This isn't necessarily the answer to the question but possibly a Verification/Clarification of it.
A)
.....................(<)(<)....................
A) .......................(<).......................
.
B) (<).........................................(<)
B) .......................(<).......................
.
C) .....................(<)(<)....................
C) .......................(<).......................
In the above example in section A, I have three clocks positioned in roughly the same area, and they are all synchronized. In section B you see that two of the clocks have moved off to the sides. In section C, you can see that the two clocks have moved back to the middle position.
So let's imagine that this continues and thus the two clocks keep moving off to the edge, then back to the middle, then off to the edge, and then back to the middle, and so forth. Now due to this ongoing back and forth motion, these two clocks shall be ticking slower than the one lower clock that remained still.
And so we could watch this phenomenon going on and on and on, but over time we would begin to see that the two upper clocks are ticking at a slower speed, and thus do not indicate that the same amount of time has passed as does the lower clock which remained stationary in our observers frame of reference.
So the point here is that despite the fact that these two clocks, which are going off and then coming back, each of them being somewhat like a twin moving off to a star and then coming back, as we watch them these clocks still remain here with us in the present time from our point of view. Meaning there's no separation in time from our point of view.
All three clocks always remain with us in the present time, or the "NOW" time.
And so the question arises, how is it that all 3 clocks managed remain constantly within the "NOW" time, even though 2 of them are moving through time at a different rate than is the remaining clock.
Is this what you are asking about ?