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visits | member for | 4 years, 5 months |
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stats | profile views | 659 |
Jan 10 |
answered | Is there a similar theorem in the partially hyperbolic case? |
Nov 25 |
reviewed | Reject suggested edit on Degeneration of riemannian metrics with curvature bounds |
Nov 9 |
awarded | Custodian |
Nov 3 |
awarded | Custodian |
Nov 3 |
reviewed | Approve suggested edit on Elementary Embeddings and Relative Constructibility |
Oct 28 |
comment |
Dynamical properties of injective continuous functions on $\mathbb{R}^d$
Thanks! In light of your comment, I added your good point about a stronger downward component and made the wording overall a bit less tentative. |
Oct 28 |
revised |
Dynamical properties of injective continuous functions on $\mathbb{R}^d$
added 264 characters in body |
Oct 28 |
answered | Dynamical properties of injective continuous functions on $\mathbb{R}^d$ |
Oct 27 |
awarded | Yearling |
Sep 22 |
awarded | Informed |
Sep 2 |
answered | How to understand a solenoid? |
Jul 9 |
answered | Force-directed graph drawing in 1D? |
Oct 27 |
awarded | Yearling |
Oct 28 |
awarded | Yearling |
Oct 26 |
awarded | Enlightened |
Oct 26 |
awarded | Nice Answer |
Oct 15 |
comment |
When is a submanifold of $\mathbf R^n$ given by global equations?
For $S^1$, what about $f(x, y, z) = (x^2 + y^2 - 1, z)$? But is it possible to do a knot? |
Jul 23 |
comment |
Fixed points which are not locally attractive can have distant basins of attraction?
Under one interpretation of your terms, here's an example. The flow defined by $x' = x^2$ has a non-locally-attracting fixed point at 0, but any open set of negative numbers is attracted to it. But perhaps you mean something else? |
Apr 25 |
comment |
Orthogonal foliations
+1. This is really nicely written--it's an excellent example of how to give a helpful expository (as opposed to problem-solving) answer. |
Apr 15 |
comment |
A model of self-organizing behavior
This seems related to the literature on "pulse-coupled oscillators," which is inspired partly by models of synchronized firefly flashing or cricket chirping. It may not treat your exact rule, but if you haven't looked into this already, see for instance: eecs.harvard.edu/~degesys/pulse.html |