Thermal and Moisture Managing E-Textiles Enabled by Janus Hierarchical Gradient Honeycombs.
Yufei ZhangJingjing FuYichun DingAijaz Ahmed BabarXian SongFan ChenXinge YuZijian ZhengPublished in: Advanced materials (Deerfield Beach, Fla.) (2023)
Moisture and thermal comfort are critical for long-term wear. In recent years, there has been rapidly growing attention on the importance of the comfortability in wearable electronic textiles (e-textiles), particularly in fields such as health monitoring, sports training, medical diagnosis and treatment, where long-term comfort is crucial. Nonetheless, simultaneously regulating thermal and moisture comfort for the human body without compromising electronic performance remains a significant challenge to date. Herein, a thermal and moisture managing e-textile (TMME-textile) that integrates unidirectional water transport and daytime radiative cooling properties with highly sensitive sensing performance is developed. The TMME-textile is made by patterning sensing electrodes on rationally designed Janus hierarchical gradient honeycombs that offer wetting gradient and optical management. The TMME-textile can unidirectionally pump excessive sweat, providing a dry and comfortable microenvironment for users. Moreover, it possesses high solar reflectivity (98.3%) and mid-infrared emissivity (89.2%), which reduce skin temperature by ≈7.0 °C under a solar intensity of 1 kW m -2 . The TMME-textile-based strain sensor displays high sensitivity (0.1749 kPa -1 ) and rapid response rate (170 ms), effectively enabling smooth long-term monitoring, especially during high-intensity outdoor sports where thermal and moisture stresses are prominent challenges to conventional e-textiles.
Keyphrases
- high intensity
- wastewater treatment
- healthcare
- public health
- endothelial cells
- stem cells
- mass spectrometry
- multiple sclerosis
- resistance training
- obstructive sleep apnea
- ms ms
- mental health
- air pollution
- heart rate
- sleep quality
- body mass index
- blood pressure
- weight loss
- induced pluripotent stem cells
- social media
- label free
- cell fate