As far as I know, distance $s$ multiplied by time $t$ or (as the differential analogue) the integral $$^{(*)}: \int_{t_0}^{t}s(\tilde{t})\text{d}\tilde{t}\ $$ are not used in the context of physics. Nonetheless, this does not mean that it cannot interpreted physically. If an object travels uniformly along a straight line, $^{(*)}$ will obviously be larger compared to an object accelerated uniformly along the same distance and within the same period of time. In general, $^{(*)}$ increases if an object is displaced farther away from its initial position for longer periods of time.
In a way, $^{(*)}$ measures for how long an object is displaced at which distance from its inital position. I can think only of a few "usecases" for $^{(*)}$. For example, if you were to stretch an elastic band and keep it stretched, you (at least ideally) do not do any work after you have reached the maximal displacement, but after some time you will obviously get tired and will have to relax the band.
In this context, $^{(*)}$ might be used to measure ones physical ability to do such things.
However, I have never heard of anybody actually using $^{(*)}$ as a benchmark.