A Simple Approach to Constructing Quasi-Sudoku-based Sliced Space-Filling Designs
Diane Donovan, Benjamin Haaland, David J. Nott

TL;DR
This paper introduces a simple method for constructing quasi-Sudoku-based space-filling designs that ensure uniformity in projections, useful for computer experiments and cross-validation, with practical implementation and diverse design options.
Contribution
The paper presents a straightforward construction of doubly orthogonal quasi-Sudoku Latin squares and quasi-sliced orthogonal arrays for generating uniform sliced space-filling designs.
Findings
Achieves uniformity in one and two-dimensional projections for full and sliced designs.
Provides practical construction methods with diverse design sizes and factors.
Enables applications in computer experiments and cross-validation.
Abstract
Sliced Sudoku-based space-filling designs and, more generally, quasi-sliced orthogonal array-based space-filling designs are useful experimental designs in several contexts, including computer experiments with categorical in addition to quantitative inputs and cross-validation. Here, we provide a straightforward construction of doubly orthogonal quasi-Sudoku Latin squares which can be used to generate sliced space-filling designs which achieve uniformity in one and two-dimensional projections for both the full design and each slice. A construction of quasi-sliced orthogonal arrays based on these constructed doubly orthogonal quasi-Sudoku Latin squares is also provided and can, in turn, be used to generate sliced space-filling designs which achieve uniformity in one and two-dimensional projections for the full design and and uniformity in two-dimensional projections for each slice. These…
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Taxonomy
Topicsgraph theory and CDMA systems · Optimal Experimental Design Methods
