Conformal dimension: Difference between revisions
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The '''conformal dimension''' of a metric space <math>X</math> is the infimum of the Hausdorff dimension over the conformal gauge of <math>X</math>, that is, the class of all metric spaces quasisymmetric to <math>X</math>.<ref>John M. Mackay, Jeremy T. Tyson, ''Conformal Dimension : Theory and Application'', University Lecture Series, Vol. 54, 2010, Rhodes Island</ref> |
The '''conformal dimension''' of a metric space <math>X</math> is the infimum of the [[Hausdorff dimension]] over the conformal gauge of <math>X</math>, that is, the class of all metric spaces quasisymmetric to <math>X</math>.<ref>John M. Mackay, Jeremy T. Tyson, ''Conformal Dimension : Theory and Application'', University Lecture Series, Vol. 54, 2010, Rhodes Island</ref> |
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==Formal definition== |
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Let <math>X</math> be a metric space and <math>\mathcal{G}</math> be the collection of all metric spaces that are quasisymmetric to <math>X</math>. The conformal dimension of <math>X</math> is defined as such |
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<math>Cdim X = inf_{Y \in \mathcal{G}} dim_H Y</math> |
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==Properties== |
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We have the following inequalities, for a metric space <math>X</math> : |
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<math>dim_T X \leq Cdim X \leq dim_H X</math> |
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==Examples== |
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==See also== |
==See also== |
Revision as of 14:24, 16 March 2011
The conformal dimension of a metric space is the infimum of the Hausdorff dimension over the conformal gauge of , that is, the class of all metric spaces quasisymmetric to .[1]
Formal definition
Let be a metric space and be the collection of all metric spaces that are quasisymmetric to . The conformal dimension of is defined as such
Properties
We have the following inequalities, for a metric space :
Examples
See also
References
- ^ John M. Mackay, Jeremy T. Tyson, Conformal Dimension : Theory and Application, University Lecture Series, Vol. 54, 2010, Rhodes Island