Exploring the Interaction Model of a 3D Hypersurface

In summary, the conversation discusses an interaction model involving sources on a spherical 3d-hypersurface and the potential of these sources as a function of pairwise 4-distance. The goal is to obtain the sum effect in terms of potential's gradient on the 3d-sphere's surface. The possibility of integrating across a 2d spherical surface in a 3d space is also considered, along with the use of a metric that forms a hyperboloid of two sheets. The question of how to handle an infinite surface and the concept of a "sum charge" on the surface are also brought up.
  • #1
muinon
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Homework Statement



This is not homework but relevant to an interaction model that I am developing.

I assume an even distribution of sources on a spherical 3d-hypersurface, the sources having a potential as a function of pairwise 4-distance between any two sources. I wish to obtain the sum effect in terms of potential's gradient, which at any point of 3d-sphere's surface supposedly is perpendicular to the surface, parallel to the local radius of the hypersphere.

While integrating across a 2d spherical surface in a 3d space is not a problem, I should probably consider what kind of a metric there is. Is it at all legitimate to create a space where 3d-spherical surface encloses a bulk, across which I can calculate the strengths of individual pairwise interactions? Or does such space become impossible only when introducing a metric where at least one term has a negative sign (typically of a timelike kind - t^2 * c^2)

If we choose a metric that forms a hyperboloid of two sheets, for instance, is there a way to integrate across it? The size of the surface could (must?) be infinite but the integral at any single point of it might be finite (depending on the function, too!) If surface IS infinite, I suppose I'll have to assume a global sum of source "charges" that is evenly distributed on the surface rather than an infinite charge, don't I? E.g. that "sum charge" being something similar to the total mass of the universe if the interaction were to be gravity.

Please first ask relevant questions to obtain more details if the problem-setting appears too vague.

Thank you!

Homework Equations

The Attempt at a Solution

 
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  • #2
Thanks for the post! Sorry you aren't generating responses at the moment. Do you have any further information, come to any new conclusions or is it possible to reword the post?
 

FAQ: Exploring the Interaction Model of a 3D Hypersurface

What is a 3D hypersurface?

A 3D hypersurface refers to a mathematical model of a physical space that has three dimensions - length, width, and height. It is a surface that exists in three-dimensional space and is typically represented by equations or graphs.

How is the interaction model of a 3D hypersurface explored?

The interaction model of a 3D hypersurface is explored through various scientific methods such as computer simulations, mathematical calculations, and experimental observations. Scientists use these methods to study the behavior and properties of the hypersurface and understand how it interacts with other objects or systems in its environment.

What is the significance of exploring the interaction model of a 3D hypersurface?

Exploring the interaction model of a 3D hypersurface is essential for understanding complex systems and phenomena in various fields such as physics, chemistry, biology, and engineering. It allows scientists to predict and control the behavior of these systems, leading to advancements in technology and scientific understanding.

Are there real-life applications of the interaction model of a 3D hypersurface?

Yes, there are many real-life applications of the interaction model of a 3D hypersurface. For example, it is used in the design and analysis of complex structures such as buildings, bridges, and airplanes. It is also used in medical imaging and drug design, as well as in the study of atmospheric and oceanic systems.

What are some challenges in exploring the interaction model of a 3D hypersurface?

Some challenges in exploring the interaction model of a 3D hypersurface include the complexity of the mathematical equations involved, the limitations of current technology in accurately simulating and visualizing the hypersurface, and the need for interdisciplinary collaboration to fully understand its properties and behavior.

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