Ventrally based tongue flap for Palatal Fistula

Alvarez, Edwar; Alvarez, David; Iñiguez, Andrea; M, Miguel E. Fariña

doi:10.1007/978-981-15-3889-6_39-1

Cited by 1 publication

(2 citation statements)

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“…[ 78 ] Particularly, the integration of plasmonic nanostructures and mechanical resonators is crucial for the development of novel nanoscale sensing devices with optical, electronic, and mechanical functional elements integrated on the same chip. [ 79,80 ] Such hybrid nano‐mechanical and optoplasmonic devices have been emerging as important platforms for ultrasensitive detection of cancer biomarkers and HIV in human serum at extremely low concentrations. [ 81,82 ] Similarly, plasmomechanical resonators are crucial for room‐temperature detection of power fluctuations of nanowatt order of magnitude [ 17 ] and zero‐power consumption [ 83 ] in infrared radiation.…”

Section: Applications Of Plasmomechanical Systemsmentioning

confidence: 99%

“…developed a hybrid sensing platform that combines surface plasmon resonance and nano‐mechanical sensing techniques. [ 80 ] Such a novel system allows simultaneous and real‐time detection of two independent parameters, that is, refractive index change (∆ n ) and surface stress change (∆σ) when a biomolecular interaction takes place. Similarly, Kosaka and co‐workers developed a sandwich assay that combines mechanical and plasmonic transduction for detection of cancer biomarkers in serum at ultralow concentrations.…”

Section: Applications Of Plasmomechanical Systemsmentioning

confidence: 99%

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Plasmomechanical Systems: Principles and Applications

Koya

Cunha

Guerrero-Becerra

et al. 2021

Adv Funct Materials

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Extreme confinement of electromagnetic waves and mechanical displacement fields to nanometer dimensions through plasmonic nanostructures offers unprecedented opportunities for greatly enhanced interaction strength, increased bandwidth, lower power consumption, chip-scale fabrication, and efficient actuation of mechanical systems at the nanoscale. Conversely, coupling mechanical oscillators to plasmonic nanostructures introduces mechanical degrees of freedom to otherwise static plasmonic structures thus giving rise to the generation of extremely large resonance shifts even for minor position changes. This nanoscale marriage of plasmonics and mechanics has led to the emergence of a new field of study called plasmomechanics that explores the fundamental principles underneath the coupling between light and plasmomechanical nanoresonators. In this review, both the fundamental concepts and applications of plasmomechanics as an emerging field of study are discussed. After an overview of the basic principles of plasmomechanics, the active tuning mechanisms of plasmonic nano-mechanical systems are extensively analyzed. Moreover, the recent developments on the practical implications of plasmomechanic systems for such applications as biosensing and infrared detection are highlighted. Finally, an outlook on the implications of the plasmomechanical nanosystems for development of point-of-care diagnostic devices that can help early and rapid detection of fatal diseases are forwarded.

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