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Researchers in Albuquerque, New Mexico, propose a groundbreaking approach to planetary defense that could redirect potentially dangerous asteroids. By detonating a nuclear warhead at a safe distance—over a mile above the asteroid’s surface—scientists suggest that the resultant X-rays may be used to alter the object’s trajectory.
While popular films like “Armageddon” and “Deep Impact” popularized the concept of destroying an asteroid with a nuclear explosion, experts now caution against such methods. Traditional strategies risk converting a solid asteroid into numerous hazardous fragments, which could cause broader devastation as these pieces scatter across Earth’s path.
The National Academy of Sciences emphasized the urgency of addressing these threats in a report released last year, designating planetary defense as a pressing national priority. Recent data from NASA’s comprehensive sky survey reinforces this notion, identifying a credible risk posed by large celestial objects.
According to information from the Sandia National Laboratories, around 25,000 objects in space are capable of inflicting significant damage upon Earth. Alarmingly, only approximately one-third of these asteroids have been detected thus far. Many remain hidden in the sun’s glare, demonstrating the importance of advancing detection technologies.
Notably, past incidents highlight the genuine danger that asteroids pose to our planet. A relatively small asteroid exploded over Russia in 2013, causing extensive damage, while a much larger asteroid is believed to have ended the reign of the dinosaurs.
Nathan Moore, a physicist at Sandia National Laboratories, spearheaded experiments utilizing the lab’s Z machine, the most powerful pulsed-power device globally, to study how simulated asteroids respond to sudden shocks. This experimentation aims to closely mimic conditions in space, despite the gravitational challenges presented within Earth’s environment.
The team explored a technique they coined X-ray scissors, which temporarily nullified the effects of gravity and friction. By using this innovative method, Moore’s experiments successfully aimed to redirect a mock asteroid using controlled bursts resembling nuclear explosions.
The experimental setup involved releasing a mock asteroid, weighing only a tenth of a gram and composed of silica, into a vacuum. The material was held in place by an ultra-thin foil, which vaporized upon activation of the Z machine. As a result, the silica could float freely in space, simulating conditions far removed from Earth’s gravitational influence.
This technique provided a glimpse into how X-ray bursts could redirect real asteroids without disintegrating them into lethal fragments. Moore explained that applying the right amount of force is crucial to achieving effective and safe deflection.
Just recently, NASA reported tracking a “potentially hazardous” asteroid, dubbed 2024 ON, which passed close to Earth. With dimensions exceeding 1,150 feet long, this object poses no immediate threat, as NASA has confirmed its trajectory will not intersect with our planet. However, the asteroid’s proximity serves as a reminder of the importance of ongoing surveillance and innovative defense strategies.
The asteroid’s recent close approach is a stark illustration that larger asteroids come within a few hundred thousand miles of Earth about every five to ten years. Though no danger currently exists, researchers urge that preemptive measures become a top national priority.
The research conducted at Sandia highlights a promising avenue for planetary defense enthusiasts. The insights gained through these experiments will enhance our capabilities to respond to potential threats in the future. As Moore aptly stated, “We don’t want to wait for a large asteroid to show up and then scramble for the right method to deflect it.” Investing in this research could very well save lives.
Fox News Digital’s Andrea Vacchiano contributed to this report.