DEEP LEARNING FOR BRAIN TUMOR DETECTION: ADVANCEMENTS AND APPLICATIONS
Keywords:
Investigation, pixels, algorithms, tumoursAbstract
When it comes to medical imaging, brain tumour
segmentation is a particularly challenging and
crucial endeavour. This is because manual
categorization can lead to inaccurate prognosis and
diagnosis. It's also a lot of effort when there's a lot
of data to work with. In photographs, it's difficult to
tell the difference between a brain tumour and
normal tissue because both have a wide variety of
appearances and are so similar. Fuzzy C-Means
was used in this study to remove brain tumours
from two-dimensional MRI images, which was
then followed by classical classifiers and also cnn.
There were tumours of various sizes, shapes and
intensities included in the dataset used in the study.
The scikit-learn library's classic classifier used
SVM, KNN, MLP, LR, Naive Bayes, and Random
Forest as well as other well-known machine
learning
algorithms.
Convolutional
Neural
Networks (CNN) were then examined, which are
better at predicting outcomes than standard neural
networks developed with Keras or Tensorflow. Our
analysis found that CNN's accuracy percentage was
97.87%. The primary goal of this investigation is to
use statistical and textural data to discriminate
between normal and aberrant pixels.
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