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Ralph G. Nuzzo

Researcher at University of Illinois at Urbana–Champaign

Publications -  433
Citations -  57277

Ralph G. Nuzzo is an academic researcher from University of Illinois at Urbana–Champaign. The author has contributed to research in topics: Thin film & Infrared spectroscopy. The author has an hindex of 95, co-authored 426 publications receiving 53617 citations. Previous affiliations of Ralph G. Nuzzo include California Institute of Technology & Bell Labs.

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Mechanisms of enhanced optical absorption for ultrathin silicon solar microcells with an integrated nanostructured backside reflector.

TL;DR: Computational modeling that is supported by experimental measurements reveal that the dominant methods of enhancement stem from a complex interplay between backside diffraction/scattering and Fabry-Pérot resonances, and plasmonic interactions contribute minimally to the optical enhancements seen.
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Norbornadiene on Pt(111) Is Not Bound as an .eta.2:.eta.2 Diene: Characterization of an Unexpected .eta.2:.eta.1 Bonding Mode Involving an Agostic Pt.cntdot..cntdot..cntdot.H-C Interaction

TL;DR: The structure and reactivity of norbornadiene (NBD) adsorbed on Pt(111) has been studied by several physical techniques as discussed by the authors, and it has been shown that NBD is bound to the surface in an unusual way: through only one C-C double bond and through an agostic interaction involving one of the C-H bonds of the bridging CH{sub 2}.
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Variably elastic hydrogel patterned via capillary action in microchannels

TL;DR: Agarose hydrogels of varied elastic modulus can be patterned into 100-microm-wide channels with wall heights of 60 microm and this new method of patterning allows for the creation of substrates that take advantage of both micron-scale patterns and variably elasticHydrogels.
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Quantitative Reflection Imaging of Fixed Aplysia californica Pedal Ganglion Neurons on Nanostructured Plasmonic Crystals

TL;DR: The capability of a label-free optical imaging technique-surface plasmon resonance (SPR) to quantitatively investigate the relative thickness of complex biomolecular structures using a nanoimprinted plAsmonic crystal and laboratory microscope is demonstrated.