An Experiment to Test a New Theory in Physics, Fundamentally Different From General Relativity, by Changing the Speed of Light in Electromagnetic Interaction

What is it about?

An Experiment to test a New Theory in Physics, fundamentally different from General Relativity, by changing the speed of light in Electromagnetic Interaction Abstract: The document introduces a "New Theory" in physics that contrasts with Einstein's General Relativity. Key differences lie in the fundamental principles: General Relativity is based on the "Curvature of Space and Time" due to a gravitational field and a constant speed of light in the absence of such a field. The "New Theory" posits "Equilibrium" of "5 fundamental force densities in light." It suggests the speed of light can change when monochromatic light beams intersect, contradicting General Relativity. The document proposes an experiment to test this "New Theory." It discusses gravity and light interaction at astronomical and sub-atomic levels, introducing the "Gravitational Tensor" and describing "Gravitational-Electromagnetic Interaction" for Black Holes. Key Concepts and Claims: New Theory vs. General Relativity: The core argument is a challenge to General Relativity's constant speed of light, proposing it can vary under specific electromagnetic conditions. Equilibrium: The "New Theory" is based on the equilibrium of force densities in light. Gravitational-Electromagnetic Interaction: The theory presents a mathematical framework for this interaction, especially concerning black holes. Experimental Verification: The document emphasizes an experiment to validate the new theory by observing changes in the speed of light when laser beams intersect. Black Holes and Dark Matter: The theory offers alternative explanations for these phenomena, linking them to "Gravitational Shielding" and energy density variations. Quantum Physics Connection: The document explores the relationship between Black Holes and Quantum Physics, introducing a quantum vector function. Relativistic Dirac Equation: The document derives a 4-dimensional Tensor presentation of the Dirac Equation. Universal Equilibrium: The theory proposes a concept of universal equilibrium related to quantum mechanical probability. Proposed Experiment: The experiment involves crossing three laser beams with controllable intensities in orthogonal directions. Changes in the speed of light at the intersection would be measured by observing interference patterns. Conclusions: The "New Theory" describes a bi-directional separation between mass and inertia for light (photons). The theory suggests that Black Holes are fundamental solutions of the relativistic quantum mechanical Dirac equation. Dark Matter exists because of "Gravitational RedShift" and "Gravitational Intensity Shift". In essence, the document outlines a theoretical framework challenging the constancy of the speed of light and proposes an experiment to validate this new perspective, potentially offering new insights into gravity, black holes, and dark matter.

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Photo by NASA Hubble Space Telescope on Unsplash

Photo by NASA Hubble Space Telescope on Unsplash

Why is it important?

The document is important for several reasons: Challenges Established Theories: It questions a core tenet of Einstein's General Relativity—the constancy of the speed of light. Challenging established theories is crucial for scientific progress, potentially opening new avenues of research and understanding. Alternative Explanations for Major Phenomena: It offers alternative explanations for phenomena like black holes and dark matter, which are still not fully understood within the current scientific framework. New theoretical frameworks could lead to breakthroughs in these areas. Potential Technological Implications: If the speed of light can indeed be manipulated through electromagnetic interaction as the theory suggests, it could have profound technological implications for fields like communications, energy, and propulsion. Integration of Physics Concepts: The document attempts to bridge General Relativity and Quantum Physics, two pillars of modern physics that have been difficult to reconcile. Any progress in this area is highly significant. Encourages Experimentation: It proposes a specific experiment to test its claims. Experimentation is at the heart of the scientific method, and concrete experimental proposals are valuable for driving research forward. Spurs Discussion and Debate: Whether the theory is ultimately proven correct or not, it can stimulate discussion and debate within the scientific community, leading to a deeper exploration of fundamental physics concepts. Expands Scientific Knowledge: Even if the theory requires refinement or modification, the process of investigating it can expand our scientific knowledge and understanding of the universe. In short, this document is important because it presents a bold and potentially transformative theoretical framework, challenges established ideas, and proposes an experimental path forward.

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