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become more elegant, but also simple and logical! A galaxy is a quasi- homogeneous fractal whole, in which the time flow is relatively stable. However, taking into account the gradual recession of stars compared to the center, these stars are forced to cover a greater distance in the same fractal time. As a consequence, they travel much faster than our toad ata We can also interpret this outcome somewhat differently by argu- ing that the peripheral bodies engage in a much more significant macroscopic temporal pumping (taking in extra chronons), which increases as they move further away from the center. This temporal pumping is an effect of absolute relativity, causing every rotating body to absorb a much larger amount of temporal quanta (chronons) than an isolated body in rectilinear motion, shielded from all systems. In fact, this can be compared with the relativistic effects of special relativity. Since the stars in a galaxy are connected to each other by a gravita- tional center, they constitute a single whole. However, this whole is suf- ficiently elastic to allow for different relative velocities. In fact, a galaxy is homogeneous on the structural plane, but inhomogeneous on the kinematical plane. The temporal pumping consists in taking in more chronons in front of the star. As the rotation takes place on a certain plane, the available “stock” of chronons is larger on a rotation plane (two dimensions) than on the rectilinear path (one dimension) of an iso- lated body. As a body absorbs more chronons, its velocity increases (due to the correlative distance) and eventually reaches a state of equilib- rium, that of the spatial fractal this time. Let me end this part by saying that the solution to the mysterious flatness (and rotation) of (most) galaxies can also be found in absolute relativity. Most astronomers think the answer lies outside the stellar wholes due to the effect of so-called primordial fluctuations; some kind of particle plasma. According to the standard model, these huge mat- ter fluctuations formed after the Big Bang due to the gravitational pull. Needless to say the explanations for this flatness are abstruse and flimsy at best. Why did we not simply find spheres of matter in an ini- tial homogeneous whole, instead of our beautiful galaxies that twirl like ballerinas? An embarrassing question. One of the fundamental principles of absolute relativity is that while moving from one spatio- temporal fractal to another on the microscopic scale, space expands and unfolds in three dimensions, whereas it only had two before. Remember that particle spin is based on the rotation of that same par- ticle around itself. This rotation means that only two dimensions are The soft sciences: weightier than billions of suns 295 terrestrial laws dictate.