Image Retrieval based on Macro Regions

1
V Vijaya Kumar
V Vijaya Kumar
2
BIBI.NASREEN
BIBI.NASREEN
3
A.OBULESU
A.OBULESU
1 Anurag Group of Institutions, Hyderabad, India

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Various image retrieval methods are derived using local features, and among them the local binary pattern (LBP) approach is very famous. The basic disadvantage of these methods is they completely fail in representing features derived from large or macro structures or regions, which are very much essential to represent natural images. To address this multi block LBP are proposed in the literature. The other disadvantage of LBP and LTP based methods are they derive a coded image which ranges 0 to 255 and 0 to 3561 respectively. If one wants to integrate the structural texture features by deriving grey level co-occurrence matrix (GLCM), then GLCM ranges from 256 x 256 and 3562 x 3562 in case of LBP and LTP respectively.

53 Cites in Articles

References

  1. H Mohamadi,A Shahbahrami,J Akbari (2013). Image retrieval using the combination of text-based and content-based algorithms.
  2. S Pabboju,R (2009). A Novel Approach For Content-Based Image Global and Region Indexing and Retrieval System Using Features.
  3. X Li,L Shou,G Chen,T Hu,J Dong (2008). Modelling Image Data for Effective Indexing and Retrieval In Large General Image Database.
  4. Osama El Demerdash,Leila Kosseim,Sabine Bergler (2008). Text-Based Clustering of the ImageCLEFphoto Collection for Augmenting the Retrieved Results.
  5. K Sia,Irwin King (2002). Relevance feedback based on parameter estimation of target distribu-tion.
  6. Simon Tong,Edward Chang (2001). Support vector machine active learning for image retrieval.
  7. K Jisha.,Bella Thusnavis,Vasuki A. (2013). An image retrieval technique based on texture features using semantic properties.
  8. A Swati Agarwal,Preetvanti Verma,Singh Content Based Image Retrieval using Discrete Wavelet Transform and Edge Histogram Descriptor.
  9. Xiang-Yang Wang,Hong-Ying Yang,Dong-Ming Li (2013). A new content-based image retrieval technique using color and texture information.
  10. Heng Chen (2010). an effective relevance feedback algorithm for image retrieval.
  11. Monika Daga,Kamlesh Lakhwani (2013). A Novel Content Based Image Retrieval Implemented By NSA Of AIS.
  12. S Nandagopalan,C Dhanalakshmi,B Adiga,N Deepak (2010). Color doppler echocardiographic image analysis via shape and texture features.
  13. ROI Image Retrieval Based on the Spatial Structure of Objects.
  14. H Yamamoto,H Iwasa,N Yokoya,H Takemura Content-Based Similarity Retrieval of Images Based on Spatial Color Distributions.
  15. Y Venkateswarlu,B Sujatha,V Vijaya Kumar (2012). Extraction of Texture Information from Fuzzy Run Length Matrix.
  16. V Vijaya Kumar,B Reddy,U Raju,K Chandra Sekharan (2007). An innovative technique of texture classification and comparison based on long linear patterns.
  17. M Srinivasa Rao,V Vijaya Kumar,Mhm Krishna Prasad (2009). Texture Classification based on First Order Local Ternary Direction Patterns.
  18. V Vijaya Kumar,K Srinivasa,V Reddy,Krishna Venkata (2015). Face Recognition Using Prominent LBP Model.
  19. M Chandra Mohan,V Vijaya,U Kumar,Raju (2009). New face recognition method based on texture features using linear wavelet transforms.
  20. P Chandra Sekhar Reddy,B Reddy,V Vijaya,Kumar (2013). Fuzzy based image dimensionality reduction using shape primitives for efficient face recognition.
  21. Gorti V Vijaya Kumar,P Satyanaraya Murty,V V S R Kumar (2014). Classification of facial expressions based on transitions derived from third order neighborhood LBP.
  22. G S Murty,V Sasikiran,Vijaya,Kumar (2014). Facial expression recognition based on features derived from the distinct LBP and GLCM.
  23. V Kumar,Saka Kezia,I Santi,Prabha (2013). A new texture segmentation approach for medical images.
  24. V Vijaya Kumar,U Raju,M Radhika,A Mani,Rao (2008). Wavelet based texture segmentation methods based on combinatorial of morphological and statistical operations.
  25. I Saka Kezia,V Santi Prabha,Vijaya,Kumar (2013). A color-texture based segmentation method to extract object from background.
  26. Ng Rao,Rao Novel Approaches of evaluating Texture Based Similarity Features for Efficient Medical Image Retrieval System.
  27. Obulesu,Jskiran,Kumar (2015). Facial image retrieval based on local and regional features.
  28. V Kumar,A Rao,Y Sundara Krishna (2015). Dual Transition Uniform Lbp Matrix for Efficient Image Retrieval.
  29. N Vijaya Kumar,A Rao,And Rao,Venkata Krishna4 (2009). IHBM: Integrated histogram bin matching for similarity measures of color image retrieval.
  30. G Hadid,Zhao (2011). Computer vision using local binary patterns.
  31. T Ojala,M Pietikainen,T Maenpaa (2002). Multiresolution gray-scale and rotation invariant texture classification with local binary patterns.
  32. X Tan,B Triggs (2010). Enhanced local texture feature sets for face recognition under difficult lighting conditions.
  33. B Zhang,Y Gao,S Zhao,J Liu (2010). Local derivative pattern versus local binary pattern: face recognition with high-order local pattern descriptor.
  34. Shiv Dubey,Satish Singh,Rajat Singh (2014). Rotation and Illumination Invariant Interleaved Intensity Order-Based Local Descriptor.
  35. S Murala,R Maheshwari,R Bala Subramanian (2012). Local tetra patterns: a new feature descriptor for content-based image retrieval.
  36. Sanqiang Zhao,Yongsheng Gao,Baochang Zhang (2008). Sobel-LBP.
  37. Junding Sun,Guoliang Fan,Xiaosheng Wu (2013). New local edge binary patterns for image retrieval.
  38. Kyungjoong Jeong,Jaesik Choi,Gil-Jin Jang (2015). Semi-Local Structure Patterns for Robust Face Detection.
  39. Subrahmanyam Murala,Q Jonathan Wu (2015). Spherical symmetric 3D local ternary patterns for natural, texture and biomedical image indexing and retrieval.
  40. A James (2013). One-sample face recognition with local similarity decisions.
  41. X Tan,B Trigs (2010). Enhanced local texture feature set for face recognition under difficult lightening conditions, Image Processing.
  42. S Liao,X Zhu,Z Lei,L Zhang (2007). Learning multi scale block local binary patterns for face recognition.
  43. V Vijaya Kumar,K Srinivasa,Reddy (2016). Face Recognition Using Multi Region Prominent Lbp Representation.
  44. R Haralick,K Shanmugan,I Dinstein (1973). Textural features for image classification.
  45. Ross Walker (1997). Adaptive multi-scale texture analysis : with application to automated cytology.
  46. B Julesz (1962). Visual Pattern Discrimination.
  47. M Trivedi,R Haralick,R Conners,S Goh (1984). Object Detection based on Gray Level Coocurrence.
  48. R Conners,M Trivedi,C Harlow (1984). Segmentation of a High Resolution Urban Scene using Texture Operators.
  49. M Iizulca (1987). Quantitative evaluation of similar images with quasi-gray levels.
  50. L Siew,R Hodgson,E Wood (1988). Texture measures for carpet wear assessment.
  51. R Conners,C Harlow (1980). A theoretical comparison of texture algorithms.
  52. K Jarrah,S Krishnan,L Guan (2006). Automatic contentbased image retrieval using hierarchical clustering algorithms.
  53. Ms,Prof Urvashi Chavan1,Shahane2 (2014). Content Based Image Retrieval Using Clustering.

