METHOD FOR ANALYSING COLOR IMAGES BASED ON DIGITAL SIGNAL PROCESSING AND MACHINE LEARNING

Authors

  • E. E. Fedorov Cherkassy State Technological University, Cherkassy, Ukraine
  • O. L. Khramova-Baranova Cherkassy State Technological University, Cherkassy, Ukraine
  • T. Y. Utkina Cherkassy State Technological University, Cherkassy, Ukraine
  • H. V. Galytska Cherkassy State Technological University,Cherkassy, Ukraine
  • I. O. Nesen National University of Civil Defence of Ukraine, Cherkassy, Ukraine

DOI:

https://doi.org/10.15588/1607-3274-2026-2-14

Keywords:

image analysis, training template, quantization, binarization, clustering, machine learning, digital signal processing

Abstract

Context. In recent decades, rapid advances in digital signal processing and artificial intelligence have greatly expanded capabilities in visual information analysis. A color image, as a complex multidimensional signal, carries geometric, spectral, and textural data about objects. Efficient processing of such data requires integrating filtering, segmentation, and transformation methods with machine learning algorithms to extract hidden patterns and meaningful features.
Objective. The purpose of this work is to develop a method for analyzing color images based on quantization, binarization, clustering, and selection of priority clusters.
Method. The proposed approach combines digital signal processing and machine learning to improve the accuracy and speed of extracting informative elements. It includes several interrelated techniques: Quantization of three-color components in the training template to reduce color diversity and accelerate binary image formation; selection of priority template colors based on occurrence probability with a normalized threshold, enhancing feature detection accuracy; quantization of the original image’s color components to optimize segmentation and avoid excessive clustering; construction of a binary image using quantized template colors to eliminate false clusters and improve clustering precision; extraction of binary elements via clustering, verifying only white-point surroundings to suppress noise and automatically identify elements of various shapes; selection of priority binary elements using probabilistic assessment to enhance reliability.
Results. The method was implemented in Matlab and tested on a specialized database. Compared with traditional approaches, it demonstrated higher accuracy and stability in element extraction while reducing processing time through color optimization and removal of redundant clusters.
Conclusions. The comprehensive application of quantization, binarization, clustering, and priority element selection ensures accurate, fast, and adaptive analysis of color images. The method expands the functionality of visual information processing systems and can be used for statistical analysis, intelligent image processing, segmentation, and classification of complex visual structures

Author Biographies

E. E. Fedorov, Cherkassy State Technological University, Cherkassy

Dr. Sc., Professor, Professor of Department of Statistics and Applied Mathematics

O. L. Khramova-Baranova, Cherkassy State Technological University, Cherkassy

Dr. Sc., Professor, Head of Department of Graphic Design, Fashion and Style

T. Y. Utkina, Cherkassy State Technological University, Cherkassy

PhD, Associate Professor, Associate Professor of Department of Robotics and Specialized Computer
Systems

H. V. Galytska, Cherkassy State Technological University,Cherkassy

Senior Lecturer of Department of Graphic Design, Fashion and Style

I. O. Nesen, National University of Civil Defence of Ukraine, Cherkassy

PhD, Associate Professor of Department of Engineering and Emergency Rescue Equipment at the
Educational and Scientific Institute of Operational Rescue Forces, Cherkasy Institute of Fire Safety named after Chornobyl Heroes, Major of the Civil Protection Service

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Published

2026-06-26

How to Cite

Fedorov, E. E. ., Khramova-Baranova, O. L. ., Utkina, T. Y., Galytska, . H. V. ., & Nesen, I. O. . (2026). METHOD FOR ANALYSING COLOR IMAGES BASED ON DIGITAL SIGNAL PROCESSING AND MACHINE LEARNING. Radio Electronics, Computer Science, Control, (2), 158–172. https://doi.org/10.15588/1607-3274-2026-2-14

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Section

Progressive information technologies