Research Article

[Retracted] Object-Based Image Retrieval Using the U-Net-Based Neural Network

Table 1

Comparison of the existing image retrieval techniques.

S. no.AuthorYearMethod/methodologyComments

1Liying and Lirong [13]2017Scale-invariant feature transform (SIFT)Performs retrieval on more than a single query to increase the retrieval accuracy.
Convolutional neural network (CNN)

2Dhotre et al. [4]2017The color feature extracted through CHRIR and wavelet transform performed using multilevel Haar wavelet transform (MHWT)Proved to be a faster retrieval method on an image database with one of the physical features. Works more accurately with increased retrieval speed and minimized time.

3Jayanthi and Karthikeyan [2]2015FCTH, CEDD, HWT, and DWT using fuzzy linking and Gabor filtersDatabase with 1000 color images results in better recall and average precision of retrieval.

4Thepade and Shinde [3]2015Haar wavelet transforms with Canny edge detection based on shape features using gradient techniques such as Prewitt, Laplace, and Sobel, and the slope magnitude technique with the Manhattan similarity functionDatabase with 350 color images
Frei-Chen and Sobel give better performance than the other algorithms that used Canny implementation.

5Jayanthi and Karthikeyan [2]2015HWT and DWT using Gabor filters and fuzzy linkingGives good results in average precision and recall value.

6Gupta and Kushwah [8]2015Haar discrete wavelet transform (H-DWT), gray level co-occurrence matrix (GLCM)Improved results in comparison with previous methods.
Support vector machine (SVM)

7Agarwal et al. [5]2014Used color edge detection and DWTDatabase used was Wang’s image database. Gave high precision and recall values.

8Agarwal et al. [5]2014Color edge detection, DWTHigh precision and recall indicate an exemplary retrieval system
Canny edge detection

9Ying Chen and Wu [6]2011Uses optical flow to extract the information from the video; extraction process with Haar waveletLocates the feature almost near the query point using index values.

10Chatzichristofis et al. [7]2010The method based on color and edge directivity descriptor (CEDD)Demonstrated successful retrieval on benchmark datasets.
Utilizes the binary Haar wavelet transform for extraction

11Quellec et al. [12]2010The multidimensional wavelet filter bankCan be used in a different dimension of signal and different lattices.

12Verma et al. [1]2009Texture analysis-based schemeOwn dataset with 100 color images of size 256 × 256 pixels each. Accuracy up to 73%.
I level Haar wavelet used for image decomposition F-norm theory to decrease the dimension of the extracted feature; fuzzy logic similarity measure used

13Huang et al. [10]2005Lifting scheme F-norm theoryGood at retrieval.

14Wong et al. [9]2005AdaBoost-based face defection method and the lifting wavelet transform (LFWT) techniqueEfficient with small memory to detect the face. Suits best for multimedia applications

15Munjal and Bhatia [17]2019UCID dataset used, CEDD and Gabor wavelet transform (GWT) for feature vectorAccuracy = 91.9%.

16Varish et al. [18]2020Fusion of histograms of gradients and invariant moments, Corel 1K and GHIM-10K dataset used for validationPrecision = 89% and 90%.
Recall = 17.80% and 3.60.
F-score = 29.49% and 6.92%.

17Wadhera and Agarwal [19]20203D center symmetric LBP + Gaussian filter + gray level co-occurrence matrix (GLCM), STex texture, and ESSEX face databasePrecision = 61% and 97.4%.
Retrieval rate = 97.4%.

18Ajam et al. [20]2019LBP + HSV + entropy, Corel 10K and Corel 5K databases usedRetrieval rate = 59.51% and 49.13%.

19Xiaobo et al. [21]2021Adaptive threshold + directional LBP, and Corel 1K databasePrecision = 67.63%.