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- W4328110113 endingPage "125887" @default.
- W4328110113 startingPage "125887" @default.
- W4328110113 abstract "Hydrogels as flexible strain sensors (FSSs) have attracted tremendous interest in the area of human movement monitoring. Such an application is developing rapidly. However, it is still valuable to explore hydrogel-based FSSs with excellent mechanical properties, responsiveness to stimulus, high strain sensitivity, and reliable stability. Herein, a hydrogel with triple physical cross-linking (TPC hydrogel), whose structure also included hydrophobic association-microcrystallinity-ionic coordination, was designed and fabricated. Synthetic water-soluble polymer [poly(vinyl alcohol) (PVA)] and natural polymer [sodium alginate (SA)] were introduced into the hydrogel; PVA induced microcrystal cross-linking, while SA provided ionic conductivity for the hydrogel. TPC hydrogels exhibited high toughness (5.9 MJ/m3) and excellent deformation (2490%). The introduction of SA also endowed the hydrogels with improved capability to ionize, imparting them with excellent pH-responsive swelling behavior. Impressively, TPC hydrogel-based FSSs exhibited reasonable conductivity (0.65–2.47 S/m), high sensitivity (maximum gauge factor = 10.29), and outstanding reliability and stability. This investigation broadens the avenue for the design and fabrication of hydrogels intended as FSSs with low modulus (33–45 kPa, close to human skin), excellent stretchability, and high strain sensitivity and durability." @default.
- W4328110113 created "2023-03-22" @default.
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- W4328110113 date "2023-04-01" @default.
- W4328110113 modified "2023-09-23" @default.
- W4328110113 title "A tough conductive hydrogel with triple physical cross-linking, pH-Responsive swelling behaviors, and excellent strain sensitivity" @default.
- W4328110113 cites W1973233997 @default.
- W4328110113 cites W1997119204 @default.
- W4328110113 cites W2062218754 @default.
- W4328110113 cites W2109464227 @default.
- W4328110113 cites W2137346096 @default.
- W4328110113 cites W2285847257 @default.
- W4328110113 cites W2734359433 @default.
- W4328110113 cites W2735879036 @default.
- W4328110113 cites W2766751319 @default.
- W4328110113 cites W2795988119 @default.
- W4328110113 cites W2802034087 @default.
- W4328110113 cites W2806259909 @default.
- W4328110113 cites W2892057946 @default.
- W4328110113 cites W2892108312 @default.
- W4328110113 cites W2895056960 @default.
- W4328110113 cites W2911273393 @default.
- W4328110113 cites W2912435822 @default.
- W4328110113 cites W2916749819 @default.
- W4328110113 cites W2945816329 @default.
- W4328110113 cites W2951331592 @default.
- W4328110113 cites W2952737428 @default.
- W4328110113 cites W2954549774 @default.
- W4328110113 cites W2955107334 @default.
- W4328110113 cites W2958032873 @default.
- W4328110113 cites W2961045268 @default.
- W4328110113 cites W3016874699 @default.
- W4328110113 cites W3029937145 @default.
- W4328110113 cites W3034849721 @default.
- W4328110113 cites W3074488043 @default.
- W4328110113 cites W3084058172 @default.
- W4328110113 cites W3090960715 @default.
- W4328110113 cites W3111094077 @default.
- W4328110113 cites W3121901617 @default.
- W4328110113 cites W3122924515 @default.
- W4328110113 cites W3132851154 @default.
- W4328110113 cites W3163833649 @default.
- W4328110113 cites W3167051347 @default.
- W4328110113 cites W3169625045 @default.
- W4328110113 cites W3205753764 @default.
- W4328110113 cites W3214757935 @default.
- W4328110113 cites W3215918621 @default.
- W4328110113 cites W4200052115 @default.
- W4328110113 cites W4205181943 @default.
- W4328110113 cites W4205752299 @default.
- W4328110113 cites W4206286821 @default.
- W4328110113 cites W4206312858 @default.
- W4328110113 cites W4213136470 @default.
- W4328110113 cites W4213344347 @default.
- W4328110113 cites W4214878521 @default.
- W4328110113 cites W4220848266 @default.
- W4328110113 cites W4220889996 @default.
- W4328110113 cites W4221118584 @default.
- W4328110113 cites W4223928328 @default.
- W4328110113 cites W4229332770 @default.
- W4328110113 cites W4280542279 @default.
- W4328110113 cites W4280569149 @default.
- W4328110113 cites W4280630230 @default.
- W4328110113 cites W4281396697 @default.
- W4328110113 cites W4281489441 @default.
- W4328110113 cites W4281559958 @default.
- W4328110113 cites W4281932215 @default.
- W4328110113 cites W4282052106 @default.
- W4328110113 cites W4282578675 @default.
- W4328110113 cites W4282932691 @default.
- W4328110113 cites W4283445893 @default.
- W4328110113 cites W4283763106 @default.
- W4328110113 cites W4284993823 @default.
- W4328110113 cites W4285298009 @default.
- W4328110113 cites W4287852475 @default.
- W4328110113 cites W4288052142 @default.
- W4328110113 cites W4291667603 @default.
- W4328110113 cites W4292509450 @default.
- W4328110113 cites W4293193252 @default.
- W4328110113 cites W4293375761 @default.
- W4328110113 cites W4308946374 @default.
- W4328110113 cites W4310422183 @default.
- W4328110113 cites W4312114317 @default.
- W4328110113 doi "https://doi.org/10.1016/j.polymer.2023.125887" @default.
- W4328110113 hasPublicationYear "2023" @default.
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