文震教授及其合作者在adv. mater.上发表论文-尊龙凯时

作者：

shenjie zhong¹, bohan lu^2,3, duan-chao wang⁴, brian arianpour⁵, shaolei wang⁵, haiyu han¹, junyi yin⁵, hong bao¹, yina liu³, zhen wen²* & yunlei zhou¹*

单位：

¹hangzhou institute of technology, xidian university, hangzhou 311231, p. r. china.

²institute of functional nano&soft materials (funsom), soochow university, suzhou 215123, p. r. china.

³department of applied mathematics, school of mathematics and physics, xi’an jiaotong-liverpool university, suzhou 215123, p. r. china.

⁴zju-hangzhou global scientific and technological innovation center, zhejiang university, hangzhou 311231, p. r. china.

⁵department of bioengineering, henry samueli school of engineering and applied science, university of california los angeles, los angeles, california 90095, usa.

摘要：

environmentally induced sensor temperature fluctuations can distort the outputs of a sensor, reducing their stability during long-term health monitoring. here, a passive isothermal flexible sensor is proposed by using hierarchical cellulose aerogel (hca) as the top tribonegative layer, which allows the sensor to adapt dynamic thermal environments through both radiative cooling and heat insulation. the radiative cooling effect can cool down the temperatures of a sensor in summer, while the hollow microfibers in hca provide ultralow thermal conductivity to reduce internal heat loss in winter. the prepared passive isothermal sensor is capable of maintaining the rated working temperature over an extensive temperature range of 0−100°c, demonstrating for gripping hot and cold objects. while monitoring human movements under direct sunlight, the temperature of a conventional sensor rose by 12.3°c, whereas the sensor experienced an increase of only 0.3°c. therefore, this work presents a promising strategy for adapting to environments, enabling wearable electronics to function effectively in dynamic thermal conditions.

影响因子：

27.4

分区情况：

一区

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