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    Non-Discriminatory Service Robot Placement Using Geometric Median

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    Date
    2020-05-01
    Author
    Boyd, Brian
    Department
    Computer Science
    Advisor(s)
    Amol Mali
    Metadata
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    Abstract
    Service robots are becoming increasingly common, and businesses are adopting their use at an increasingly rapid rate in order to reduce costs and provide efficiencies in performing mundane tasks. However, very little research has been performed in order to understand and address ethical concerns regarding their deployment and use. One such concern is how one can ensure placement of a service robot such that is does not discriminate either in favor of or against individuals. This research explores techniques that can be used to provide a quantitative methodology to ensure fairness in terms of service robot placement such that discrimination does not occur. These techniques include the development and further enhancement of a heuristic hill climbing algorithm used to approximate the Geometric Median (GM). This algorithm is then benchmarked against Weiszfeld’s Algorithm, a well-known algorithm commonly used to solve the GM problem. iii These two algorithms are then visualized using Dynamics Explorer, an open source software tool, to create 2d maps of the dynamics of their convergence rates along with maps of F(), the “sum of the Euclidean distances” function underlying the calculations used by both GM approximation algorithms. The heuristic hill climbing algorithm is also extended to handle obstacles being introduced into the service robot’s workspace. It is further shown that as the size of ξ approaches ∞+, the Geometric Median converges to the centroid, given certain assumptions, such as the target points being evenly distributed in the plane.
    Subject
    Geometric median
    Robot motion planning
    Permanent Link
    http://digital.library.wisc.edu/1793/92288
    Type
    thesis
    Part of
    • UW Milwaukee Electronic Theses and Dissertations

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