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The Universal Law of Generalization Holds for Naturalistic Stimuli

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arxiv 2306.08564 v1 pith:K3B2BNDF submitted 2023-06-14 q-bio.NC cs.AIstat.AP

classification q-bio.NCcs.AIstat.AP
keywords universalsimilaritystimuligeneralizationjudgmentsdatasetevidencehuman
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Shepard's universal law of generalization is a remarkable hypothesis about how intelligent organisms should perceive similarity. In its broadest form, the universal law states that the level of perceived similarity between a pair of stimuli should decay as a concave function of their distance when embedded in an appropriate psychological space. While extensively studied, evidence in support of the universal law has relied on low-dimensional stimuli and small stimulus sets that are very different from their real-world counterparts. This is largely because pairwise comparisons -- as required for similarity judgments -- scale quadratically in the number of stimuli. We provide direct evidence for the universal law in a naturalistic high-dimensional regime by analyzing an existing dataset of 214,200 human similarity judgments and a newly collected dataset of 390,819 human generalization judgments (N=2406 US participants) across three sets of natural images.

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