Pre Theory QA Space:
Space, the quintessential backdrop of the cosmos, is a realm predominantly characterized by its emptiness. Devoid of substantial matter and exhibiting exceedingly low pressure, it provides the canvas upon which celestial phenomena unfold. Unlike terrestrial environments, sound propagation in space is nonexistent due to the sparse distribution of molecules incapable of transmitting acoustic vibrations. While often conceptualized as a four-dimensional construct encompassing three spatial dimensions and one temporal dimension, the unique nature of time poses distinctive challenges, particularly in contexts involving complex dimensional interactions.
Space is commonly thought of as a four-dimensional object with three physical dimensions and one time dimension. Unlike other 4-dimensional objects, which may have 16 directions of freedom of movement, there are only 10 in space, as time has only a positive vector (there is no known negative time). While physical dimensions are well understood, “time” presents special consideration, especially in situations where complex dimensional interaction is involved.
Observations of celestial light afford humanity glimpses into the depths of space, revealing galaxies extending to the cosmic horizon, nearly reaching back to the primordial event known as the Big Bang, speculated to have catalyzed the birth of our universe approximately 13.8 billion years ago. Consequently, our observational purview extends nearly 13.8 billion light-years into space, albeit the continuous expansion of the universe complicates precise spatial measurements.
The observable extent of space remains bounded solely by the limitations imposed by our instrumentation, primarily telescopes, with any purported boundaries lying beyond our current detection capabilities. Thus, delineating definitive boundaries or establishing a central reference point within the vast expanse of space remains elusive. The prevailing consensus leans towards a flat universe, supported by observations suggesting its spatial and temporal infinitude. Such a geometric configuration, conducive to the full solvability of quantum mechanics, underscores space’s intrinsic complexity.
The notion of spatial curvature, though a mathematical construct, lacks empirical substantiation. Nevertheless, localized variations in space’s properties may induce perceptible curvatures to energy, particularly gravity, warranting further investigation. Despite its apparent homogeneity and isotropy, space exhibits subtle gradients, as evidenced by minute deviations in microwave background radiation, hinting at a textured, albeit imperceptible, landscape.
Dominating the cosmic tapestry are vast filamentous structures, delineating energy contours threading through space. These filaments, constituting the backbone of cosmic architecture, harbor galaxies and luminous bodies, underscoring the intricate interplay between spatial geometry and celestial phenomena. Amidst this cosmic menagerie, galaxies, predominantly spiral in form, populate the celestial expanse, each housing myriad stars and planetary systems.
Hydrogen, the elemental cornerstone of the cosmos, pervades space, propelled by gravitational forces to populate the cosmos’ most remote recesses. From interstellar clouds to colossal stars, hydrogen’s ubiquity underscores its pivotal role in cosmic evolution. Illuminating the celestial tableau are photons, the elemental carriers of electromagnetic radiation, serving as harbingers of celestial phenomena across the cosmic stage.
While contemporary theoretical frameworks have obviated the need for a luminiferous aether, the foundational principles of electromagnetism, as elucidated by Faraday, Gauss, and Maxwell, endure. These principles, encapsulated by the permeability and permittivity of free space, manifest as the impedance of space, dictating the propagation of electromagnetic radiation. Although the concept of aether has waned, the enduring essence of cosmic energy endures, echoing through the vast expanse of space.
QA Space as an Emergent Phenomenon: Gravity and the Illusory Canvas
In the framework of Quantum Admittance (QA), the relationship between space, time, and energy takes on a profound significance. Unlike traditional views where space is considered a passive backdrop, QA posits that time is the primary foundation upon which energy manifests. Without the passage of time, energy cannot exist in any measurable form. Consequently, the emergence of space is intricately linked to the dynamic interplay between time and energy. In this paradigm, space is not merely an empty void but rather an emergent property arising from the interaction of time and energy. This reimagining of the cosmic triad highlights the fundamental role of time and energy as the building blocks of space, offering a fresh perspective on the interconnectedness of the universe.
In the realm of quantum physics, emergent phenomena often reveal themselves through the intricate interplay of fundamental forces and particles. One such emergent field, analogous to the Higgs field, arises from the dynamic interaction of energy within the fabric of space. Unlike the preexisting Higgs field posited by the Standard Model, this emergent field does not preexist in space but manifests as a consequence of the flow of energy through time. Much like the vacuum permeability and permittivity characterize the behavior of the electromagnetic field, this emergent field plays a foundational role in shaping the behavior of particles and fields in the universe. By exploring the parallels between the Higgs field and this emergent energy-centric field, we gain insights into the underlying symmetries and fundamental principles governing the cosmos.
For centuries, our understanding of reality has been anchored in the notion of space as a pre-existing, immutable canvas upon which the drama of existence unfolds. However, recent theoretical explorations and thought experiments challenge this classical view. The concept of space as an emergent phenomenon, arising from the dynamic interplay of time and energy, offers a compelling alternative perspective on gravity and the fundamental structure of the universe.
Imagine a universe devoid of the emptiness we traditionally associate with space. Instead, consider a dynamic tapestry woven from the flow of energy through time. Gravity, in this framework, would not be a force acting within space, but rather a consequence of the intrinsic properties of this energy flow. By altering the speed or density of energy along a particular path, we could experience a change in what we perceive as gravity, akin to manipulating the “resistance” within the fabric of spacetime.
The theory of emergent space aligns well with advancements in quantum mechanics. At the quantum level, the distinction between “empty space” and the presence of a particle can blur. Fluctuations in the quantum vacuum, the supposed void of space, constantly give rise to virtual particles that pop in and out of existence. This inherent dynamism suggests that space itself might be a manifestation of these underlying quantum fluctuations.
The notion of emergent space is not without its challenges. A complete understanding of gravity, particularly when considering phenomena like quantum black holes, necessitates a theory of quantum gravity that is still under development. Additionally, formulating a comprehensive mathematical framework for a universe without a pre-existing space presents significant hurdles.
Despite these challenges, the idea of emergent space offers a fascinating new lens through which to view gravity and the universe. It compels us to move beyond the limitations of classical physics and embrace a more dynamic and interconnected view of reality. Further exploration in this direction, alongside advancements in quantum gravity, may hold the key to unlocking deeper mysteries about the nature of space, time, and the fundamental forces that govern our existence.
Lattice The organization of space by energy
Fields Electromagnetic (EM) fields manifest the energy in photon waves at specific points in space.
QA Space is the time it takes energy to propagate.