Is time an ephemeral construct of material existence?

                                 

The nature of time is an age-old and unanswered question, but this ignorance might handicap current scientific progress. Time is considered a fundamental quantity in physics. Therefore many core problems in contemporary science, such as entropy, the big bang, and the cosmological principle, are dependent on this crucial understanding. However, a new clue might suggest that the global nature of time is static. The idea, proposed in 1982 by Page and Wootters, indicates that the universe maintains a static state concerning outside observers. This is a powerful idea. A 2013 experiment by Moreva and her colleagues, 'Time from quantum entanglement: an experimental illustration,' proves the principle of static time. 

In a carefully controlled experiment, an interconnected pair of photons can evolve relative to each other. An internal observer connected to one of the photons would experience the changes of the other photon as a time evolution. The experiment implies that our environment and the visible universe have clock-like properties. When we look at galaxies that lie at increasing distance from us, we find that we are observing a younger and younger version of our world. The further we look, the closer things get to the big bang. However, to arrive at the notion of a static universe, we have to find the complementary subsystem of this clock-like material world. Where in the universe is the other half of entanglement?

In practice, we know that whatever goes up also comes down. A cup of hot water cannot cool down without warming up its environment a little. Entanglement acting through mirror symmetries and dualities would always produce energy conserving, symmetric spatial topology. But if this is true, then negative curving space and anti-gravity should be part of our world. This is only possible if the experience is limited to the visible part of the universe. In Einstein's general relativity, the universe should have two poles, black and white holes. While black holes form a point-like singularity, white holes would be sources of expansion. This quality seems to satisfy the entangled pair of black holes. In black holes, time grows so old it stops changing, whereas time is zero in the white holes. They expand space so nothing, not even light, can approach them, and this would make their discovery a practical impossibility. However, the existence of Polar Regions allows the whole cosmos to maintain a static state. This way, time stretches between the poles and forms the basis of a cosmic symmetry. Time is directional and points toward the black holes only within gravitational regions. Moving toward the black holes would destroy not only life but also the material structure. Reversing time is possible by moving toward space's expanding white hole regions, but this would also mean an end to biological systems and even matter. Anti-gravity would push people, spaceships, and even planets or galaxies away due to its expanding, cold influence. Recent vacuum studies found anti-gravity effects supporting the possible existence of expanding regions. 

Existence and life are limited to mild gravity regions. Yet, here we are at Home.

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