Abstract

Liver disease is one of the most prominent causes of the increase in the death rate worldwide. These death rates can be reduced by early liver diagnosis. Computed tomography (CT) is a method for the analysis of liver images in clinical practice. To analyze a large number of liver images, radiologists face problems that sometimes lead to the wrong classifications of liver diseases, eventually resulting in severe conditions, such as liver cancer. Thus, a machine-learning-based method is needed to classify such problems based on their texture features. This paper suggests two different kinds of algorithms to address this challenging task of liver disease classification. Our first method, which is based on conventional machine learning, uses texture features for classification. This method uses conventional machine learning through automated texture analysis and supervised machine learning methods. For this purpose, 3000 clinically verified CT image samples were obtained from 71 patients. Appropriate image classes belonging to the same disease were trained to confirm the abnormalities in liver tissues by using supervised learning methods. Our proposed method correctly quantified asymmetric patterns in CT images using machine learning. We evaluated the effectiveness of the feature vector with the K Nearest Neighbor (KNN), Naive Bayes (NB), Support Vector Machine (SVM), and Random Forest (RF) classifiers. The second algorithm proposes a semantic segmentation model for liver disease identification. Our model is based on semantic image segmentation (SIS) using a convolutional neural network (CNN). The model encodes high-density maps through a specific guided attention method. The trained model classifies CT images into five different categories of various diseases. The compelling results obtained confirm the effectiveness of the proposed model. The study concludes that abnormalities in the human liver could be discriminated and diagnosed by texture analysis techniques, which may also assist radiologists and medical physicists in predicting the severity and proliferation of abnormalities in liver diseases.

Highlights

  • The liver is an essential organ with a weight of nearly 1.5 kg and making up 2% of the mass of the whole body

  • Some relevant articles that we found on the topic are listed in [12,13,14,15,16,17,18]

  • An ROI is a segment of an image containing details that assist in specific liver diagnoses. n ROI works as an essential image representation for advanced disease diagnoses, so selecting such image regions is an important task

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Summary

Introduction

The liver is an essential organ with a weight of nearly 1.5 kg and making up 2% of the mass of the whole body. The liver is called the chemical plant of the body [1]. According to a report by the WHO, 62.6% of deaths are due to liver diseases, of which 54.3% are due to cirrhosis; more than two-thirds of the world’s problems with the disease acute hepatitis occur in this particular area [2]. According to a WHO report [3], in the region of Asia, cirrhosis is the prominent cause of death due to liver diseases. In 2016, nearly 399,000 people died due to different liver diseases, e.g., cirrhosis, hepatocellular carcinoma, and hepatitis C. The WHO has made a strategy to declare liver disease a public health problem

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