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Fair Clustering with Multiple Colors
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abstract
A fair clustering instance is given a data set $A$ in which every point is assigned some color. Colors correspond to various protected attributes such as sex, ethnicity, or age. A fair clustering is an instance where membership of points in a cluster is uncorrelated with the coloring of the points. Of particular interest is the case where all colors are equally represented. If we have exactly two colors, Chierrichetti, Kumar, Lattanzi and Vassilvitskii (NIPS 2017) showed that various $k$-clustering objectives admit a constant factor approximation. Since then, a number of follow up work has attempted to extend this result to a multi-color case, though so far, the only known results either result in no-constant factor approximation, apply only to special clustering objectives such as $k$-center, yield bicrititeria approximations, or require $k$ to be constant. In this paper, we present a simple reduction from unconstrained $k$-clustering to fair $k$-clustering for a large range of clustering objectives including $k$-median, $k$-means, and $k$-center. The reduction loses only a constant factor in the approximation guarantee, marking the first true constant factor approximation for many of these problems.
Forward citations
Cited by 3 Pith papers
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Polynomial-Time Constant-Approximation for Fair Sum-of-Radii Clustering
A polynomial-time O(1)-approximation for (t,k)-fair sum-of-radii clustering, with factors 144+ε (two colors) and 180+ε (balanced multi-color).
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Exact ratio preservation via outliers for fair $k$-center clustering
Constant-factor approximations for exact-ratio fair k-center are obtained by combining fairlets with a controlled number of outliers from majority groups.
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Fair-Count-Min: Frequency Estimation under Equal Group-wise Approximation Factor
Fair-Count-Min partitions Count-Min columns among groups, allocating columns by group size for one hash row and by a binomial-minimum equation for multiple rows, aiming to equalize expected approximation factors.
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