vitaglyph

El ser humano -decía Kundera- "experimenta todo de inmediato por primera vez, sin preparación. Como un actor que entra en escena sin haber ensayado nunca".

Is Time an Illusion? We all experience time as something that flows. Moments pass, the present slips into the past, and the future feels open and undefined. It seems obvious. And yet, when physicists try to describe time using the laws of nature, that intuitive picture begins to fall apart. In everyday life, time feels universal. We assume that “now” is the same for everyone, everywhere. But Einstein showed that this is not true. In relativity, time depends on the observer. Two people moving relative to each other can disagree on how much time has passed between the same events. Even more striking, events that appear simultaneous to one observer may occur at different times for another. There is no single, universal present moment shared across the universe. And yet, the present, the “now”, is the only thing we ever actually experience. This leads to a surprising way of thinking about reality. In the framework of relativity, space and time are woven together into a four-dimensional structure known as spacetime. Events do not simply happen “now” and then disappear. Instead, they exist as points in this larger structure. From this perspective, the universe can be imagined as a kind of “block,” where past, present, and future are all part of the same underlying reality. If that picture is correct, then the flow of time, the feeling that moments are passing, is not something built into the fundamental laws of physics. It is something we experience. That idea becomes even more puzzling when we consider the equations that govern fundamental physics. Many of them work just as well forward in time as backward. If you were to watch a recording of particles interacting at the microscopic level, it would often be impossible to tell whether the video is playing normally or in reverse. The laws themselves do not seem to prefer a direction. And yet, in the real world, time clearly has one. We remember the past, not the future. A glass falls and shatters, but it never reassembles itself. Words, once spoken, cannot be taken back. Something about reality distinguishes before from after. This asymmetry is known as the arrow of time, and it appears to be deeply connected to entropy, the tendency of systems to evolve from ordered states to more disordered ones. In this view, the direction of time is not a fundamental feature of the universe, but an emergent one. The early universe began in an extremely low-entropy state, highly ordered. As it evolved, entropy increased, giving rise to the irreversible processes we observe. The “flow” of time may be tied to this increase in entropy, rather than being a basic ingredient of reality. Some approaches to quantum gravity go even further. In certain formulations, time does not appear as a fundamental variable at all. Instead, it may emerge from more basic relationships between physical systems, such as correlations or quantum entanglement, the way parts of the universe stay connected across space. In these ideas, time is not something that exists independently, but something that arises from deeper structure. So does time really exist? The answer depends on what we mean by “exist.” Time clearly exists as part of our experience and as a parameter that allows us to describe change. But the deeper question is whether time is a fundamental component of the universe, or something that emerges from more basic physical laws. What physics suggests is both unsettling and fascinating. The universe may not be a place where time flows from past to future in a universal way. Instead, it may be a timeless structure in which what we perceive as the passage of time is a feature of how we, as observers, move through it. We feel time passing. But that feeling may be telling us more about ourselves than about the universe.

This is a deep question connecting Orch-OR in microtubules with geometric structure in quantized spacetime. While direct evidence for Platonic defects driving evolution is lacking, experimental work has demonstrated fractal-scale quantum vibrations in microtubules from Hz to THz regimes. Fractal oscillatory fields emerge through dynamic polarity gradients sustained in low-entropy coherence states. Interaction with geometric topological constraints (inertial entropy binding) triggers resonance selection of new stable oscillation modes. These changes can influence morphogenetic attractors, enabling the gradual evolution of brain architectures that more closely reflect underlying spacetime symmetries.