Critical Dimensions in Small-Molecule Plasmonic Particle Solar Cells

Research output: Contribution to book/Conference proceedings/Anthology/ReportChapter in book/Anthology/ReportContributedpeer-review

Contributors

Details

Original languageEnglish
Title of host publicationELEMENTARY PROCESSES IN ORGANIC PHOTOVOLTAICS
Pages327-349
Volume272
Publication statusPublished - 2017
Peer-reviewedYes

External IDs

Scopus 85007227407

Keywords

Keywords

  • Absorber layer thickness, Absorption effciency, Backscattering, Charge extraction, Coupling plasmonic particles, Coupling of plasmonic particles to absorbing media, Device stack, Dipolar plasmonic resonance in dispersive media, Dipolar resonance, Extinction efficiency, Fill factor, Forward scattering, Infra-red, Inter-particle spacing, Modified long-wavelength approach, Morphology in plasmonic organic solar cells, Nanotechnology, Near-field effect, Near-field enhancement, Particle aspect ratio, Particle density, Particle growth, Particle growth after seeding, Particle position, Particle size, Passivation of plasmonic particles, Phase of plasmonic resonance, Photocurrent, Plasmonic device concepts, Plasmonic solar cell, Polarizability, Reflection, Reflection at plasmonic particles, Scattering efficiency, Semiconductor bandgap, Silver particle deposition, Spectral overlap, Splitting of plasmonic resonance, Vollmer-weber growth