Multivariate stimulus-response designs can be described by a three-way array of stimuli by responses by individuals. Its underlying structure can be represented by a network based on the Tucker2 component model in which stimulus components are connected with response components by means of the links that differ between individuals. For each individual such links are represented in a slice of the extended core array. For a proper understanding of these links, it is desirable that  the individual core slices as well as the component matrices have simple structures and  the differences of core slices between individuals are as few as possible. For attaining  and  we propose a method in which both the component matrices and the core slices of a Tucker2 solution are transformed simultaneously in order that the component matrices match simple target matrices and the core slices are summarized by a simple target slice. The proposed method is evaluated in a simulation study and illustrated with a three-way data array of semantic differential ratings.
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The author would like to thank the editor and anonymous reviewers. This research was supported by grant (C)-20500256 from the Japan Society for the Promotion of Science.
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Adachi, K. Three-Way Tucker2 Component Analysis Solutions of Stimuli × Responses × Individuals Data with Simple Structure and the Fewest Core Differences. Psychometrika 76, 285–305 (2011). https://doi.org/10.1007/s11336-011-9208-6
- three-way component analysis
- Tucker2 model
- stimuli × responses × individuals data
- joint Procrustes analysis