Can Asymptotes Be Defined as Points or Circles in Exotic Topologies?

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SUMMARY

This discussion explores the definition of asymptotes within exotic topologies, questioning whether they can be represented as points or circles. The conversation highlights the need for an additional dimension to transform points into lines or functions. It also examines the mathematical representation of attractive forces and mass-like properties without relying on vectors, emphasizing the limitations of traditional limit operations. The concept of circular asymptotes in vector fields, referred to as attractors or repellers, is also addressed.

PREREQUISITES
  • Understanding of exotic topologies
  • Familiarity with differential equations
  • Knowledge of limit operations in calculus
  • Basic concepts of vector fields
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  • Research the properties of exotic topologies in mathematics
  • Study the role of attractors and repellers in dynamical systems
  • Learn about the implications of limit operations in higher dimensions
  • Explore the mathematical representation of forces without vectors
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Mathematicians, theoretical physicists, and students interested in advanced topology and dynamical systems will benefit from this discussion.

evanghellidis
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Could an asymptote be defined as a point, or a circle? I assume it would be in a rather exotic topology, or a very trivial one. Furthermore, can we define each of these as the other's asymptote? The points would probably have to turn into lines(functions) by virtue of an extra dimension in that topology.

What I'm basically trying to figure out is how a generic attractive force, coupled with a generic mass-like property(i.e. the points can't overlap; passive repelling force) could be defined mathematically, without using vectors. I first thought of setting x,y as each other's limit(x->y and y->x), with x\neqy, but that leads to x=y, due to the nature of the limit operation. With asymptotes, I'm guessing an infinity should show up.

Am I making any sort of sense?
 
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Circular asymptotes occur in vector fields (differential equation systems). They are called attractors or repellers, depending on whether the flows rush in or come from it. The concept doesn't make much sense for usual functions.
 

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