Detecting object hue bin in the CIECAM02 uniform color space using a multi-layer perceptron for optimal spectrum generation

In this paper, we present an innovative enhancement to an existing multi-channel light-emitting diode luminaire by integrating artificial intelligence and image analysis capabilities. The system captures an image of the object to be illuminated using a custom-developed Android application. The dominant color in the image is first identified, and then a multi-layer perceptron neural network classifies it into one of 16 hue bins within a uniform color appearance model. This classification process enables the luminaire to select a predefined spectrum designed to enhance the visual appeal of the illuminated object. To ensure robust hue bin classification, we developed a rich dataset with 7920 samples, collected using eleven smartphones under ten distinct light sources. Using this diverse dataset, thirteen multi-layer perceptron neural networks with varying input features were trained and compared, achieving hue classification accuracies, precision, and recall all ranging from 95 % to 99 % on the test set. One of the trained multi-layer perceptron networks was integrated into the Android application, with an inference time of 90 μs on a mid-range smartphone, demonstrating the practical application of artificial intelligence for on-demand hue analysis and lighting optimization. This advancement not only enhances the luminaire's functionality but also enriches the user experience by providing intelligent, on-demand lighting solutions tailored to the object's dominant color.

Authors

Publication Details

Journal
Engineering Applications of Artificial Intelligence
Published
2025-09-03
DOI
https://doi.org/10.1016/j.engappai.2025.112178
Primary Topic
Color Science and Applications
Type
article
Field-Weighted Citation Impact
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article

Detecting object hue bin in the CIECAM02 uniform color space using a multi-layer perceptron for optimal spectrum generation

Kaveh Ahmadian Tazehmahaleh, Esmat Kishani Farahani
Engineering Applications of Artificial Intelligence
Color Science and Applications
article

Detecting object hue bin in the CIECAM02 uniform color space using a multi-layer perceptron for optimal spectrum generation

Kaveh Ahmadian Tazehmahaleh, Esmat Kishani Farahani
article en

Abstract

In this paper, we present an innovative enhancement to an existing multi-channel light-emitting diode luminaire by integrating artificial intelligence and image analysis capabilities. The system captures an image of the object to be illuminated using a custom-developed Android application. The dominant color in the image is first identified, and then a multi-layer perceptron neural network classifies it into one of 16 hue bins within a uniform color appearance model. This classification process enables the luminaire to select a predefined spectrum designed to enhance the visual appeal of the illuminated object. To ensure robust hue bin classification, we developed a rich dataset with 7920 samples, collected using eleven smartphones under ten distinct light sources. Using this diverse dataset, thirteen multi-layer perceptron neural networks with varying input features were trained and compared, achieving hue classification accuracies, precision, and recall all ranging from 95 % to 99 % on the test set. One of the trained multi-layer perceptron networks was integrated into the Android application, with an inference time of 90 μs on a mid-range smartphone, demonstrating the practical application of artificial intelligence for on-demand hue analysis and lighting optimization. This advancement not only enhances the luminaire's functionality but also enriches the user experience by providing intelligent, on-demand lighting solutions tailored to the object's dominant color.

Engineering Applications of Artificial IntelligenceVol. 161
Openalex Percentile: Top 82%
Color Science and Applications
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