This study delves into the vital role of the kidneys in maintaining physiological balance, emphasizing their impact on fluid regulation, waste elimination, and broader systemic functions. Additionally, it explores the significance of Kidney Essence in cognitive and physical well-being within the context of Medicine. The text underscores the wide-reaching consequences of kidney dysfunction, affecting not only the renal system but also influencing cardiovascular, skeletal, and immunological systems. Beyond these physiological domains, the kidneys bear regulatory authority over the pelvic orifices, encompassing the urethral and spermatic duct in males and the genital tract in females. Furthermore, the kidneys orchestrate processes spanning childbirth, fetal development, puberty, fertility, menopause, aging, and mortality. This comprehensive review underscores the indispensability of renal function, delineating its multifaceted roles and the systemic implications ensuing from its aberrations. Traditional diagnostic methods for kidney diseases are both expensive and time-consuming, prompting an exploration of machine learning algorithms as efficient alternatives. Focusing on the Chronic Kidney Dataset from the UCI repository, this research employs various machine learning models, including boosting, KNN, decision trees, and random forests. By integrating dimensionality reduction principles, the study produces a robust predictive model. Notably, the results showcase high accuracy, with decision trees achieving 96%, random forests achieving 97.5%, and extra tree classifiers achieving an impressive 99.167%. These findings hold significant promise for practical applications, establishing this study as a pioneering contribution to kidney disease classification.

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

Elevating Kidney Disease Classification: Up-Sampling, and Dimensionality Reduction Magic

  • Tirtharaj Sen,
  • Pranabes Gangopadhyay,
  • Janhabi Mukherjee,
  • Hrick Karna Roy,
  • Bidesh Chakraborty

摘要

This study delves into the vital role of the kidneys in maintaining physiological balance, emphasizing their impact on fluid regulation, waste elimination, and broader systemic functions. Additionally, it explores the significance of Kidney Essence in cognitive and physical well-being within the context of Medicine. The text underscores the wide-reaching consequences of kidney dysfunction, affecting not only the renal system but also influencing cardiovascular, skeletal, and immunological systems. Beyond these physiological domains, the kidneys bear regulatory authority over the pelvic orifices, encompassing the urethral and spermatic duct in males and the genital tract in females. Furthermore, the kidneys orchestrate processes spanning childbirth, fetal development, puberty, fertility, menopause, aging, and mortality. This comprehensive review underscores the indispensability of renal function, delineating its multifaceted roles and the systemic implications ensuing from its aberrations. Traditional diagnostic methods for kidney diseases are both expensive and time-consuming, prompting an exploration of machine learning algorithms as efficient alternatives. Focusing on the Chronic Kidney Dataset from the UCI repository, this research employs various machine learning models, including boosting, KNN, decision trees, and random forests. By integrating dimensionality reduction principles, the study produces a robust predictive model. Notably, the results showcase high accuracy, with decision trees achieving 96%, random forests achieving 97.5%, and extra tree classifiers achieving an impressive 99.167%. These findings hold significant promise for practical applications, establishing this study as a pioneering contribution to kidney disease classification.