It's almost as if someone came back from the future to change that exact moment.
At that exact moment before impact, this man taps his shoulder.
He turns, and the object misses him by centimeters.
Some people say it's strange he was tapped on the left, but turned to the right.
I don't think it's strange.
When someone touches your shoulder, you can turn in either direction.
The movement depends on sound, instinct, and peripheral vision reacting before conscious thought.
He may have heard the metal barrier approaching.
Who knows?
And this isn't the only example people point to as evidence of time travel.
There are many others.
Take the example of mike tyson's fight in 1995.
In the footage, a spectator appears to be holding what looks like a modern smartphone, years before smartphones existed.
That led many to claim he was a time traveler.
Some say it was simply a mid-1990s handheld digital camera, possibly a casio qv10a or qv100.
It could have been a casio qv100, but the device in the video seems to have the flash on the right side, which doesn't clearly match the model's layout.
If time travel is real, there are physical processes which would allow the tearing of the fabric of space-time.
In such a way, there would be a pathway into the past.
Then we also have to think about parallel universes.
There must be at least thousands of parallel universes.
In fact, the theory tells us there are a lot more than that.
Well, scientists found something in space.
Some believe it's proof that parallel universes exist.
Before going deeper into that, take a look at these images.
Well, the clips we examined earlier were captured years ago.
They're real, but these photos?
They were generated by AI and that is exactly the point.
This is the world we live in now.
A few clicks and these images were created in seconds.
I know some of you feel skeptical about AI.
I was skeptical too.
Then I realized this is the direction the world is moving.
Some jobs are disappearing.
New skills are becoming essential.
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Now let's go back to what scientists actually found in space.
In 2004, researchers studying data from NASA's WMAP satellite noticed something unusual in the cosmic microwave background.
This is the faint radiation left over from the early universe formed shortly after the big bang.
Scientists study this radiation because it works like a map of the universe when it was still very young.
Inside that map, one region appeared noticeably colder than the rest.
Scientists call it the cold spot.
The strange part is its size.
The region stretches almost 2 billion light years, which makes it one of the largest anomalies ever seen in the background radiation of the universe.
Later, another mission called the Planck satellite measured the same region with higher precision.
The cold spot appeared again in the exact same place, which confirmed that the anomaly is real.
Researchers then tried to understand what could cause something like this.
One explanation involves a massive cosmic void. a region of space that contains very few galaxies.
Light travelling through such an empty area can lose a small amount of energy, which could make the radiation appear colder when it reaches us.
Astronomers did find a large void in that direction.
However, many scientists say it may not be large enough to fully explain the cold spot.
Because of that, another idea appeared in cosmology.
Some models suggest that our universe may exist inside a much larger structure called a multiverse, where many universes exist next to each other.
In those models, universes can expand like bubbles.
If two of those bubbles interact, the collision could leave a visible mark in the cosmic background radiation.
Some physicists believe the cold spot could be a trace of such an event.
The idea is still debated, yet the discovery itself is real.
The cold spot remains one of the strangest features scientists have ever observed in the large-scale structure of the universe.
It's hard to grasp this idea, right?
This video may shake you a little.
I'll show you data, theories, and experiments that no one can fully explain.
Now, if the universe may be larger than we think, there's another experiment that raises even deeper questions about reality.
Scientists fire particles in a straight line toward a screen.
Before reaching the screen, the particles pass through a small opening called a slit.
When particles pass through a single slit, the result is predictable.
They hit the screen and create a small cluster of impacts directly behind the opening.
Now imagine adding a second slit.
If particles behave like tiny pieces of matter, you'd expect two clusters on the screen, one behind each slit.
But something strange happens.
Instead of two clusters, the screen shows a pattern of bright and dark bands, called an interference pattern.
This pattern usually appears when waves overlap and interact with each other.
In other words, the particles behave as if they're waves moving through both slits at the same time.
Scientists first thought the particles might be interacting with each other, so they modified the experiment.
They began sending only one electron at a time.
Even then, the same interference pattern slowly appeared on screen.
Each electron seemed to behave as if it passed through both slits simultaneously.
Naturally, researchers wanted to understand what was happening.
So they placed detectors near the slits to observe which path the electron actually took.
And something even stranger happened.
The interference pattern disappeared.
Instead of a wave pattern, the screen showed two simple clusters, exactly what you would expect if electrons behaved like particles.
