Light has real-time energy transfer; let's explore whether this is true.
According to light—what does this mean?
It means everything we see is happening right now, no matter how far away it is.
According to current theory:
If the Sun appears suddenly (as we see it from Earth), it takes eight minutes for us to see it. Likewise, if the Sun suddenly disappears, it takes eight minutes for us to notice.
According to my theory:
If the Sun appears suddenly, it takes eight minutes for us to feel it.
But if the Sun suddenly disappears, we will feel it immediately.
Evidence:
In my theory, everything we see is real-time action, no matter how far away it is. (This means light takes time to reach the observer, but once it arrives, the observation is real-time.)
I decided to conduct experiments to prove this. Someone else had already researched this—Ole Rømer (1644–1710), who measured the speed of light.
He recorded the times when Jupiter’s moon (Io) became visible but did not note the observation locations because he didn’t need to. Let’s imagine this scenario: Look at this picture. https://shorturl.at/oqKNP
If we were closer to Jupiter, we would see the moon before it reaches position 1.
If light traveled with the event (carrying its history), we would observe the same delay from Earth. Ole Rømer would have seen no difference.
But he did observe differences:
When Earth was near Jupiter, the moon appeared at position 8.
When Earth was farthest from Jupiter, the moon appeared at position 9.
He used this discrepancy to calculate the speed of light.
Key Insight:
We only see Jupiter’s moon after its light reaches us—not its position when the light was emitted. For example:
We cannot see the moon moving from positions 0 to 7 because that light hasn’t reached us yet.
When the light arrives, we see the moon’s current position, not where it was when the light began its journey. click here
Full research paper - https://go.nature.com/4ev9sX6
According to light—what does this mean?
It means everything we see is happening right now, no matter how far away it is.
According to current theory:
If the Sun appears suddenly (as we see it from Earth), it takes eight minutes for us to see it. Likewise, if the Sun suddenly disappears, it takes eight minutes for us to notice.
According to my theory:
If the Sun appears suddenly, it takes eight minutes for us to feel it.
But if the Sun suddenly disappears, we will feel it immediately.
Evidence:
In my theory, everything we see is real-time action, no matter how far away it is. (This means light takes time to reach the observer, but once it arrives, the observation is real-time.)
I decided to conduct experiments to prove this. Someone else had already researched this—Ole Rømer (1644–1710), who measured the speed of light.
He recorded the times when Jupiter’s moon (Io) became visible but did not note the observation locations because he didn’t need to. Let’s imagine this scenario: Look at this picture. https://shorturl.at/oqKNP
If we were closer to Jupiter, we would see the moon before it reaches position 1.
If light traveled with the event (carrying its history), we would observe the same delay from Earth. Ole Rømer would have seen no difference.
But he did observe differences:
When Earth was near Jupiter, the moon appeared at position 8.
When Earth was farthest from Jupiter, the moon appeared at position 9.
He used this discrepancy to calculate the speed of light.
Key Insight:
We only see Jupiter’s moon after its light reaches us—not its position when the light was emitted. For example:
We cannot see the moon moving from positions 0 to 7 because that light hasn’t reached us yet.
When the light arrives, we see the moon’s current position, not where it was when the light began its journey. click here
Full research paper - https://go.nature.com/4ev9sX6
