Curved Asymptotes: Is the Definition Extended Beyond Straight Lines?

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The discussion centers on whether the definition of asymptotes can extend beyond straight lines, particularly in the context of the graph y=x^2+1/x. The original poster argues that y=x^2 serves as an asymptote as x approaches ±∞, while their teacher disagrees. It is clarified that this viewpoint is valid, as asymptotic analysis often considers dominant terms in functions. The conversation also draws parallels to computer science, where asymptotic equivalence is used to compare algorithms with similar growth rates. Overall, the definition of asymptotes can indeed encompass more than just straight lines.
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Does the definition of an asymptote extend beyond the straight lines?

In an assignment I stated that for the graph y=x^2+\frac{1}{x} there is an asymptote of y=x^2 for x approaching \pm \infty. However, my teacher says that she doesn't believe it to be considered an asymptote.

So was I right or wrong to make this statement?
 
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Your example is the sort of thing commonly seen in asymptotic analysis.

In computer science you see this a lot. For example if you have 1 program that takes n^2 operations to compute, and another program that takes about n^2 + n operations to compute, then they are considered asymptotically equivalent because for large n, the n^2 term dominates and the +n is basically irrelevant. eg: if n=1000, then the first program takes 1,000,000 operations whereas the second program takes 1,001,000 operations - the runtimes differ by 1/10th of 1 percent.
 
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