Olaus Rømer explained the apparent incorrect timing of the eclipses of the Jovian satellites by the speed of light.
Olaus Rømer, by observing the movement of Jupiter's moons.
The particle that is light is called the Photon. The photon is massless and can travel faster than any other particle because it has no mass. Any particle that has mass will require infinite energy to reach the velocity of light, which is impossible because the particle will have infinite mass in the process (Remember E=mc^2).
Yes, it is theorized that there are higher dimensions then the four we are familiar with. No, you cannot travel at the speed of light, no physical object that has mass can. However, that being said, you can, theoretically travel infinitely close to the speed of light which would, in turn, require an infinite amount of energy.
There's definitely a noun missing at the end of the sentence.Here are the responses to a few possibilities:-- Sunlight travels in infinite silence.-- Sunlight travels in infinite distance unless it hits something that absorbs it.-- Sunlight travels at speed of 299,792,458 meters per second.
It is not possible for any object with any mass to travel at the speed of light. It is possible to travel at 99.9999999999999999999999999999999999999% the speed of light, you could even travel at "99.9 followed by a trillion trillion 9s"% of the speed of light but never quite 100%.According to our current mathematical theories, for an object with any mass to travel at the speed of light it would take infinite energy to attain that speed.
Olaus Rømer, by observing the movement of Jupiter's moons.
A ray of light can travel in any direction, so an infinite number.
Because at infinite speed, it's mass will become zero, which is not possible as it consists of photons which are not massless particles.
Theoretically, an infinite distance. No one has found a limit so far.
Leptons have mass.According to special relativity, no particle with mass can travel at or faster than the speed of light. It would take infinite energy to do so.
Okay....well that's why light does not have mass, or rather if it did, then it could not travel at the fundamental speed limit "c". This is a key to understanding the universe.
The particle that is light is called the Photon. The photon is massless and can travel faster than any other particle because it has no mass. Any particle that has mass will require infinite energy to reach the velocity of light, which is impossible because the particle will have infinite mass in the process (Remember E=mc^2).
Yes, it is theorized that there are higher dimensions then the four we are familiar with. No, you cannot travel at the speed of light, no physical object that has mass can. However, that being said, you can, theoretically travel infinitely close to the speed of light which would, in turn, require an infinite amount of energy.
No, it does not. Nothing could be accelerated past the speed of light. As it approached the speed of light its mass would become infinite thereby requiring infinite energy. There were some results with neutrinos suggesting travel at faster than light speed, but it turned out to be due to experimental error.
because ,light travel in stright lines.
Actually Einstein postulated that nothing can travel at the speed of light. He theorized that as something approaches the speed of light its mass increases. This means that for something to travel at the speed of light it needs to have an infinite source of energy. The only things that can travel at the speed of light are particles that have no mass, otherwise known as photons.
Nothing with a rest mass can travel at exactly the speed of light, it would take an infinite amount of energy. Light can travel at that speed because it has zero rest mass. Earlier Answer below So far, we don't know if a human can travel at lightspeed. However, it's easier to travel at the speed of light than to travel through time. New Answer: The problem I always had with the term light speed is that speed is relative. We may be traveling close to the speed of light right now in relation to some other object in the universe.