Imagine a machine snatching the device you’re using to read this story and sending it back 50,000 years into the hands of a Neanderthal. The glowing box, a complex mix of silicon, plastic, and glass, would be incomprehensible to him. He’d likely toss it aside, unable to grasp its purpose or the “magic” behind it.

Fast forward to 2025, and rumors suggest the U.S. military might possess its own version of such “magic”: recovered alien artifacts from crashed UFOs, laden with technology beyond human understanding, writes popularmechanics.com.

Reports of unidentified anomalous phenomena (UAPs) have emerged from high-ranking officials. In a 2023 Congressional hearing, David Grusch, a former Pentagon UAP Task Force member, claimed the U.S. has run a “multi-decade UAP crash retrieval and reverse engineering program.”

While unproven, the idea of reverse engineering advanced technology—whether terrestrial or extraterrestrial—is not new. In defense, it’s used to replicate stealth jets or missile systems; in the private sector, it’s applied to software and machinery.

Reverse engineering involves decoding an object’s purpose and structure without destroying it, then reproducing it. Philip Voglewede, a mechanical engineering professor at Marquette University, explains it as working backward to understand an object’s design.

“You’d assemble a team of engineers and scientists,” he says. “A manufacturing engineer might determine how it was made, an electrical engineer would analyze power systems, and a mechanical engineer would study its structure.”

However, applying this to advanced alien technology would be incredibly challenging, akin to deciphering complex software without access to its code.

Voglewede compares the process to encountering an unfamiliar part: “You’d ask what it’s supposed to do and analyze the physics behind it.”

Yet, even with understanding, replication isn’t guaranteed. Defense reverse engineering programs are highly secretive, and Voglewede notes that electrical power distribution, like fusion reactors, presents particularly daunting challenges due to the extreme physics involved.

Private sector reverse engineering, as described by Jasen Sappenfield of Finite Engineering, begins with assessing design intent.

“We look for physical parts to scan, measure, or model,” says Bill Baker, a fellow engineer. Nate Heim adds that some projects start with basic tools like rulers when little is known.

Sappenfield recalls projects with damaged parts, where engineers had to infer design intent and usage within a larger system. Without clear intent, as with alien tech, the process becomes far more speculative and labor-intensive.

Robert Stango, a veteran engineer, emphasizes the importance of physics in reverse engineering.

“No matter how advanced, physics regulates everything,” he says. The process involves dismantling an object piece by piece, sometimes down to molecular levels. However, advanced or secretive technologies, like fusion, pose significant hurdles due to trade secrets and government protections.

In summary, reverse engineering alien technology would require a multidisciplinary approach, starting with fundamental physics and design intent. Yet, the secrecy surrounding advanced technologies and the potential for entirely unfamiliar physics make it a monumental challenge.

As Voglewede puts it, “You’re dealing with a very strange realm on the fringes of engineering.”

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