Published October 27, 2022 | Version v1
Journal article Open

Devising a method for segmenting images acquired from space optical and electronic observation systems based on the Sine-Cosine algorithm

Creators

  • 1. Ivan Kozhedub Kharkiv National Air Force University
  • 2. Academician Yuriy Bugay International Scientific and Technical University
  • 3. Kharkiv National University of Radio Electronics
  • 4. Hetman Petro Sahaidachnyi National Army Academy
  • 5. State Scientific Research Institute of Armament and Military Equipment Testing and Certification
  • 6. National Academy of the National Guard of Ukraine

Description

The object of this study is the process of segmentation of images acquired from space optoelectronic surveillance systems. The method to segment images from space optoelectronic surveillance systems based on the Sine-Cosine algorithm involves determining the threshold level; unlike the known ones, the following is carried out in it:

– preliminary selection of red-green-blue color space brightness channels in the original image;

– calculation of the maximum distance of movement of agents in the image in each brightness channel;

– calculation of the values that determine the movement of agents in the image in each brightness channel;

– determining the position of agents in the image using trigonometric functions of the sine and cosine in each brightness channel.

An experimental study into segmenting images acquired from space optoelectronic surveillance systems based on the Sine-Cosine algorithm was carried out. It was found that the improved method of image segmentation based on the Sine-Cosine algorithm makes it possible to segment the images. In this case, objects of interest, snow-covered objects of interest, background objects, and undefined areas of the image (anomalous areas) are identified.

The quality of image segmentation was assessed using the Sine-Cosine algorithm-based method. It was found that the improved segmentation method based on the Sine-Cosine algorithm reduces the segmentation error of the first kind by an average of 21 % and the segmentation error of the first kind by an average of 17 %.

Methods of image segmentation can be implemented in software and hardware systems that process images acquired from space optoelectronic surveillance systems.

Further studies may involve comparing the quality of segmentation by the method based on the Sine-Cosine algorithm with segmentation methods based on evolutionary algorithms (for example, genetic ones).

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