1. We all know that objects appear smaller, the further back in the past that the line of sight recedes.
2. This is the same as saying that the space-dimensional context of the universe is smaller at more distant points along the line of sight.
3. And since (following Minkowski/Einstein) space and time are simply different ways of referring to spacetime, we can just as easily say that the time-dimensional context of the universe is smaller at more distant points. (It is larger at points closer to the observer.)
4. At their source, therefore, electromagnetic waves will appear to exist within a more compressed time-dimensional context than when they have arrived at the observer.
5. The observer will witness this as an expanded frequency (i.e. redshifted).
6. The redshift phenomenon has been satisfactorily explained (the "Big Bang" is hooey).
Q.E.D.
2. This is the same as saying that the space-dimensional context of the universe is smaller at more distant points along the line of sight.
3. And since (following Minkowski/Einstein) space and time are simply different ways of referring to spacetime, we can just as easily say that the time-dimensional context of the universe is smaller at more distant points. (It is larger at points closer to the observer.)
4. At their source, therefore, electromagnetic waves will appear to exist within a more compressed time-dimensional context than when they have arrived at the observer.
5. The observer will witness this as an expanded frequency (i.e. redshifted).
6. The redshift phenomenon has been satisfactorily explained (the "Big Bang" is hooey).
Q.E.D.
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