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Adaptive color space model based on dominant colors for image and video compression performance improvement
  S. Madenda 1, A. Darmayantie 1
1 Computer Engineering Department, Gunadarma University,
 
  Jl. Margonda Raya. No. 100, Depok – Jawa Barat, Indonesia
 PDF, 4152 kB
  PDF, 4152 kB
DOI: 10.18287/2412-6179-CO-780
Pages: 405-417.
Full text of article: English language.
 
Abstract:
This paper describes the  use of some color spaces in JPEG image compression algorithm and their impact in terms of image quality  and compression ratio, and then proposes adaptive color space models (ACSM) to improve the performance of lossy image compression algorithm. The proposed ACSM consists of, dominant color analysis algorithm and YCoCg color space family. The YCoCg color space family is composed of  three color spaces, which are YCcCr, YCpCg and YCyCb. The dominant colors  analysis algorithm is developed which enables to automatically select one of  the three color space models based on the suitability of the dominant colors contained in an image. The experimental results  using sixty test  images, which have varying colors, shapes and textures, show that the proposed  adaptive color space model provides improved performance of 3 %  to 10 % better than YCbCr,  YDbDr, YCoCg and YCgCo-R color spaces family. In addition, the YCoCg color space family is a discrete transformation so its  digital electronic  implementation requires only two adders and two subtractors, both for forward  and inverse conversions.
Keywords:
colors dominant analysis, adaptive color space, image compression, image quality, compression ratio.
Citation:
  Madenda S, Darmayantie A. Adaptive color space model based on dominant colors for image and video compression performance improvement. Computer Optics 2021; 45(3): 405-417. DOI: 10.18287/2412-6179-CO-780.
Acknowledgements:
  Thank you to Gunadarma University for providing funding support during the research and publication process.
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