Remove the detectors, and the wave pattern returns.
Leave the detectors in place, and the particle pattern appears again.
The only thing that changed was whether the path of the electron was being observed.
This raises a difficult question.
How can the act of observation change the behavior of a particle.
Physicists later explored an even more unusual version of the experiment called the delayed choice experiment, proposed by John Wheeler.
In this version, the decision to observe the particle is made after the particle has already passed through the slits, and yet the final result still changes depending on whether the observation occurs.
Some interpretations of quantum mechanics suggest that particles exist as multiple possibilities until an observation occurs.
And this idea leads directly to one of the most fascinating theories in modern physics.
The possibility that many versions of reality may exist at the same time.
Experiments like the double slit suggest that at the smallest level, reality behaves as a range of possibilities rather than a single fixed outcome.
For many years, physicists tried to understand what this really implies.
One explanation became especially famous.
It's called the many worlds interpretation.
The idea was proposed in 1957 by physicist Hugh Everett.
According to this interpretation, the wave of possibilities described by quantum mechanics never truly disappears.
Instead, every possible outcome continues to exist.
When a quantum event happens, reality doesn't collapse into a single result.
The universe simply follows one path, while other outcomes continue in separate branches.
You already exist in multiple copies.
Initially they are all identical.
And then, when a moment of choice happens, both a microscopic one and one made by you consciously, these identical copies become different from one another.
So suppose you're walking in Oxford and you have to choose to go left or right.
In that case, in half the universes I go left, and in half I go right.
In simple terms, the universe may constantly divide into multiple versions of reality.
In one version, a particle passes through the left slit.
In another version, it passes through the right slit.
Both outcomes exist, but in different branches of the universe.
Over time, these branches could grow more and more different from each other.
Some physicists believe that what we call reality may only be one path among many possible ones.
This idea is taken very seriously by several researchers working in quantum theory and, if this interpretation is correct, it leads to a strange possibility.
There could be countless versions of reality existing at the same time, each following a slightly different history.
These ideas about multiple realities didn't appear only in physics.
Decades ago, the well-known science fiction author, Philip K Dick, spoke publicly about a similar concept.
We were reliving the present.
Deja vu.
Perhaps in precisely the same way, hearing the same words, saying the same words.
I submit that these impressions are valid and significant.
And I will even say this such an impression is a clue that at some past time point a variable was changed reprogrammed, as it were, and that because of this, an alternative world branched off.
If different versions of reality exist at the same time, small differences between them could produce unusual situations that feel difficult to explain.
This idea often comes up when people talk about strange differences in shared memories.
Pikachu with a black tip on the tail, even though the tail is completely yellow.
The Monopoly man with a monocle, even though he never had one.
Mirror Mirror on the Wall, while the movie actually says Magic Mirror on the Wall.
The Fruit of the Loom logo with the cornucopia, even though the logo only shows fruit.
C-3PO remembered as all gold even though one leg is silver.
The books called Berenstain Bears, even though they're spelled Berenstain Bears.
Kit Kat with a hyphen, even though the name is Kit Kat.
Febreze with two E's, even though it's spelt Febreze.
Looney Tunes, even though the cartoons are called Looney Tunes.
The Volkswagen logo without the line between the letters, even though the real logo has that gap.
Skechers with a T, even though the brand is Skechers.
Oscar Mayer, even though the name is Oscar Mayer.
The Flintstones, even though the cartoon is The Flintstones.
Jiffy Peanut Butter, even though the brand is Jiff.
Cheez-Its, even though the snack is Cheez-It.
Fruit Loops.
Even though the cereal box says, Fruit Loops.
Luke, I am your father.
Even though the line is, No, I am your father.
I know some of these examples can really make you stop and think.
Honestly, a few of them still stay in my mind.
Maybe human memory is more complicated than we realize.
Or maybe reality is stranger than we currently understand.
And as you probably already know, I'm not here to tell you what to believe.
I simply wanted to show you the data. the theories, and the questions people keep asking.
If you're curious, take some time and look into these things yourself.
Read about them, watch the experiments, decide what makes sense to you, because the truth is, some of these things are still difficult to explain.
That's where we'll end today's video.
If you enjoyed it, make sure to subscribe and turn on notifications.
And let me know in the comments what you think.
Are these just memory errors, or could something deeper be happening?
I'm curious to hear your thoughts.
