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Facile Nondestructive Assembly of Tyrosine-Rich Peptide Nanofibers as a Biological Glue for Multicomponent-Based Nanoelectrode Applications
- Title
- Facile Nondestructive Assembly of Tyrosine-Rich Peptide Nanofibers as a Biological Glue for Multicomponent-Based Nanoelectrode Applications
- Authors
- Min, Kyoung-Ik; Lee, Seung-Woo; Lee, Eun-Hee; Lee, Yoon-Sik; Yi, Hyunjung; Kim, Dong-Pyo
- Ewha Authors
- 이은희
- SCOPUS Author ID
- 이은희
- Issue Date
- 2018
- Journal Title
- ADVANCED FUNCTIONAL MATERIALS
- ISSN
- 1616-301X
1616-3028
- Citation
- ADVANCED FUNCTIONAL MATERIALS vol. 28, no. 11
- Keywords
- glucose sensors; nondestructive assembly; peptides; single-walled nanotubes (SWNT); tyrosine
- Publisher
- WILEY-V C H VERLAG GMBH
- Indexed
- SCIE; SCOPUS
- Document Type
- Article
- Abstract
- Achieving the nondestructive assembly of carbon nanoelectrodes with multiple components in a scalable manner enables effective electrical interfaces among nanomaterials. Here, a facile nondestructive multiscale assembly of multicomponent nanomaterials using self-assembled tyrosine-rich peptide nanofibers (TPFs) as a biological glue is reported. The versatile functionalities of the rationally devised tyrosine-rich short peptide allow for (1) self-assembly of the peptide into nanofibers using noncovalent interactions, followed by (2) immobilization of spatially distributed metal nanoparticles on the nanofiber surface, and (3) subsequent assembly with graphitic nanomaterials into a percolated network-structure. This percolated network-structure of silver nanoparticle (AgNP)-decorated peptide nanofibers with imbedded single-walled carbon nanotubes (SWNTs) proves to be a versatile nanoelectrode platform with excellent processability. The SWNT-TPF-AgNP assembly, when utilized as a flexible and transparent multicomponent electronic film, was quite effective for enhancing direct electron transfer (DET) as verified for a third-generation glucose sensor composed of this film. The simple solution process used to produce the functional nanomaterials could provide a new platform for scalable manufacturing of novel nanoelectrode materials forming effective electrical contacts with molecules from diverse biological systems.
- DOI
- 10.1002/adfm.201705729
- Appears in Collections:
- 공과대학 > 환경공학과 > Journal papers
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