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Detection of Cancer Cell and Tumor from MRI Image Using a

                     Hybrid Approach – A Conceptual Framework

                                                                               b
                                                a*
                         A F M Saifuddin Saif , Zainal Rasyid Mahayuddin
                         a  Department of Computer Science, American International University - Bangladesh.
                   b Faculty of Information Science and Technology, University Kebangsaan Malaysia, Selangor, Malaysia
                                          *Email: rashedcse25@yahoo.com

        Abstract

        Cancer is one of the deadliest diseases among all other diseases of human beings. Various types of methods for segmentation
        and detection of cancer cell or tumor were proposed by previous research. Among these methodologies of detection and
        segmentation, most of the previous methods can detect tumors or cancer cell accurately but have problems such as too
        complex computations for normal computers to process. In addition, some methods are unable to detect or draw out the
        region of the tumor with above 90% to 100% accuracy which is much needed for safe surgery. In this context, Magnetic
        Resonance Imaging (MRI) is an effective tool for cancer detection in recent years. This research proposes a conceptual
        framework for cancer cell and tumor detection from MRI images. For improved classification this research intends to use
        convolutional neural network. In addition, adaptive histogram equalization (CLAHE) is proposed to provide noise free
        images for improved performance of the overall methodology. Proposed conceptual framework is expected to provide robust
        solution as improved segmentation and detection of cancer cell and tumor from MRI images.

        Keywords: Segmentation; Convolutional neural network; MRI images


        1. Introduction

           Cancer is a dense and abnormal cells proliferation in the body tissue. Cancer cells do not have the longer
        respond to some or many of the signals that mainly control cellular growth and death. Researchers proposed
        various methods for detecting cancer, i.e. Magnetic Resonance Imaging (MRI), microwave imaging, film-screen
        mammography. MRI is one of the most significant technology of cancer imaging for its accuracy. There are
        also some significant deep learning and  machine-learning  algorithms also proposed by  the researchers, i.e.
        convolutional  neural network (CNN) etc. This research proposes a conceptual framework  where denoising
        approaches are considered and convolution neural network is intended to used for classification of tumor from
        input image. For pre-processing, this research intends to use adaptive thresholding for foreground extraction
        and adaptive histogram equalization method for image contrasting. The histogram equalization operation is
        considered to enhance the contrast of the image.
           Rest  of  this  paper  is  organized  as  follows.  Section  2  presents  core  research  background,  section  3
        demonstrates conceptual framework proposed by this research, section 4 illustrates proposed experimentation
        evaluation approach for the proposed conceptual framework, finally concluding remarks are presented in section
        5.

        2. Background Study

           Cancer and tumor detection is a significant research in modern biomedical and computer vision research
        domain. Researchers proposed various methods for detection of cancer and tumor in modern technology, i.e.
        Microwave imaging, MRI, Film-screen mammography. MRI is mostly used for tumor detection. In this context,







        E- Proceedings of The 5th International Multi-Conference on Artificial Intelligence Technology (MCAIT 2021)   [91]
        Artificial Intelligence in the 4th Industrial Revolution
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