Texture Analysis and Classification Based on Fuzzy Triangular Greylevel Pattern and Run-Length Features

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U Ravi Babu
U Ravi Babu
2
Dr. V Vijaya Kumar
Dr. V Vijaya Kumar
3
J Sasi Kiran
J Sasi Kiran
1 Research Schalor AN University

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Texture Analysis and Classification Based on Fuzzy Triangular Greylevel Pattern and Run-Length Features Banner
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Your Texture analysis is one of the most important techniques used in the analysis and interpretation of images, consisting of repetition or quasi repetition of some fundamental image elements. The present paper derived Fuzzy Triangular Greylevel Pattern (FTGP) to overcome the disadvantages of LBP and other local approaches. The FTGP is a 2 x 2 matrix that is derived from a 3 x 3 neighborhood matrix. The proposed FTGP scheme reduces the overall dimension of the image while preserving the significant attributes, primitives, and properties of the local texture. From each 3 x 3 matrix a Local Grey level Matrix (LGM) is formed by subtracting local neighborhoods by the gray value of its center. The 2 x 2 FTGP is generated from LGM by taking the average value of the Triangular Neighbor Pixels (TNP) of the 3 x 3 LGM. A fuzzy logic is applied to convert the Triangular Neighborhood Matrix (TNM) in to fuzzy patterns with 5 values {0, 1, 2, 3 and 4} instead of patterns of LBP which has two values {0, 1}. On these fuzzy patterns a set of Run Length features are evaluated for an efficient classification. The proposed method is experimented with wide variety of textures, and exhibited with a high classification rate. The proposed FTGP with run length features shown its supremacy and efficacy over the various existing methods in classification of textures.

28 Cites in Articles

References

  1. M Dash,H Liu (1997). Feature selection for classification.
  2. D Koller,M Sahami (1996). Toward optimal feature selection.
  3. P Zhang,J Peng,B Buckles (2006). Learning optimal filter representation for texture classification.
  4. T Reed,J Du Buf (1993). A review of recent texture segmentation and feature extraction techniques.
  5. Mihran Tuceryan,Anil Jain (1998). TEXTURE ANALYSIS.
  6. A Samal,J Brandle,D Zhang (2006). Texture as the basis for individual tree identification.
  7. U S N Raju,B Eswar Reddy,V Vijaya Kumar,B Sujatha (2008). Texture Classification Based On Extraction Of Skeleton Primitives Using Wavelets.
  8. Vijaya Kumar,U S N Raju,K Chandra Sekaran,V V Krishna (2009). Employing Long Linear Patterns for Texture Classification relying on Wavelets.
  9. K Jafari-Khouzani,H Soltanian-Zadeh (2005). Radon transform orientation estimation for rotation invariant texture analysis.
  10. Lee W.-L Yung-C. Chen,Ying-C Chen,K.-S Hsieh Unsupervised segmentation of ultrasonic liver images by multiresolution fractal feature vector.
  11. A Marzabal,C Torrens,A Grau (2001). SVM based pattern recognition of microscopic liver images.
  12. P Paclik,R Duin,G Van Kempen,R Kohlus (2002). Supervised segmentation of textures in backscatter images.
  13. A Lucieer,A Stein,P Fisher (2005). Multivariate texturebased segmentation of remotely sensed imagery for extraction of objects and their uncertainty.
  14. Eswara Reddy,B,A Rao,A Suresh,V Vijaya,Kumar (2007). Texture Classification by Simple Patterns on Edge Direction Movements.
  15. Timo Ahonen,Abdenour Hadid,Matti Pietikäinen (2004). Face Recognition with Local Binary Patterns.
  16. T Ahonen,M Pietikainen,A Hadid,T Maenpaa (2004). Face recognition based on the appearance of local regions.
  17. Xiaoyi Feng,Abdenour Hadid,Matti Pietikäinen (2004). A Coarse-to-Fine Classification Scheme for Facial Expression Recognition.
  18. X Feng,M Pietikäinen,A Hadid (2005). Facial expression recognition based on local binary patterns.
  19. A Hadid,M Pietikainen,T Ahonen (2004). A Discriminative Feature Space for Detecting and Recognizing Faces.
  20. M Galloway (1975). Texture analysis using gray level run lengths.
  21. G Jiji,L Ganesan (2010). A new approach for unsupervised segmentation.
  22. Wiselin Jiji,G Ganesan,L (2007). Colour texture classification for Human Tissue Images.
  23. A Chu,C Sehgal,J Greenleaf (1990). Use of gray value distribution of run lengths for texture analysis.
  24. V Belur,Edwin Dasarathy,Holder (1981). Image characterizations based on joint gray level-run length distributions.
  25. A Faisal Ahmed,Emam Hossain Bari,Chin-Chen Hossain ; Kaun Chan,Chang (2001). Compound Local Binary Pattern (CLBP) for Facial Expression Recognition.
  26. M Srinivasa Rao,V Vijaya Kumar,Mhm Krishna Prasad (2008). Texture Classification based on First Order Local Ternary Direction Patterns.
  27. U Raju,V Vijaya Kumar,A Suresh,M Radhika Mani (2008). Texture Description using Different Wavelet Transforms Based on Statistical Parameters.
  28. L Van Gool,P Dewaele,A Oosterlinck (1985). Texture analysis Anno 1983.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

U Ravi Babu. 2013. \u201cTexture Analysis and Classification Based on Fuzzy Triangular Greylevel Pattern and Run-Length Features\u201d. Global Journal of Computer Science and Technology - F: Graphics & Vision GJCST-F Volume 12 (GJCST Volume 12 Issue F15): .

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GJCST Volume 12 Issue F15
Pg. 17- 23
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Crossref Journal DOI 10.17406/gjcst

Print ISSN 0975-4350

e-ISSN 0975-4172

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January 5, 2013

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English

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Your Texture analysis is one of the most important techniques used in the analysis and interpretation of images, consisting of repetition or quasi repetition of some fundamental image elements. The present paper derived Fuzzy Triangular Greylevel Pattern (FTGP) to overcome the disadvantages of LBP and other local approaches. The FTGP is a 2 x 2 matrix that is derived from a 3 x 3 neighborhood matrix. The proposed FTGP scheme reduces the overall dimension of the image while preserving the significant attributes, primitives, and properties of the local texture. From each 3 x 3 matrix a Local Grey level Matrix (LGM) is formed by subtracting local neighborhoods by the gray value of its center. The 2 x 2 FTGP is generated from LGM by taking the average value of the Triangular Neighbor Pixels (TNP) of the 3 x 3 LGM. A fuzzy logic is applied to convert the Triangular Neighborhood Matrix (TNM) in to fuzzy patterns with 5 values {0, 1, 2, 3 and 4} instead of patterns of LBP which has two values {0, 1}. On these fuzzy patterns a set of Run Length features are evaluated for an efficient classification. The proposed method is experimented with wide variety of textures, and exhibited with a high classification rate. The proposed FTGP with run length features shown its supremacy and efficacy over the various existing methods in classification of textures.

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Texture Analysis and Classification Based on Fuzzy Triangular Greylevel Pattern and Run-Length Features

U Ravi Babu
U Ravi Babu Research Schalor AN University
Dr. V Vijaya Kumar
Dr. V Vijaya Kumar
J Sasi Kiran
J Sasi Kiran

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