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A breathable electronic skin (E-skin) that can detect pressure and strain using distinct signals. The E-skin has microscaled pores for breathability and three-dimensional microcilia for superhydrophobicity thanks to the synergistic impact of magnetic attraction and nanoscaled aggregation.
When pressure is applied, conductive microcilia flex, creating enough connections to reduce resistance, whereas stretching separates the conductive materials, increasing resistance. It functions as a flexible and wearable sensor that can recognise various mechanical stimulations from the human body and produce non-overlapping electrical signals.
The Global Breathable Electronic Skin market accounted for $XX Billion in 2022 and is anticipated to reach $XX Billion by 2030, registering a CAGR of XX% from 2023 to 2030.
Breathable electronic skins have seen fast development in recent years for use in daily physiological signal monitoring applications. Breathable (air-permeable) e-skins have gained significant interest in recent years due to the growing demand for long-term and pleasant physiological signal monitoring by e-skin.
Sweat buildup can be prevented by the breathable e-skin, which also vastly increases comfort when worn for an extended period of time.
The two primary kinds of breathable e-skins for daily long-term physiological signal monitoring can be separated based on the sorts of monitoring signals.
One is the breathable e-skin electrode for electrophysiological signal monitoring, such as the electrocardiograph (ECG) e-skin electrode, electro-oculography (EOG) e-skin electrode, electromyography (EMG) e-skin electrode, electroencephalograph (EEG) e-skin electrode, etc.
The second is breathable e-skin sensors, which are employed to recognise both physical and chemical physiological signals (such as pulses, breath sounds, blood pressure, body temperature, etc). (glucose, ethanol, electrolytes, etc.).
Additionally, there are breathable multifunctional e-skins that can track a variety of physiological signs. The functional materials, architectures, and manufacturing procedures of breathable e-skins vary depending on the varied physiological signals or multiple physiological signals monitoring requirements.
Recent developments in breathable e-skin electrodes have offered sensors and systems for daily physiological signal monitoring. Systematically discussed aspects of their designs include useful materials, structures, fabrication techniques, and performances.
The usual multifunctional, highly integrated, and intelligent e-skin systems are then demonstrated. These systems are capable of long-term in situ sensing, processing, and diagnosis of physiological signals in daily life and daily autonomous labour.
