No-Reference Error Detection in Color Difference Datasets: Application to Munsell Data

The Munsell dataset is a cornerstone in color science, offering extensive coverage of large color differences across a wide gamut, and serving as a prominent resource for developing and validating color models. The widely used second version, the “Munsell Renotation” dataset, has been instrumental in advancing uniform color spaces (UCS). However, substantial errors in the third version, the “Re-renotation”, compromise its reliability for optimizing color models. In this study, we identify and correct typographical errors in the “Re-renotation” dataset and introduce two semi-automatic methods for error detection. The Global Metric Outlier Detection (GMOD) method applies to datasets with varied structures, while the Smooth Curve Outlier Detection (SCOD) method targets ordered datasets, such as the Munsell dataset. These methods operate without relying on external references, instead assuming that a true color space metric guarantees gradual and smooth perceptual change between colors. Our revised dataset demonstrates significantly improved consistency with established UCS models. The corrections and methods introduced here support the ongoing refinement of psychophysical color difference datasets, with all results and data made available in a machine-readable format.

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Journal
IEEE Access
Published
2025-01-01
DOI
https://doi.org/10.1109/access.2025.3582053
Primary Topic
Spectroscopy and Chemometric Analyses
Type
article
Field-Weighted Citation Impact
0.00

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article

No-Reference Error Detection in Color Difference Datasets: Application to Munsell Data

Valerii Timofeev, Mikhail K. Tchobanou, Anastasia Sarycheva, Olga Basova et al.
IEEE Access
Spectroscopy and Chemometric Analyses
article

No-Reference Error Detection in Color Difference Datasets: Application to Munsell Data

Valerii Timofeev, Mikhail K. Tchobanou, Anastasia Sarycheva, Olga Basova, Valentina Bozhkova, Иван Коноваленко, Dmitry Bocharov, Dmitry Nikolaev, Galim Usaev, Mikhail Seliugin
article en

Abstract

The Munsell dataset is a cornerstone in color science, offering extensive coverage of large color differences across a wide gamut, and serving as a prominent resource for developing and validating color models. The widely used second version, the “Munsell Renotation” dataset, has been instrumental in advancing uniform color spaces (UCS). However, substantial errors in the third version, the “Re-renotation”, compromise its reliability for optimizing color models. In this study, we identify and correct typographical errors in the “Re-renotation” dataset and introduce two semi-automatic methods for error detection. The Global Metric Outlier Detection (GMOD) method applies to datasets with varied structures, while the Smooth Curve Outlier Detection (SCOD) method targets ordered datasets, such as the Munsell dataset. These methods operate without relying on external references, instead assuming that a true color space metric guarantees gradual and smooth perceptual change between colors. Our revised dataset demonstrates significantly improved consistency with established UCS models. The corrections and methods introduced here support the ongoing refinement of psychophysical color difference datasets, with all results and data made available in a machine-readable format.

IEEE AccessVol. 13
Russian Academy of Sciences (RU), Institute for Information Transmission Problems (RU)
Huawei Technologies
Openalex Percentile: Top 84%
Spectroscopy and Chemometric Analyses
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