Mechanisms of deformation and drug release of targeting polypeptides based on fibronectin induction

Zhong, Weishen; Yue, Kai; Wang, Anqi; Zhang, Genpei; Wang, Jiaqi; Wang, Lei; Wang, Hao; Zhang, Hua; Zhang, Xinxin

doi:10.1016/j.colsurfb.2022.112836

Cited by 6 publications

(4 citation statements)

References 36 publications

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“…[80] Inspired by the fibrillogenesis of natural FN or LN through BIF behavior, the FN/LN-mimicking peptides were designed, which could bind integrin α V β 3 (Ca 2þ ) in solution or integrin α V β 3 in vivo to form nanofibrous structure. [90,91] The preformed NFs further provided more FN/LN-mimicking peptide binding sites for self-amplifying self-assembly, leading to the formation of fibrous network. [92] The biomimetic FN/LN recognized tumor with overexpressed α V β 3 and formed artificial ECM, leading to the migration and invasion inhibition of tumor cells.…”

Section: Fibrillogenesis Of Fibronectin Forms Ecmmentioning

confidence: 99%

“Live” Nanomaterials Process Biomimetic Recognition and Assembly In Vivo

Zhang,

Li,

Huang

et al. 2023

Small Science

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The biomimetic strategy has been widely used in multiple fields, and provides huge convenience to human life. For biomedical application in vivo, the importance of biomimetic materials lies on mimicking the natural process/behavior as well as mimicking the structure/ingredient. Herein, recent advances of materials processing biomimetic recognition and assembly behavior for in vivo applications, including the natural source materials and artificial materials, are summarized. The biological processes are divided as recognition and assembly as well as recognition and self‐amplifying assembly. Finally, to conclude, the application of recognition and assembly process‐biomimetic materials in vivo in the future is discussed.

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Section: Fibrillogenesis Of Fibronectin Forms Ecmmentioning

confidence: 99%

“Live” Nanomaterials Process Biomimetic Recognition and Assembly In Vivo

Zhang,

Li,

Huang

et al. 2023

Small Science

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“…The preparation of superhydrophobic films on Al alloys has currently attracted a lot of attentions as a key method to prevent surface contamination and improve corrosion resistance [11–12] . Superhydrophobic materials refer to surface static contact angle greater than 150° and rolling contact angle less than 10° [13–15] .…”

Section: Introductionmentioning

confidence: 99%

Fabricating Superhydrophobic Protective Films with Enhanced Self‐Cleaning and Anti‐Corrosion Properties through Multiple Anodic Oxidations on Aluminum Alloys

et al. 2023

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The development of aluminum (Al) alloys with superb anticorrosion and self-cleaning properties for prolonging the working life and reducing maintenance cost is a hot topic of concern. Since anodic oxidation has been proven to be an effective technique to prepare micro or nanostructures on Al alloys surface, this study proposes a novel and scalable multiple anodic oxidations method with gradient current densities for fabricating hierarchical micro-nanostructure film with appropriate roughness on Al alloys, while the SiO 2 -silane film reduced the surface free energy and enhanced the surface chemical inert state. As expected, the surface of Al alloys modified with the multiple anodic oxidations and SiO 2 -silane film has the most substantial hydrophobic properties, with contact angle up to 166°, rolling angle as low as 3.17°and excellent nonsticking effect of water droplets. This method enables the Al alloys surface to have excellent self-cleaning performance and corrosion resistance with protection efficiency up to 98.81 %. This multiple anodic oxidations method has a wide range of references for the modulation of micro-nanostructure on Al alloys surface and other metallic substrates to assemble superhydrophobic protective films.

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“…In 1966, researchers at the Standard Oil Company (Ohio) developed the earliest commercial EDLC; they did not commercialize their technology and licensed to a Japanese multinational company, NEC (Nippon Electric Company, Limited), and they nally marketed the technology as supercapacitors for computer memory applications. [4][5][6] Between 1975 and 1980, Brain Evans Conway performed extensive fundamental and advance work on RuO 2 electrochemical capacitors and successfully dened the difference between the supercapacitor and the battery for electrochemical energy storage behavior. In 1982, Pinnacle Research Institute (PRI) developed the rst supercapacitor having low internal resistance for military applications and marketed as "PRI ultracapacitor".…”

Section: Introductionmentioning

confidence: 99%

“…Some of the commercially available supercapacitors are examples of commercial supercapacitors from different manufacturers such as Yanasko, Panasonic, Maxwell, Asahi Glass, Vina Tech, JSR Miaro, Nesscap, Fuji, Loxus, Batscap, Skeleton, and APower. [3][4][5][6] However, still researchers in numerous universities and companies are actively at work to improve the electrochemical properties of supercapacitors such as specic energy, specic power, number of cycles, and wide voltage window. The major commercial electrode material is carbon based, which is widely used directly or by modifying the electrode material.…”

Section: Introductionmentioning

confidence: 99%