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Vibrational energy transfer from photo-excited single-wall carbon nanotubes(SWCNTs) to coupled proteins is a key to engineer thermally induced biologicalreactions such as photothermal therapy. Here, we explored vibrational energytransfer from the photo-excited SWCNTs to different adsorbed biologicalmaterials by means of a femtosecond pump-probe technique. We show that thevibrational relaxation time of the radial breathing modes (RBMs) in SWCNTssignificantly depends on the structure of coupled materials, i.e. proteins orbiopolymers, indicating the vibrational energy transfer is governed by overlapof phonon density of states between the SWCNTs and coupled materials.

Vibrational Energy Transfer from Photo-Excited Carbon Nanotubes to Proteins Observed by Coherent Phonon Spectroscopy