Edge and boundary detection of fetal heart images using optimization algorithms for feature extraction and measurement
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Abstract
In general, imaging analysis of fetal heart images through concave region
newlineclusters the image with respect to time and frequency domain. The clustering is carried
newlineout through optimization algorithms that reduces the error in images and delineate
newlinethem with high accuracy. The high accuracy of images in turn leads to high contrast in
newlinefetal heart images. Moreover, the fetal heart image is clustered and quantified with
newlineground truth verification rule. In this research work, the fetal heart image is optimized
newlinethrough nature inspired algorithms such as GA, FCM, PSO, CSO and FFO clustering
newlinein the solution space.
newlineThe genetic algorithm clusters the fetal heart image through concave region
newlineand delineate the pixel with high accuracy and GA clusters through the population of
newlinenature inspired algorithm. The GA finds the fitness or intensity of the pixel through the
newlinepopulation in the solution space and finds suggested size, shape and intensity in the
newlinesolution space. Finally, the algorithm improves the overall accuracy through the
newlineconcave region in the feasible solution space.
newlineThe FCM method cluster the fetal heart image with size and shape through the
newlineconcave region. The clustered fetal heart image is optimized in the solution space.
newlineThe fuzzy c-means clustering algorithm delineate the pixel with high contrast and also
newlinefinds the edge detection in the fetal heart image. The overall accuracy of clustered
newlinefetal heart image is about 70%. The c-means clustering algorithm also analyses the
newlineedge and boundary.
newlineThe edge and boundary detection of fetal heart image using the particle swarm
newlineoptimization algorithm is proposed in the present research work. The approach
newlineidentifies the centroids of clusters that are normally in user specified numbers with
newlinesimilar image features and every cluster groups together. The proposed algorithm is
newlinevalidated for broad applicability using MRI and synthetic images of fetal heart.