Detecting secondary structure and surface orientation of helical peptide monolayers from resonant hybridization signals

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Abstract

Hybridization of dominant vibrational modes with meta-surface resonance allows detection of both structural changes and surface orientations of bound helical peptides. Depending on the resonance frequency of meta-molecules, a red- or blue- shift in peptide Amide-I frequency is observed. The underlying coupling mechanism is described by using a temporal coupled mode theory that is in very good agreement with the experimental results. This hybridization phenomenon constitutes the basis of many nanophotonic systems such as tunable coupled mode bio-sensors and dynamic peptide systems driven by infrared signals.

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CITATION STYLE

APA

Alici, K. B., & Gallardo, I. F. (2013). Detecting secondary structure and surface orientation of helical peptide monolayers from resonant hybridization signals. Scientific Reports, 3. https://doi.org/10.1038/srep02956

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