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Mechanisms of light energy harvesting in dendrimers and hyperbranched polymers
Authors
Acocella
Aida
+101 more
Allcock
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Andrews
Archut
Astruc
Badaeva
Ball
Ball
Balzani
Bar-Haim
Bar-Haim
Barber
Becker
Beljonne
Bentz
Bradshaw
Bradshaw
Bradshaw
Bradshaw
Burn
Cao
Cavaye
Cheng
Cho
Daniels
David L. Andrews
David S. Bradshaw
Drobizhev
Dykes
Fernandez-Alberti
Fréchet
Galli
Gao
Hahn
Harpham
He
Heijs
Huo
Ishizaki
Ishizaki
Jang
Jenkins
Jenkins
Jenkins
Jordanides
Katan
Kim
Kishi
Larsen
Lehka
Li
Liu
May
Megow
Monguzzi
Muñoz-Losa
Nakano
Nakano
Nantalaksakul
Narayanan
Nishiyama
Palma
Parquette
Paulo
Peng
Poliakov
Powell
Ranasinghe
Scholes
Scholes
Shortreed
Stockmann
Swallen
Thayumanavan
Tretiak
van der Meer
van Patten
Varnavski
Varnavski
Vlaming
Wang
Winroth
Wong
Wu
Xu
Yan
Yeow
You
Zhang
Zhu
Publication date
1 January 2011
Publisher
'MDPI AG'
Doi
Abstract
Since their earliest synthesis, much interest has arisen in the use of dendritic and structurally allied forms of polymer for light energy harvesting, especially as organic adjuncts for solar energy devices. With the facility to accommodate a proliferation of antenna chromophores, such materials can capture and channel light energy with a high degree of efficiency, each polymer unit potentially delivering the energy of one photon-or more, when optical nonlinearity is involved. To ensure the highest efficiency of operation, it is essential to understand the processes responsible for photon capture and channelling of the resulting electronic excitation. Highlighting the latest theoretical advances, this paper reviews the principal mechanisms, which prove to involve a complex interplay of structural, spectroscopic and electrodynamic properties. Designing materials with the capacity to capture and control light energy facilitates applications that now extend from solar energy to medical photonics. © 2011 by the authors; licensee MDPI, Basel, Switzerland
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