Data acquisition and processing for IoT-based intelligent medical monitoring: Applications in biomechanics
Abstract
With the rapid development of Internet of Things (IoT) technology, its integration into intelligent medical monitoring devices has significantly transformed the healthcare landscape. This integration not only enhances the functionality of medical monitoring equipment but also improves the real-time accuracy of data collection. This review comprehensively discusses the data acquisition and processing methods of intelligent medical monitoring devices based on IoT, with a particular focus on their applications in molecular and cellular biomechanics. In the context of biomechanics, IoT technology offers new perspectives and tools for biomechanics research. By accurately monitoring mechanical changes at the cellular and molecular levels, IoT technology enhances our understanding of biological systems, thereby providing a scientific foundation for the early diagnosis and treatment of diseases. For instance, by observing the mechanical responses of cells, we can gain insights into how cells sense and react to changes in their external environment. We summarize the current research progress related to IoT data acquisition and processing methods for these devices, analyze the advantages and limitations of existing technologies, and explore future development trends. The review seeks to foster technological innovation and practical applications within this field, ultimately enhancing the quality of medical care and improving the overall quality of life for patients.
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