Brain tumor visualization for magnetic resonance images using modified shape-based interpolation method
3D visualization plays an essential role in medical diagnosis and setting treatment plans especially for brain cancer. There have been many attempts for brain tumor reconstruction and visualization using various techniques. However, this problem is still considered unsolved as more accurate results...
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Veröffentlicht in: | International journal of electrical and computer engineering (Malacca, Malacca) Malacca), 2022-06, Vol.12 (3), p.2553 |
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container_title | International journal of electrical and computer engineering (Malacca, Malacca) |
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creator | El-Torky, Dina Mohammed Sherif Roushdy, Mohamed Ismail Al-Berry, Maryam Nabil Abd El-Mageed Salem, Mohammed |
description | 3D visualization plays an essential role in medical diagnosis and setting treatment plans especially for brain cancer. There have been many attempts for brain tumor reconstruction and visualization using various techniques. However, this problem is still considered unsolved as more accurate results are needed in this critical field. In this paper, a sequence of 2D slices of brain magnetic resonance Images was used to reconstruct a 3D model for the brain tumor. The images were automatically segmented using a wavelet multi-resolution expectation maximization algorithm. Then, the inter-slice gaps were interpolated using the proposed modified shape-based interpolation method. The method involves three main steps; transferring the binary tumor images to distance images using a suitable distance function, interpolating the distance images using cubic spline interpolation and thresholding the interpolated values to get the reconstructed slices. The final tumor is then visualized as a 3D isosurface. We evaluated the proposed method by removing an original slice from the input images and interpolating it, the results outperform the original shape-based interpolation method by an average of 3% reaching 99% of accuracy for some slice images. |
doi_str_mv | 10.11591/ijece.v12i3.pp2553-2563 |
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There have been many attempts for brain tumor reconstruction and visualization using various techniques. However, this problem is still considered unsolved as more accurate results are needed in this critical field. In this paper, a sequence of 2D slices of brain magnetic resonance Images was used to reconstruct a 3D model for the brain tumor. The images were automatically segmented using a wavelet multi-resolution expectation maximization algorithm. Then, the inter-slice gaps were interpolated using the proposed modified shape-based interpolation method. The method involves three main steps; transferring the binary tumor images to distance images using a suitable distance function, interpolating the distance images using cubic spline interpolation and thresholding the interpolated values to get the reconstructed slices. The final tumor is then visualized as a 3D isosurface. 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subjects | Algorithms Brain Brain cancer Critical field (superconductivity) Image reconstruction Interpolation Magnetic resonance imaging Medical imaging Three dimensional models Tumors Visualization |
title | Brain tumor visualization for magnetic resonance images using modified shape-based interpolation method |
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