Introduction
Imagine a new way to look at the universe, where everything—from time to energy gravity to space—is part of one big, interconnected system. This is what Quantum Admittance (QA) is all about. It’s a theory that helps us understand how easily new electrons and their anti-particles can come into existence in space. It’s all about how the universe allows or “admits” these entities based on certain rules.
Imagine a new way to look at the universe, where everything—from time to energy, gravity to space—is part of one big, interconnected system. This is what Quantum Admittance (QA) is all about. It’s a theory that helps us understand how easily new particles, like electrons and their antiparticles, can come into existence in space. At the core of this theory is the idea that the universe allows or “admits” these entities based on certain rules, with ε0 and μ0 acting as the glue that binds energy together.
Time
Time is a constant: In Quantum Admittance (QA), time is seen as a dynamic flow of energy rather than a static dimension. Picture it as a river that shapes our reality, moving in a way governed by an intelligence-designed interval, which serves as a reference for the universe. This perspective helps us understand how energy transitions and evolves over time, influencing everything from particle formation to gravitational effects.
Energy
Within the Quantum Admittance (QA) framework, energy is fundamentally tied to charge differentials and dipoles, especially as they are manifested in photons. These dipoles are the foundational units of electromagnetic interactions, defining energy at both quantum and macroscopic scales. This foundational understanding sets the stage for exploring how energy behaves and propagates within the QA model.
Energy is the flow of Photons: The theory redefines photons as pairs of charge and anti-charge, emerging from the vacuum of space. These pairs generate a trailing wave, akin to the wake of a sailboat, driven by the displacement of charges over time. The energy density of these charge dipoles, constituting photons, is determined by the spin speed and the slope at the zero crossing of the sine wave as they interact with space’s impedance. This challenges conventional quantum mechanics, offering a novel explanation for energy quantization described by Planck’s constant.
Electrical Permittivity (ε0) and Magnetic Permeability (μ0) are the regulators: These fundamental properties describe the ease with which electric and magnetic fields establish themselves in space. Within QA, ε0 and μ0 emerge as results of how energy interacts with the vacuum. They are orthogonal properties that play a critical role in determining space viscosity and act as fundamental factors in regulating the flow and structure of energy.
Gravity
In the QA view, gravity isn’t just a force that pulls things together. Instead, it’s about how the “thickness” or viscosity of space changes with energy. This means gravity can be stronger or weaker depending on how energy is distributed in space.
Field Disturbances and Gravity: As electrons move, they disturb the surrounding energy field, creating ripples or waves. These ripples help us understand gravity, which is all about how space “responds” to these moving electrons.
Dynamic Nature of Gravity: Gravity isn’t fixed; it changes with energy. When energy is spread out, gravity is stronger. When energy is dense, gravity slows down. It’s all about how space reacts to energy.
Space
In QA, space isn’t just an empty box; it’s something that comes to life only because of energy. The fields we observe in space belong to energy and do not exist independently of it. This concept aligns with Einstein’s idea that “there is nothing in space that enables the propagation of energy”—essentially, there is no aether. Space is not a pre-existing stage but is created through the interaction of energy fields, making it part of a bigger, energetic dance.
Viscosity and Admittance of Space: Think of space’s viscosity like the thickness of a fluid. Just as a thicker fluid slows down objects, the ‘viscosity’ of space influences how quickly energy waves can travel. This thickness is determined by ε0 and μ0, with their orthogonality being key. The admittance of space further ties into this concept, representing how “receptive” space is to the propagation of energy. In QA, this admittance is not a property of space itself but an emergent quality of how energy interacts within it.
Planck’s Constant and the Surface Tension of Space: In QA, the propagation of energy within space involves overcoming a certain threshold, akin to the “first jerk” of a system. This “surface tension” can be thought of as the resistance space offers to the formation or movement of energy fields within it. Just as the first jerk represents the initial energy required to overcome the inertia of a system at rest, Planck’s constant, h, could represent the minimum quantum of energy needed to overcome this surface tension. This makes h a fundamental constant that ties together the quantum nature of energy with the emergent properties of space. This perspective not only clarifies energy quantization but also deepens our understanding of the intrinsic link between space and energy.