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| 1 | CVD growth of fingerprint-like patterned 3D graphene film for an ultrasensitive pressure sensor显示文摘与便携设备的快速的发展,有高敏感和宽可使用的范围的灵活压力传感器高度被需要。在自然,有许多改编得好的结构,通过自然选择开发,它为 biomimetic 材料或设备的设计鼓舞了我们。特别地,在许多表皮的山脉放大外部刺激的地方,人的指尖皮肤可能是一个好例子为高度敏感的传感器模仿。在这个工作,基于唯一的化学蒸汽免职( CVD )种模仿指尖皮肤的形态学的 3D graphene 电影,我们制作了察觉到膜的灵活压力,它同时显示出 110 的高敏感( kPa )为 0-0.2 kPa 和宽可使用的压力范围(多达 75 kPa )的1。从自然叶子塑造的层次结构化的 PDMS 电影为 graphene 电影被用作支持的有弹性的电影,它也贡献压力传感器的优异表演。压力传感器显示出低察觉限制(0.2 Pa ) ,快反应(< 30 ms ) ,并且为超过 10,000 的优秀稳定性装载 / 卸掉周期。把特征基于这些,我们在检测微小的对象,声音,和人的生理的信号演示了它的应用程序,为监视的健康和人 / 机器在便携电子学显示出它的潜力连接。 | Kailun Xia Chunya Wang Muqiang Jian Qi Wang Yingying Zhang | 2018 | Nano Research2018，11，2： | 13 |
| 2 | Natural Biopolymers for Flexible Sensing and Energy Devices显示文摘Natural biopolymers feature natural abundance,diverse chemical compositions,tunable properties,easy processability,excellent biocompatibility and biodegradability,as well as nontoxicity,providing new opportunities for the development of flexible sensing and energy devices.Generally,biopolymers are utilized as the passive and active building blocks to endow the flexible devices with mechanical robustness and good biocompatibility.This review aims to provide a comprehensive review on natural biopolymer-based sensing and energy devices.The diverse structures and fabrication processes of three typical biopolymers,including silk,cellulose,and chitin/chitosan,are presented.We review their utilities as the supporting substrates/matrix,active middle layers,separators,electrolytes,and active components of flexible sensing devices(sensors,actuators,transistors)and energy devices(batteries,supercapacitors,triboelectric nanogenerators).Finally,the remaining challenges and future research opportunities are discussed. | Muqiang Jian Yingying Zhang Zhongfan Liu | 2020 | Chinese Journal of Polymer Science2020，38，5： | 8 |
| 3 | Superelastic wire-shaped supercapacitor sustaining 850% tensile strain based on carbon nanotube@graphene fiber显示文摘 | Huimin Wang Chunya Wang Muqiang Jian Qi Wang Kailun Xia Zhe Yin Mingchao Zhang Xiaoping Liang Yingying Zhang | 2018 | Nano Research2018，11，5： | 6 |
| 4 | Silkworm Silk Fibers with Multiple Reinforced Properties Obtained through Feeding Ag Nanowires显示文摘Silkworm silk fbers have been woven into textiles for thousands of years,because of their attractive luster,good mechanical properties,excellent biocompatibility,and large-scale production.With the development of human society,preparation of silk fbers with modifed or enhanced properties are highly desirable for potential applications in structural materials and smart textiles.Herein,we realized the reinforcement of multiple properties of silk fbers by feeding silkworms with Ag nanowire(Ag NW)modifed diets.The obtained silk fbers show obviously enhanced comprehensive mechanical properties,including improved tensile strength,elongation at break,tensile modulus,and toughness,which are increased by 37.2%,37.6%,68.3%,and 69.8%,respectively.Furthermore,compared with unmodifed silk,the electrical conductivity and thermal conductivity of modifed silk fbers are improved by 246.4%and 32.1%,respectively.The analysis on the components and structure shows that the incorporated Ag NWs lead to increased content of random coil/α-helix,improved orientation of crystallites,and increased content of Ag compared to pristine silk fbers,which may contribute to the enhanced mechanical,electrical,and thermal properties. | Haojie Lu Muqiang Jian Zhe Yin Kailun Xia Shaoyi Shi Mingchao Zhang Huimin Wang Xiaoping Liang Weigang Ma Xing Zhang Yingying Zhang | 2022 | Advanced Fiber Materials2022，4，3： | 2 |
| 5 | Genetic and physical localization of an anthracnose resistance gene in Medicago truncatula显示文摘 | Shengming Yang Muqiang Gao Shweta Deshpande Shaoping Lin Bruce A. Roe Hongyan Zhu | 2007 | Theoretical and Applied Genetics2007，，1： | 1 |
