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Homotopy Meaningful Hybrid Model Structures
Aaron Ames

Citation
Aaron Ames. "Homotopy Meaningful Hybrid Model Structures". Michael Farber, R . Ghrist, M. Burger, D . Koditschek (eds.), 121-144, American Mathematical Society, 2007.

Abstract
Hybrid systems are systems that display both discrete and continuous behavior and, therefore, have the ability to model a wide range of robotic systems such as those undergoing impacts. The main observation of this paper is that systems of this form relate in a natural manner to very special diagrams over a category, termed hybrid objects. Using the theory of model categories, which provides a method for "doing homotopy theory" on general categories satisfying certain axioms, we are able to understand the homotopy theoretic properties of such hybrid objects in terms of their "non-hybrid" counterparts. Specifically, given a model category, we obtain a "homotopy meaningful" model structure on the category of hybrid objects over this category with the same discrete structure, i.e., a model structure that relates to the original non-hybrid model structure by means of homotopy colimits, which necessarily exist. This paper, therefore, lays the groundwork for "hybrid homotopy theory."

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Citation formats  
  • HTML
    Aaron Ames. <a
    href="http://chess.eecs.berkeley.edu/pubs/262.html"
    ><i>Homotopy Meaningful Hybrid Model
    Structures</i></a>, Michael Farber, R . Ghrist,
    M. Burger, D . Koditschek (eds.), 121-144, American
    Mathematical Society, 2007.
  • Plain text
    Aaron Ames. "Homotopy Meaningful Hybrid Model
    Structures". Michael Farber, R . Ghrist, M. Burger, D .
    Koditschek (eds.), 121-144, American Mathematical Society,
    2007.
  • BibTeX
    @inbook{Ames07_HomotopyMeaningfulHybridModelStructures,
        author = {Aaron Ames},
        editor = {Michael Farber, R . Ghrist, M. Burger, D .
                  Koditschek},
        title = {Homotopy Meaningful Hybrid Model Structures},
        pages = {121-144},
        publisher = {American Mathematical Society},
        year = {2007},
        abstract = {Hybrid systems are systems that display both
                  discrete and continuous behavior and, therefore,
                  have the ability to model a wide range of robotic
                  systems such as those undergoing impacts. The main
                  observation of this paper is that systems of this
                  form relate in a natural manner to very special
                  diagrams over a category, termed hybrid objects.
                  Using the theory of model categories, which
                  provides a method for "doing homotopy theory" on
                  general categories satisfying certain axioms, we
                  are able to understand the homotopy theoretic
                  properties of such hybrid objects in terms of
                  their "non-hybrid" counterparts. Specifically,
                  given a model category, we obtain a "homotopy
                  meaningful" model structure on the category of
                  hybrid objects over this category with the same
                  discrete structure, i.e., a model structure that
                  relates to the original non-hybrid model structure
                  by means of homotopy colimits, which necessarily
                  exist. This paper, therefore, lays the groundwork
                  for "hybrid homotopy theory."},
        URL = {http://chess.eecs.berkeley.edu/pubs/262.html}
    }
    

Posted by Aaron Ames on 16 May 2007.
Groups: chess
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