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.

V Vijaya Kumar. 2016. \u201cImage Retrieval based on Macro Regions\u201d. Global Journal of Computer Science and Technology - F: Graphics & Vision GJCST-F Volume 16 (GJCST Volume 16 Issue F3): .

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GJCST Volume 16 Issue F3
Pg. 25- 36
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Crossref Journal DOI 10.17406/gjcst

Print ISSN 0975-4350

e-ISSN 0975-4172

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GJCST-F Classification: I.3.3, B.4.2, H.2.8
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December 17, 2016

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Various image retrieval methods are derived using local features, and among them the local binary pattern (LBP) approach is very famous. The basic disadvantage of these methods is they completely fail in representing features derived from large or macro structures or regions, which are very much essential to represent natural images. To address this multi block LBP are proposed in the literature. The other disadvantage of LBP and LTP based methods are they derive a coded image which ranges 0 to 255 and 0 to 3561 respectively. If one wants to integrate the structural texture features by deriving grey level co-occurrence matrix (GLCM), then GLCM ranges from 256 x 256 and 3562 x 3562 in case of LBP and LTP respectively.

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Image Retrieval based on Macro Regions

V Vijaya Kumar
V Vijaya Kumar
BIBI.NASREEN
BIBI.NASREEN
A.OBULESU
A.OBULESU

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