The state of one’s nails can be uniquely and easily accessed by examining nail deficiencies, which may be a sign of vitamin imbalances. The limits of current diagnostic approaches, which can be time-consuming and include intrusive procedures, often result in the prevalence of micronutrient deficiencies being ignored. This research offers a fresh strategy for effective detection that makes use of cutting-edge image processing methods. Precise identification of anomalies associated with micronutrients is made possible by the application of UNet-based image segmentation to fingernail pictures. Next, an extensive image categorization is carried out with the use of well-known models like VGG16, ResNet50, and Efficient Net, combining transfer learning and fine-tuning techniques. By addressing the drawbacks of conventional approaches, this integrated methodology seeks to improve the speed and accuracy of micronutrient insufficiency detection. This study uses state-of-the-art technology to help develop a non-invasive, time-saving diagnostic tool that could transform the field of nutritional evaluations and encourage early intervention for better public health outcomes.

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Cutting-Edge Diagnostics: Transfer Learning and U-Net-Based Segmentation for Micronutrient Deficiency Identification in Fingernails

  • Ashok Reddy Kandula,
  • Sure Venkata Subramanyasai Yaswanth,
  • Ramu Kurella,
  • Venkat Raman Morla

摘要

The state of one’s nails can be uniquely and easily accessed by examining nail deficiencies, which may be a sign of vitamin imbalances. The limits of current diagnostic approaches, which can be time-consuming and include intrusive procedures, often result in the prevalence of micronutrient deficiencies being ignored. This research offers a fresh strategy for effective detection that makes use of cutting-edge image processing methods. Precise identification of anomalies associated with micronutrients is made possible by the application of UNet-based image segmentation to fingernail pictures. Next, an extensive image categorization is carried out with the use of well-known models like VGG16, ResNet50, and Efficient Net, combining transfer learning and fine-tuning techniques. By addressing the drawbacks of conventional approaches, this integrated methodology seeks to improve the speed and accuracy of micronutrient insufficiency detection. This study uses state-of-the-art technology to help develop a non-invasive, time-saving diagnostic tool that could transform the field of nutritional evaluations and encourage early intervention for better public health outcomes.