Materials and Structural Design of Wearable Devices for Parkinson's Disease Monitoring

Yurui Wang

doi:10.54097/ynnv5g12

Authors

Yurui Wang

DOI:

https://doi.org/10.54097/ynnv5g12

Keywords:

Wearable devices, Parkinson’s disease, biosensors, structural optimization.

Abstract

Wearable biosensors have become a significant area of interest in contemporary healthcare, particularly in the cases of diseases such as Parkinson which need continuous control. Such gadgets have the potential of monitoring body signals in real time and could be helpful to doctors or patients without inflicting any discomfort. This essay discusses articles on the enhancement of the wearable biosensor performance by materials and structural design. It dwells on flexible and conductive substances, which include polymers and nanomaterials that render sensors comfortable and sensual. The paper has gone further to address how the modular and ergonomic designs enhance flexibility of the devices to suit the needs of different users, and therefore wear longer. Besides that, it investigates issues like moisture, movement, and long-term stability, and brings to light the new solutions such as waterproof coats and self-repairs. All in all, this discussion demonstrates that wearable biosensors can be transformed into handheld medical devices that can be used by the patients of Parkinson’s disease reliably every day with the use of smart materials and creative design.

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