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oapen-20.500.12657-492012021-11-23T14:13:50Z Chapter Dendritic Cell Endocytosis Essential for Viruses and Vaccines McCullough, Kenneth C. Sharma, Rajni laser annealing, laser induce self‐assembly, plasmonics, surface plasmon resonance, plasmonic nanoparticles bic Book Industry Communication::P Mathematics & science::PH Physics::PHF Materials / States of matter::PHFC Condensed matter physics (liquid state & solid state physics) Nanoconstruction of metals is a significant challenge for the future manufacturing of plasmonic devices. Such a technology requires the development of ultra‐fast, high‐throughput and low cost fabrication schemes. Laser processing can be considered as such and can potentially represent an unrivalled tool towards the anticipated arrival of modules based in metallic nanostructures, with an extra advantage: the ease of scalability. Specifically, laser nanostructuring of either thin metal films or ceramic/metal multilayers and composites can result on surface or subsurface plasmonic patterns, respectively, with many potential applications. In this chapter, the photo‐thermal processes involved in surface and subsurface nanostructuring are discussed and processes to develop functional plasmonic nanostructures with pre‐determined morphology are demonstrated. For the subsurface plasmonic conformations, the temperature gradients that are developed spatially across the metal/dielectric structure during the laser processing can be utilized. For the surface plasmonic nanoassembling, the ability to tune the laser's wavelength to either match the absorption spectral profile of the metal or to be resonant with the plasma oscillation frequency can be utilised, i.e. different optical absorption mechanisms that are size‐selective can be probed. Both processes can serve as a platform for stimulating further progress towards the engineering of large‐scale plasmonic devices. 2021-06-02T10:09:19Z 2021-06-02T10:09:19Z 2017 chapter ONIX_20210602_10.5772/67779_315 https://library.oapen.org/handle/20.500.12657/49201 eng application/pdf n/a 54839.pdf InTechOpen 10.5772/67779 10.5772/67779 09f6769d-48ed-467d-b150-4cf2680656a1 88696658-498a-4e11-b068-f67a68cda95c 2d68ad75-0002-4932-8e5d-fcf4bb23a92a 601738 251420 FP7 Health FP7-HEALTH - Specific Programme "Cooperation": Health FP7 People: Marie-Curie Actions PEOPLE - Specific Programme "People" Implementing the Seventh Framework Programme of the European Community for Research, Technological Development and Demonstration Activities (2007 to 2013) open access
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Nanoconstruction of metals is a significant challenge for the future manufacturing of plasmonic devices. Such a technology requires the development of ultra‐fast, high‐throughput and low cost fabrication schemes. Laser processing can be considered as such and can potentially represent an unrivalled tool towards the anticipated arrival of modules based in metallic nanostructures, with an extra advantage: the ease of scalability. Specifically, laser nanostructuring of either thin metal films or ceramic/metal multilayers and composites can result on surface or subsurface plasmonic patterns, respectively, with many potential applications. In this chapter, the photo‐thermal processes involved in surface and subsurface nanostructuring are discussed and processes to develop functional plasmonic nanostructures with pre‐determined morphology are demonstrated. For the subsurface plasmonic conformations, the temperature gradients that are developed spatially across the metal/dielectric structure during the laser processing can be utilized. For the surface plasmonic nanoassembling, the ability to tune the laser's wavelength to either match the absorption spectral profile of the metal or to be resonant with the plasma oscillation frequency can be utilised, i.e. different optical absorption mechanisms that are size‐selective can be probed. Both processes can serve as a platform for stimulating further progress towards the engineering of large‐scale plasmonic devices.
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