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Benjamin C. Olbricht

Researcher at University of Washington

Publications -  35
Citations -  963

Benjamin C. Olbricht is an academic researcher from University of Washington. The author has contributed to research in topics: Chromophore & Laser. The author has an hindex of 14, co-authored 35 publications receiving 896 citations. Previous affiliations of Benjamin C. Olbricht include University of Delaware & Johns Hopkins University Applied Physics Laboratory.

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Rational enhancement of second-order nonlinearity: bis-(4-methoxyphenyl)hetero-aryl-amino donor-based chromophores: design, synthesis, and electrooptic activity.

TL;DR: The results of these studies provide insight into the complicated effects on molecular hyperpolarizability of substituting heteroaromatic subunits into the donor group structures and ab initio DFT generated beta(0;0,0) is effective as a predictor of changes in r33 behavior based on chromophore structure modification.
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Theory-guided design and synthesis of multichromophore dendrimers: an analysis of the electro-optic effect.

TL;DR: These results provide new insight into the ordering behavior of EO dendrimers and demonstrate that the frequently observed asymptotic dependence of electro-optic activity on chromophore number density may be overcome through rational design.
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Guest-Host Cooperativity in Organic Materials Greatly Enhances the Nonlinear Optical Response

TL;DR: The experimentally observed increase in the nonlinear optical response of two representative classes of EO chromophore−EO dendrimer and EO Chromophore+EO polymer mixtures relative to the response of the isolated components is described quantitatively herein by a physical model that accounts for cooperativity in the guest−host interactions.
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Theory-inspired development of new nonlinear optical materials and their integration into silicon photonic circuits and devices

TL;DR: Theoretical guidance based on correlated real-time, time-dependent density functional theory (RTTDDFT) quantum mechanical and pseudo-atomistic Monte Carlo molecular dynamical (PAMCMD) statistical mechanical computational methods have led to dramatic (exceeding a Moore's rate) improvement in molecular and macroscopic optical nonlinearity as discussed by the authors.
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Organic electro-optics: Understanding material structure/function relationships and device fabrication issues

TL;DR: In this paper, correlated quantum and statistical mechanical calculations are required to understand the dependence of macroscopic electro-optic activity upon chromophore structure and intermolecular electrostatic interactions.