If H signifies the n-dimensional volume of a local infinitesimal quantized curvature of spacetime events and if C is a linear contact transformation matrix then the ratio of the transformed volume over the original volume is equal to the Jacobian of the transformation.
[math]J=det C=\frac{C(H)}{H}[/math]
Consequently, if the Jacobian is unity then the volume is an invariance of the transformation. Topologically equivalent volumes do not necessarily indicate length and angle invariance. However, geometrical similarity of volumes (e.g., spheres into spheres) implies length and angle invariance.
Many modern cosmologists strongly believe that the universe is expanding implying that its volume is increasing. Furthermore, inflation models suggest that the rate is accelerating or decelerating meaning that it is nonlinear contrary to Hubble’s original prediction. The question is how this variable rate of expansion affects the relative angular distances of its time axis and the time axes of all particles within. One workable hypothesis is that the mean curvature of the universe is not a constant. This can only implies the dynamical configurations (in configuration space of n-dimension) of its two principal minimum and maximum curvature [math]\kappa_1[/math] and [math]\kappa_2[/math]. As determined by astronomical observations, the mean curvature of the present epoch is almost equal to zero. Since mean curvature is the sum of the principal curvatures, zero mean curvature implies that one of the principal curvatures is negative. Moreover, a negative principal curvature suggests a negative time axis. As a final note, a negative time axis implies a negative volume or negative time axes for all virtual volumes of virtual particles and virtual antiparticles.


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