| 6 | Mechanically Reinforced Silkworm Silk Fiber by Hot Stretching显示文摘Silkworm silk,which is obtained from domesticated Bombyx mori(B.mori),can be produced in a large scale.However,the mechanical properties of silkworm silk are inferior to its counterpart,spider dragline silk.Therefore,researchers are continuously exploring approaches to reinforce silkworm silk.Herein,we report a facile and scalable hot stretching process to reinforce natural silk fibers obtained from silkworm cocoons.Experimental results show that the obtained hot-stretched silk fibers(HSSFs)retain the chemical components of the original silk fibers while being endowed with increasedβ-sheet nanocrystal content and crystalline orientation,leading to enhanced mechanical properties.Significantly,the average modulus of the HSSFs reaches 21:6±2:8 GPa,which is about twice that of pristine silkworm silk fibers(11:0±1:7 GPa).Besides,the tensile strength of the HSSFs reaches 0:77±0:13 GPa,which is also obviously higher than that of the pristine silk(0:56±0:08 GPa).The results show that the hot stretching treatment is effective and efficient for producing superstiff,strong,and tough silkworm silk fibers.We anticipate this approach may be also effective for reinforcing other natural or artificial polymer fibers or films containing abundant hydrogen bonds. | Haojie Lu Kailun Xia Muqiang Jian Xiaoping Liang Zhe Yin Mingchao Zhang Huimin Wang Haomin Wang Shuo Li Yingying Zhang | 2022 | Research2022，，3： | 1 |
| 7 | Carlos guiros high-density Brassica oleracea linkage map:identification of useful new linkages显示文摘 | Gao Muqiang Li Genyi Yang Bo | 2007 | Theor Appl Genet2007，115，2： | 1 |
| 8 | Genetic and physical localization of an anthracnose resistance gene in Medicago truncatula显示文摘 | Shengming Yang Muqiang Gao Shweta Deshpande | 2007 | Theor Appl Genet2007，116，： | 1 |
| 9 | Carbon nanotube fibers with excellent mechanical and electrical properties by structural realigning and densification显示文摘Floating catalysis chemical vapor deposition(FCCVD)direct spinning process is an attractive method for fabrication of carbon nanotube fibers(CNTFs).However,the intrinsic structural defects,such as entanglement of the constituent carbon nanotubes(CNTs)and inter-tube gaps within the FCCVD CNTFs,hinder the enhancement of mechanical/electrical properties and the realization of practical applications of CNTFs.Therefore,achieving a comprehensive reassembly of CNTFs with both high alignment and dense packing is particularly crucial.Herein,an efficient reinforcing strategy for FCCVD CNTFs was developed,involving chlorosulfonic acid-assisted wet stretching for CNT realigning and mechanical rolling for densification.To reveal the intrinsic relationship between the microstructure and the mechanical/electrical properties of CNTFs,the microstructure evolution of the CNTFs was characterized by cross-sectional scanning electron microscopy(SEM),wide angle X-ray scattering(WAXS),polarized Raman spectroscopy and Brunauer–Emmett–Teller(BET)analysis.The results demonstrate that this strategy can improve the CNT alignment and eliminate the inter-tube voids in the CNTFs,which will lead to the decrease of mean distance between CNTs and increase of inter-tube contact area,resulting in the enhanced inter-tube van der Waals interactions.These microstructural evolutions are beneficial to the load transfer and electron transport between CNTs,and are the main cause of the significant enhancement of mechanical and electrical properties of the CNTFs.Specifically,the tensile strength,elastic modulus and electrical conductivity of the high-performance CNTFs are 7.67 GPa,230 GPa and 4.36×10^(6)S/m,respectively.It paves the way for further applications of CNTFs in high-end functional composites. | Kunjie Wu Bin Wang Yutao Niu Wenjing Wang Cao Wu Tao Zhou Li Chen Xianghe Zhan Ziyao Wan Shan Wang Zhengpeng Yang Yichi Zhang Liwen Zhang Yongyi Zhang Zhenzhong Yong Muqiang Jian Qingwen Li | 2023 | Nano Research2023，16，11： | 0 |
| 10 | 多功能能量管理电子纺织品的可印刷智能图案显示文摘文章简介近年来,随着柔性和可穿戴电子产品的发展,电子纺织品(E-Texture)引起了人们极大的关注。课题组在研究中发现,利用配备同轴喷丝板的3D打印机可直接打印由芯鞘纤维组成的电子纺织品,客户出于各种目的设计的芯鞘纤维图案都可以印制在纺织品上。作为演示,课题组以碳纳米管(CNTs)为导电核心,丝素蛋白(SF)为介电护套,制备了CNTs@SF芯鞘纤维智能图案,并将其进一步用作摩擦电纳米发电机纺织品。 | Mingchao Zhang Mingyu Zhao Muqiang Jian Chunya Wang Aifang Yu Zhe Yin Xiaoping Liang Huimin Wang Kailun Xia Xiao Liang 翟俊宜 张莹莹 | 2020 | 科学新闻2020，，2： | 0 |
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