This effort aims to give a rapid and accurate way to diagnose brain tumors using machine learning (ML) techniques. Early identification is key to successful treatment for brain tumors, which pose a major health risk. Some of the stages involved in this work include preprocessing MRI pictures to improve their quality, removing distracting items, and then using these characteristics to train and evaluate several machine learning models. The preprocessing step include normalization, denoising, and feature extraction techniques including texture analysis and wavelet transform. using a wealth of information on both benign and malignant brain tumors for implementation and training. K-Nearest Neighbors (KNN), Support Vector Machines (SVM), Naive Bayes, Decision Trees, and Logistic Regression are among the courses we are putting into practice and closely assessing. The approach uses machine learning to recognize complex patterns and relationships in images, enabling accurate tumor categorization. The technology performed well, detecting brain activity with an accuracy rate of 98.78%. The findings of this study will significantly impact treatment and provide reliable tools for early brain cancer identification. This will lead to better patient care and treatment planning. Our flexible approach ensures that the diagnosis is relevant to its evolution and is easy to adapt to the latest advancements. To sum up, our work provides a trustworthy machine learning-based approach to using multimodal imaging data to identify brain tumors early. The suggested approach can help doctors make prompt and precise diagnosis because of its high sensitivity and accuracy. Its incorporation into clinical practice can enhance therapeutic efficacy and improve patient outcomes.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Brain Tumor Detection Using ML Techniques Based on HOG and SVM

  • N. Gopinath,
  • Saket Srikanti

摘要

This effort aims to give a rapid and accurate way to diagnose brain tumors using machine learning (ML) techniques. Early identification is key to successful treatment for brain tumors, which pose a major health risk. Some of the stages involved in this work include preprocessing MRI pictures to improve their quality, removing distracting items, and then using these characteristics to train and evaluate several machine learning models. The preprocessing step include normalization, denoising, and feature extraction techniques including texture analysis and wavelet transform. using a wealth of information on both benign and malignant brain tumors for implementation and training. K-Nearest Neighbors (KNN), Support Vector Machines (SVM), Naive Bayes, Decision Trees, and Logistic Regression are among the courses we are putting into practice and closely assessing. The approach uses machine learning to recognize complex patterns and relationships in images, enabling accurate tumor categorization. The technology performed well, detecting brain activity with an accuracy rate of 98.78%. The findings of this study will significantly impact treatment and provide reliable tools for early brain cancer identification. This will lead to better patient care and treatment planning. Our flexible approach ensures that the diagnosis is relevant to its evolution and is easy to adapt to the latest advancements. To sum up, our work provides a trustworthy machine learning-based approach to using multimodal imaging data to identify brain tumors early. The suggested approach can help doctors make prompt and precise diagnosis because of its high sensitivity and accuracy. Its incorporation into clinical practice can enhance therapeutic efficacy and improve patient outcomes.