If I throw a ball to you when I was 100 feet away from you, does that mean that I must be 100 feet away from you when you catch the ball? No, of course not. I can move while the ball is in the air. Heck, so can you.
If we see light that has travelled 13.7 million light years, then it came from an object that was 13.7 million light years away from our current location when the light was emitted. That doesn't mean that the object is still in that same exact place now.
Dullard, I very much appreciate your attempt to contribute to this important subject. However, I think you've just help demonstrate my point. Scientists routinely say that light from xxx light years away took those same number of calendar years to arrive. However, that make NO SENSE given what you just stated, given current assumptions. The universe (supposedly) is expanding. So light, let's say, that was emitted 13 billion years ago would have to not only travel the 13 billion light years, BUT COVER THE EXPANSION FROM BOTH THE LIGHT EMITTING OBJECT AND THE RECIPIENT (us). Therefore, any light we see would have to be from a location much closer.
Let's take it a step further. Let's just take the assumption that light from 13 billion light years was sent to us 13 billion calendar years ago. We'll go with that.
What that would mean is that the universe ALMOST INSTANTLY inflated to its current size. It inflated almost instantly (within a few hundred thousand years), and we are just now getting the light sent after it inflated. But that is NOT what the inflationary principle holds. It holds that the universe inflated from something the size of an atom (rough guess) to the size of a marble (again, rough guess on the part of the theory) in some minuscule part of a second. What's more, keep in mind, the universe is supposed to be expanding at an ACCELERATING RATE since then. I think (hope) you can see the point. Its all a lot of BS.
I appreciate your contribution Dullard!