The use of deep learning in cancer detection has the potential to lead to more precise and timely diagnosis. In order to identify cancer, this study presents a deep learning-based picture categorization strategy. There are three steps to the process: gathering relevant data, training a model, and predicting a picture. Acquiring and preprocessing a set of high-resolution cancer photos for uniformity in dimensions, file type, and color space constitutes the data preparation step. The dataset size may be increased and the model's generalization ability can be enhanced by using data augmentation approaches. Model training involves applying a suitable optimizer and loss function to a deep learning model that has already been pre-trained, such as MobileNet or ResNet, using the supplemented dataset. Overfitting is prevented by constantly checking the model's performance. The model's generalizability is measured by comparing it to data from a validation set. Users' own photographs are used in the image prediction step after being preprocessed to meet the input format requirements of the trained model. From the provided photos, the model determines which sort of cancer is most likely present. The user receives brief and unambiguous feedback regarding the precision of their forecasts. Python is utilized in conjunction with a deep learning and image processing framework, such as TensorFlow or Keras, during the system development process. The UI is created using graphical user interface libraries and web development frameworks. For every type of cancer, the accuracy, precision, recall, and Fl-score of the system are compared to industry standards. This strategy's main objective is to offer a reliable and userfriendly tool for cancer classification.
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B et al. (2024) studied this question.
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