It all started when I stumbled upon a tweet from Michael Ian Black, casually mentioning a book called Imminent by Luis Elizondo. That mention led me down an unexpected rabbit hole, right into the UFO Rabbit Hole Podcast, where I began to unravel the layers of what’s now one of the most intriguing revelations I’ve encountered.
In Imminent, Elizondo, the former director of the Pentagon’s Advanced Aerospace Threat Identification Program (AATIP), doesn’t just reveal secrets; he digs into five specific characteristics—“observables”—that set UAPs apart from anything we know in the world of aviation. These observables bring UAPs out of the realm of science fiction and into scientific inquiry.
Let’s break these down and explore what they mean, both scientifically and practically.
1. Anti-Gravity: Defying Earth’s Rules
Most aircraft rely on engines, wings, and other forms of propulsion to stay airborne. UAPs, however, appear to defy gravity altogether. These objects float, hover, or dart through the sky without visible signs of propulsion—no wings, no rotors, no exhaust. It’s as if they’ve unlocked a cheat code in physics, bypassing the fundamental forces that keep us grounded. Imagine trying to fly a kite, but it stays airborne without wind or strings.
For example, think of the "Tic-Tac" UAP sighting by U.S. Navy pilots in 2004. The object hovered effortlessly at high altitudes, something that current human aircraft simply cannot do without propulsion systems.
Here’s what to do next: if you're investigating UAPs, consider the implications of propulsion-free flight. What new materials or technologies could make this possible? We’re talking about advancements that could revolutionize energy, transportation, and even space travel.
2. Instantaneous Acceleration: Blowing Past Our Limits
Let’s get one thing straight: there’s no machine in existence today that can accelerate from zero to thousands of miles per hour in the blink of an eye. And yet, that’s exactly what UAPs do. They go from a standstill to mind-boggling speeds instantly, leaving even the most advanced fighter jets eating dust.
For instance, in the famous Nimitz encounter, the UAP rapidly moved from rest to extreme velocity in a matter of seconds. The pilots were left speechless, unable to match its movement.
To get started, think of this: imagine applying this kind of acceleration in everyday technology. From transportation to industrial machines, this could be a game changer. But first, consider the massive breakthroughs needed in energy production and material sciences. What kind of force—unknown to modern physics—could propel an object at that speed without tearing it apart?
3. Hypersonic Velocities Without Signatures: Breaking the Speed Rules
When planes exceed the speed of sound, they produce sonic booms—a loud, unmistakable explosion caused by breaking the sound barrier. UAPs, however, move at hypersonic speeds (over Mach 5) without leaving any of these signatures. No boom, no roar—just smooth, impossible motion.
Here’s where this gets even crazier: these objects don’t just avoid the sound barrier, they zip around radar detection and other tracking systems, despite flying faster than the most advanced jets. For example, UAPs in the "Go Fast" video captured by Navy pilots in 2015 moved faster than Mach 5, without triggering any sonic boom.
If you’re tracking UAPs, the key takeaway is this: they operate in a manner that challenges both our understanding of physics and our sensor technology. Think about what it would take to develop craft with this ability—no sonic boom, no detectable signatures. Is it stealth technology, or is it something even more advanced?
4. Low Observability: Ghosts in the Sky
You can see UAPs, but not very well. That’s one of the most baffling aspects. Despite multiple eyewitnesses, radar systems, and infrared sensors, getting a clear, detailed image of these objects is tough. They appear on radar only fleetingly or at odd angles, evading consistent detection.
For example, in the "Gimbal" video, pilots witnessed a rotating object in the sky, but its detailed appearance remained elusive, even with some of the most advanced tracking systems available. Low observability means it’s nearly impossible to gather reliable, high-definition data on these craft.
Here’s what to do next: If you’re hoping to observe or study UAPs, you’ll need to improve your tracking methods. Traditional radar might not cut it. You’ll need multi-sensor systems—radar, infrared, visual, and more. Think layered observation techniques, combining human sighting with machine tracking to triangulate better data.
5. Transmedium Travel: Breaking Barriers, Literally
This is perhaps the most mind-bending observable. UAPs don’t just fly—they move through air, water, and even space without slowing down. They don’t change shape, lose velocity, or exhibit any signs of struggle when transitioning between environments. Picture an object zooming from the sky into the ocean without making a splash or a sound.
In one notable instance, sensors aboard the USS Princeton tracked a UAP as it dropped from 80,000 feet in the air to just above the ocean in under a second, without any impact on the water surface.
To put this into perspective, here’s what to consider: if a UAP can seamlessly move from air to water to space, what materials or propulsion systems could enable such travel? We’d be looking at breakthroughs in engineering and physics that redefine how we approach aerospace and naval technology. For now, we’re lightyears away from replicating this behavior, but it opens up a wealth of possibilities for future tech exploration.
Bringing it All Together
The 5 observables of UAPs aren't just intriguing—they force us to confront the limits of our current knowledge and technology. Anti-gravity, instantaneous acceleration, hypersonic velocities without sonic booms, low observability, and transmedium travel are not science fiction; they're science fact as observed by military professionals. These craft demonstrate capabilities that challenge the fundamental laws of physics as we know them.
So, what should you do with all this information? Here’s the blunt truth: these observables demand that we rethink everything we know about propulsion, energy, and material science (as well as consciousness and reality!). Whether you’re a scientist, an engineer, or just curious, there’s plenty of work to be done.
First, start by broadening your perspective. If you're an engineer or technologist, study the latest research on these fields. Explore how we might develop propulsion systems that mimic anti-gravity or instantaneous acceleration. Think about what kinds of materials could withstand the forces needed to perform these feats. Then, collaborate across fields—physics, engineering, aerospace—to push the boundaries of what’s possible.
In the meantime, keep your eyes on the sky. The answers to these technological mysteries may be out there, waiting for us to catch up.
