Historical presentation · 2019

Families of connected self-similar sets generated by Complex Trees

Bernat Espigulé ·
Topics in Complex Dynamics 2019, IMUB, Universitat de Barcelona
36 slides · Recovered static slides

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Slide 1: Xavier Jarque & Núria Fagella © Complex Trees bernat@espigule.com Topics in Complex Dynamics 2019 IMUB, Universitat de Barcelona, March 28th Bernat Espigulé arXiv:1902.11
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Xavier Jarque & Núria Fagella © Complex Trees bernat@espigule.com Topics in Complex Dynamics 2019 IMUB, Universitat de Barcelona, March 28th Bernat Espigulé arXiv:1902.11282 Families of connected self-similar sets generated by Complex Trees

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Slide 2: 2014 © Complex Trees Thurston’s last paper Bill Thurston (1946 – 2012) Mathematics is a process of staring hard enough at the fog of confusion to eventually break through
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2014 © Complex Trees Thurston’s last paper Bill Thurston (1946 – 2012) Mathematics is a process of staring hard enough at the fog of confusion to eventually break through to improved clarity. Thurston ENTROPY IN DIMENSION ONE arxiv.org/abs/1402.2008

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Slide 3: © Complex Trees Complex tree Geometric series
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© Complex Trees Complex tree Geometric series

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Slide 4: empty string complex-valued alphabet letters complex tree © Complex Trees root nodes tip points word
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empty string complex-valued alphabet letters complex tree © Complex Trees root nodes tip points word

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Slide 5: tipset complex tree © Complex Trees complex tree
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tipset complex tree © Complex Trees complex tree

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Slide 6: © Complex Trees First-level pieces The tipset is a self-similar set
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© Complex Trees First-level pieces The tipset is a self-similar set

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Slide 7: Key idea: “tip-to-tip gluing” © Complex Trees
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Key idea: “tip-to-tip gluing” © Complex Trees

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Slide 8: Topological set © Complex Trees
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Topological set © Complex Trees

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Slide 9: Structurally stable tree Topological set © Complex Trees
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Structurally stable tree Topological set © Complex Trees

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Slide 10: A family of tipset connected trees © Complex Trees
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A family of tipset connected trees © Complex Trees

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Slide 11: © Complex Trees
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© Complex Trees

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Slide 12: © Complex Trees
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© Complex Trees

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Slide 13: A family of tipset connected trees © Complex Trees
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A family of tipset connected trees © Complex Trees

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Slide 14: © Complex Trees
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© Complex Trees

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Slide 15: © Complex Trees
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© Complex Trees

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Slide 16: © Complex Trees
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© Complex Trees

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Slide 17: © Complex Trees
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© Complex Trees

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Slide 18: A family of tipset connected trees © Complex Trees
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A family of tipset connected trees © Complex Trees

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Slide 19: © Complex Trees
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© Complex Trees

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Slide 20: © Complex Trees
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© Complex Trees

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Slide 21: © Complex Trees
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© Complex Trees

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Slide 22: © Complex Trees The unstable set M vs the stable set K
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© Complex Trees The unstable set M vs the stable set K

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Slide 23: © Complex Trees
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© Complex Trees

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Slide 24: © Complex Trees
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© Complex Trees

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Slide 25: © Complex Trees
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© Complex Trees

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Slide 26: © Complex Trees
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© Complex Trees

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Slide 27: © Complex Trees
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© Complex Trees

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Slide 28: © Complex Trees
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© Complex Trees

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Slide 29: Family of Binary Complex Trees Related Work: © Complex Trees
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Family of Binary Complex Trees Related Work: © Complex Trees

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Slide 30: 407
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407

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Slide 31: The Wolfram Set W0=W1=M0 © Complex Trees
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The Wolfram Set W0=W1=M0 © Complex Trees

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Slide 32: © Complex Trees
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© Complex Trees

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Slide 33: © Complex Trees
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© Complex Trees

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Slide 34: @bernatree Holomorphic Dynamics Group Núria Fagella & Xavier Jarque © Complex Trees Bernat Espigulé “If you wish to advance into the infinite, explore the finite in all d
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@bernatree Holomorphic Dynamics Group Núria Fagella & Xavier Jarque © Complex Trees Bernat Espigulé “If you wish to advance into the infinite, explore the finite in all directions.” ⎯ Goethe. Thank you!

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Slide 35: © Complex Trees
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© Complex Trees

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Slide 36: bernat@espigule.com © Complex Trees
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bernat@espigule.com © Complex Trees
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