Would modeling collisions using Coulomb forces be useful?

AI Thread Summary
Modeling collisions using Coulomb forces to account for the mutual repulsion of valence electrons presents a unique approach that diverges from traditional conservation laws. The feasibility of this method hinges on the complexity of accurately simulating a vast number of electrons, with suggestions to use a continuous charge distribution over irregular surfaces. The potential usefulness of this modeling technique is uncertain and may vary based on specific applications. While some believe this approach could yield valuable insights, it is noted that similar attempts have been made in the past without clear outcomes. Overall, the decision to pursue this project should consider both the challenges and potential benefits of such a modeling strategy.
pantheid
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Hi, I am trying to decide on a topic for my senior project, and my professor and I fleetingly discussed my idea of writing a program that models collisions of macroscopic objects using the mutual repulsive forces of their valence electrons rather than standard conservation laws. My question is, is this a worthwhile pursuit? Would trying to analyze collisions in this way make it more complicated, or might this be more useful than using conservation laws in some scenarios?
 
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What do you think you will learn from this?

How do you plan on modeling 10^23 electrons?
 
I was intending to use a continuous distribution of charge over a weirdly shaped surface, rather than just individual charges.
 
You are thinking of modelling the valence electrons as some sort of restricted-motion fluid over the surface of the object with a fixed distribution of positive charge under it?

It would depend on the application ... there is no way to tell in advance if it will be useful.
I have a feeling it is the sort of thing people try every now and again.
 
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