Real-time Non-invasive Blood Glucose Monitoring using Advanced Machine Learning Techniques

L. Jenitha Mary, V. Vijayashanthi, M. Parameswari, E. Venitha, T. A. Mohanaprakash, S. D. Hariharan
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Abstract

When left untreated, diabetes, a chronic ailment that affects a vast number of people overall, might result in major unanticipated problems. The risk of complications can be completely reduced and considerable improvements can be achieved with early detection of diabetes. Recently, the use of wearable technology has emerged as a potential tool for diagnosing and checking illnesses. Smartwatches with bioactive sensors are perfect for diabetes screening because they can provide continuous, painless monitoring of bodily vitals. This paper suggests a methodology for building a hybrid AI model to detect the existence of diabetes using patient data. The system combines body vitals calculated using a smartwatch equipped with a bioactive sensor to provide accurate and continuous information on the wearer’s health state. The hybrid model combines both deep learning and traditional AI computations to achieve a high level of accuracy while diagnosing diabetes. The framework collects data on many bodily parameters, including skin conductance, circulatory strain, and pulse — all of which are known to be strongly associated with diabetes. The acquired data is pre-processed before being utilized to create the hybrid model. The standard AI calculation is used to classify the information into diabetes or non-diabetic categories, while the profound learning calculation is used to eliminate important level highlights from the raw data. The hybrid approach combines the advantages of both deep learning and traditional AI to improve the accuracy of diabetes localization.
利用先进的机器学习技术进行实时无创血糖监测
糖尿病是一种影响大量人群的慢性疾病,如果不及时治疗,可能会导致意想不到的重大问题。并发症的风险可以完全降低,并且通过早期发现糖尿病可以获得相当大的改善。最近,可穿戴技术已经成为诊断和检查疾病的潜在工具。具有生物活性传感器的智能手表是糖尿病筛查的完美选择,因为它们可以提供连续、无痛的身体重要指标监测。本文提出了一种构建混合人工智能模型的方法,该模型使用患者数据来检测糖尿病的存在。该系统结合了使用配备生物活性传感器的智能手表计算的身体生命体征,以提供关于佩戴者健康状态的准确和连续的信息。该混合模型结合了深度学习和传统的人工智能计算,在诊断糖尿病时达到了很高的准确性。该框架收集了许多身体参数的数据,包括皮肤电导、循环张力和脉搏——所有这些都与糖尿病密切相关。采集的数据在用于创建混合模型之前进行预处理。使用标准AI计算将信息划分为糖尿病或非糖尿病类别,而使用深度学习计算从原始数据中剔除重要的水平亮点。这种混合方法结合了深度学习和传统人工智能的优点,提高了糖尿病定位的准确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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