Efficient liver segmentation with 3D CNN using computed tomography scans
- URL: http://arxiv.org/abs/2208.13271v1
- Date: Sun, 28 Aug 2022 19:02:39 GMT
- Title: Efficient liver segmentation with 3D CNN using computed tomography scans
- Authors: Khaled Humady, Yasmeen Al-Saeed, Nabila Eladawi, Ahmed Elgarayhi,
Mohammed Elmogy, Mohammed Sallah
- Abstract summary: Liver diseases due to liver tumors are one of the most common reasons around the globe.
Many imaging modalities can be used as aiding tools to detect liver tumors.
This paper proposed an efficient automatic liver segmentation framework to detect and segment the liver out of CT abdomen scans.
- Score: 0.0
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: The liver is one of the most critical metabolic organs in vertebrates due to
its vital functions in the human body, such as detoxification of the blood from
waste products and medications. Liver diseases due to liver tumors are one of
the most common mortality reasons around the globe. Hence, detecting liver
tumors in the early stages of tumor development is highly required as a
critical part of medical treatment. Many imaging modalities can be used as
aiding tools to detect liver tumors. Computed tomography (CT) is the most used
imaging modality for soft tissue organs such as the liver. This is because it
is an invasive modality that can be captured relatively quickly. This paper
proposed an efficient automatic liver segmentation framework to detect and
segment the liver out of CT abdomen scans using the 3D CNN DeepMedic network
model. Segmenting the liver region accurately and then using the segmented
liver region as input to tumors segmentation method is adopted by many studies
as it reduces the false rates resulted from segmenting abdomen organs as
tumors. The proposed 3D CNN DeepMedic model has two pathways of input rather
than one pathway, as in the original 3D CNN model. In this paper, the network
was supplied with multiple abdomen CT versions, which helped improve the
segmentation quality. The proposed model achieved 94.36%, 94.57%, 91.86%, and
93.14% for accuracy, sensitivity, specificity, and Dice similarity score,
respectively. The experimental results indicate the applicability of the
proposed method.
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