It's sort of one of those chicken or the egg discussions. For those of you unfamiliar with a "chicken or the egg" situation, I will briefly explain. It's a rhetorical question where you ask someone which came first; basically did the existence of the egg lead to the existence of the chicken or did the existence of the chicken lead to the existence of the egg? And by rhetorical I mean that it is not meant to be answered. However, logically (since a chicken exists and we have an understanding of evolution) the only way a chicken could have come to walk the Earth is if it was born, and chickens are hatched from eggs,,, so ultimately the egg had to exist first. But honestly this doesn't really help the point of my Blog, I just wanted to explain the "chicken or the egg" situation.
What came first, the sub-atomic size or the speed faster than c? I'll admit, I'm getting pretty out there with this one. In fact I'm mildly sure that none of what I'm discussing here exists in any text books or on any other web-pages,,, so it might as well be considered fiction. However, I don't think this is fiction and I truly do hold these thoughts as completely possible so humor me on this one. The stuff you will find in text books and on other web pages is: when an object nears the speed c, it nears a mass equal to zero. For example if a 12 inch ruler is traveling at 9/10 the speed of c, it would appear to be only 6 inches,,, and after the ruler was traveling 10/10 the speed of c (or c), it would appear to be 0 inches long. So if I combine this with my previous investigation of photons, a photon fits this expectation of being something that has zero mass and travels faster than c. My "chicken or the egg" question is, what came first, "the photon's speed which would have a result of making the photon have a mass of zero?,,, OR the photon's mass of zero allows it to travel at a speed faster than c?" This is completely rhetorical since we can't tangibly examine a photon. Perhaps if we could stop a photon and see what it was like at a velocity equal to zero, we could measure its mass and formulate an answer. Unfortunately we are not quite there yet, and we can't fully define what a photon is. How does this result in another Universe different from our own? Part II.