First and foremost, the idea that light can instantly go the maximum speed possible by anything is because it has no mass. If light has no mass, it has no resistance to acceleration, meaning it will instantly go the maximum speed possible. If this is true, that means that the less mass you have, the easier it is to go the speed of light.
It also means that nothing can go past the speed of light, because if light has no mass, then light has no resistance to acceleration, and thus goes as fast as physically possible. Meaning an object that has mass cannot go past the speed of light either, because it is physically impossible to go past it, if it were possible, than light would have to have some sort of mass.
This also means that in order to go the speed of light, you need to give a proportional amount of acceleration to the amount of mass you have. This is, of course, assuming there are no other forces involved. Which then means that you need a proportional amount of energy to 'induce' that velocity.
But wait, stop for a moment... How can light not have mass? Mass is a property of matter. As Einstein's theory of relativity states, mass is energy, so then conversely, energy must be mass. And if mass is a property of matter, that means that energy is also a property of matter.
Light can transfer energy, which means it must also transfer mass, which means it must also have mass because you can only transfer energy by using something with mass. Light has energy, if light did not have energy then anything propagating light would not also propagate heat in that direction and at the same speed. Light must also have mass because energy IS mass, and if light can be effected by gravitational forces than it has to have mass, if not, than the science contradicts itself.
Light itself transfers heat, otherwise the Earth would be frozen, and heat is a form of energy, if heat is a form of energy which can be transferred by light, then light must have some sort of energy or the law of conservation of energy would be violated. Furthermore, If E.M radiation is light, and if we use E.M radiation to transfer energy it must, therefor, transfer energy, have energy, and emit energy.
The most important point, I think, is that if light had no mass then it would not be effected by gravity. Since light IS effected by gravity then it must have mass.
It also means that nothing can go past the speed of light, because if light has no mass, then light has no resistance to acceleration, and thus goes as fast as physically possible. Meaning an object that has mass cannot go past the speed of light either, because it is physically impossible to go past it, if it were possible, than light would have to have some sort of mass.
This also means that in order to go the speed of light, you need to give a proportional amount of acceleration to the amount of mass you have. This is, of course, assuming there are no other forces involved. Which then means that you need a proportional amount of energy to 'induce' that velocity.
But wait, stop for a moment... How can light not have mass? Mass is a property of matter. As Einstein's theory of relativity states, mass is energy, so then conversely, energy must be mass. And if mass is a property of matter, that means that energy is also a property of matter.
Light can transfer energy, which means it must also transfer mass, which means it must also have mass because you can only transfer energy by using something with mass. Light has energy, if light did not have energy then anything propagating light would not also propagate heat in that direction and at the same speed. Light must also have mass because energy IS mass, and if light can be effected by gravitational forces than it has to have mass, if not, than the science contradicts itself.
Light itself transfers heat, otherwise the Earth would be frozen, and heat is a form of energy, if heat is a form of energy which can be transferred by light, then light must have some sort of energy or the law of conservation of energy would be violated. Furthermore, If E.M radiation is light, and if we use E.M radiation to transfer energy it must, therefor, transfer energy, have energy, and emit energy.
The most important point, I think, is that if light had no mass then it would not be effected by gravity. Since light IS effected by gravity then it must have mass.
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