. The event highlights the challenges of managing the growing number of objects in space and the risks posed by uncontrolled debris from older satellites. The disintegration of USA 32 also serves as a reminder of the long-term consequences of space missions that were launched decades ago. As more satellites are launched, the importance of responsible space practices—such as proper deorbiting and passivation—becomes increasingly critical to ensure the safety of future space operations and reduce the risks to both human and robotic missions in orbit.