Dry Fiber-Based Electrodes for Electrophysiology Applications
Key finding
A review of dry fiber-based electrodes — breathable, flexible, and durable, unlike disposable gel electrodes — for ECG, EMG, and EEG.
Abstract
Long-term continuous health care monitoring, using wearable technologies has received considerable interest due to the significant contribution of wearables to the diagnosis of diseases and identification of health conditions. Fibers have been widely applied in human societies due to their unique advantages, including stretchability, small diameters, high dynamic bending elasticity, high length-to-width ratios, and mechanical strength. A new generation of fiber-based electrodes is being integrated into smart textiles and wearables for continuous long-term biosignal monitoring. Dry fiber-based electrodes are breathable, flexible, and durable, unlike conventional disposable gel electrodes, which are difficult to employ for long-term applications because of skin irritation and allergic responses caused by their moist and adhesive interface with the skin. In this review, we provide a concise summary of recent breakthroughs in the design, and manufacturing of dry fiber-based electrodes for electrophysiology applications, with a particular emphasis on applications in electrocardiography, electromyography, and electroencephalography. Focusing on numerous features of electroactive fiber materials, fiber processing, electrode fabrication, scaled- up manufacturing, standardization of testing and performance criteria, we discuss current limitations and provide an outlook for the future development of this field.
What this proves at MyantX
This review is the scientific baseline for MyantX's smart-textile sensing: dry fiber-based electrodes that stay breathable, flexible, and durable where disposable gel electrodes irritate and fail. It is the shared foundation beneath our Textile ECG, Textile EMG, and Textile EEG modalities — the electrophysiology behind Textile Computing™. The same dry-electrode principle extends into surfaces people already touch, including the connected automotive cabin.
Cite this paper
Ladan Eskandarian, Elmira Pajootan, Amirali Toossi, Hani E. Naguib. “Dry Fiber-Based Electrodes for Electrophysiology Applications.” Advanced Fiber Materials, 2023. https://doi.org/10.1007/s42765-023-00263-x
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