xmlui.dri2xhtml.METS-1.0.item-contributor-funder:
Ministerio de Economía y Competitividad (España)
Sponsor:
This work was supported by the Ministerio de Economía y Competitividad of Spain, project 32 of CEMIE-Solar from Secretara de Energía-Sustentabilidad Energética and the Terahertz Science and Technology National Lab from CONACYT (México) under Grant TEC2012-38901-C02-01, Grant TEC2015-69916-C2-1-R, Explora Grant TEC2013-50138-EXP, Grant TEC2013-40442, and Grant PR2015-00063.
Project:
Gobierno de España. TEC2013-50138-EXP Gobierno de España. TEC2015-69916-C2-1-R Gobierno de España. TEC2012-38901-C02-01 Gobierno de España. TEC2013-40442 Gobierno de España. PR2015-00063
Plasmonic nanostructures can be described by equivalent impedance, allowing the analysis of their properties and performance by an RLC circuit equivalent model. In this letter, the equivalent impedance has been obtained from a power budget calculation that conPlasmonic nanostructures can be described by equivalent impedance, allowing the analysis of their properties and performance by an RLC circuit equivalent model. In this letter, the equivalent impedance has been obtained from a power budget calculation that considers the dielectric functions of the matrix and the nanostructured material, the nanostructure geometry (in this case, spheres), the light wavelength, and its polarization. When Bi or Ga nanospheres are considered, the equivalent circuit undergoes a switching from a capacitive to and inductive response when the materials change their phase from solid to liquid. Finally, this approach is applied to the design of reconfigurable metamaterials.[+][-]