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Topology Seminar - Robert Shorts

Robert Short
March 27, 2018
3:00PM - 4:00PM
Cockins Hall 240

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Add to Calendar 2018-03-27 15:00:00 2018-03-27 16:00:00 Topology Seminar - Robert Shorts Title: Relative Topological Complexity for Pairs of Right-Angled Artin Groups Speaker: Robert Short (Lehigh University) Abstract: Topological complexity is a homotopy invariant introduced by Michael Farber in the early 2000s. Denoted $TC(X)$, it counts the smallest size of a continuous motion planning algorithm on X. In this sense, it solves optimally the problem of continuous motion planning in a given topological space. In topological robotics, a part of applied algebraic topology, several variants of $TC$ are studied. In a recent paper, I introduced the relative topological complexity of a pair of spaces $(X, Y )$ where $Y \subset X$. Denoted $TC(X, Y )$, this counts the smallest size of motion planning algorithms that plan from $X$ to $Y$. Right-angled Artin groups have grown in importance lately with their connection to braid groups and their connection to real-world robotics problems. In this talk, we will present the background needed to compute the relative topological complexity of pairs of right-angled Artin groups and hopefully discuss the details of the optimal motion planner involved.' Seminar URL: http://research.math.osu.edu/topology Cockins Hall 240 Department of Mathematics math@osu.edu America/New_York public

Title: Relative Topological Complexity for Pairs of Right-Angled Artin Groups

Speaker: Robert Short (Lehigh University)

Abstract: Topological complexity is a homotopy invariant introduced by Michael Farber in the early 2000s. Denoted $TC(X)$, it counts the smallest size of a continuous motion planning algorithm on X. In this sense, it solves optimally the problem of continuous motion planning in a given topological space. In topological robotics, a part of applied algebraic topology, several variants of $TC$ are studied. In a recent paper, I introduced the relative topological complexity of a pair of spaces $(X, Y )$ where $Y \subset X$. Denoted $TC(X, Y )$, this counts the smallest size of motion planning algorithms that plan from $X$ to $Y$.

Right-angled Artin groups have grown in importance lately with their connection to braid groups and their connection to real-world robotics problems. In this talk, we will present the background needed to compute the relative topological complexity of pairs of right-angled Artin groups and hopefully discuss the details of the optimal motion planner involved.'

Seminar URLhttp://research.math.osu.edu/topology

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