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Benjamin M. Ocko

Researcher at Brookhaven National Laboratory

Publications -  115
Citations -  8092

Benjamin M. Ocko is an academic researcher from Brookhaven National Laboratory. The author has contributed to research in topics: Monolayer & Scattering. The author has an hindex of 43, co-authored 111 publications receiving 7647 citations. Previous affiliations of Benjamin M. Ocko include Brookhaven College & Harvard University.

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Molecular layering of fluorinated ionic liquids at a charged sapphire (0001) surface.

TL;DR: Room-temperature ionic liquids with the tris(pentafluoroethyl)trifluorophosphate anion in contact with a charged sapphire substrate were investigated with submolecular resolution and showed strong interfacial layering, akin to the charge inversion effect.
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Capillary Waves on the Surface of Simple Liquids Measured by X-Ray Reflectivity

TL;DR: The properties of the liquid-vapor interface for three simple liquids have been measured using x-ray reflectivity and the measured surface roughness is interpreted using a model that combines the effects of thermally induced capillary waves and the dimensions of the constituent molecules.
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X-Ray Specular Reflection Studies of Silicon Coated by Organic Monolayers (Alkylsiloxanes)

TL;DR: The ability to use x-ray reflectivity to characterize chemical changes before and after chemical reaction of a monolayer in which the alkyl chain was terminated by an olefinic group was demonstrated.
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Surface freezing in chain molecules: Normal alkanes

TL;DR: In this paper, a rare surface freezing phenomenon is observed in normal alkanes, using x-ray and surface tension measurements, and an ordered monolayer forms on the surface of the liquid alkane at temperatures up to 3 \ifmmode^\circ\else\textdegree\fi{}C above the bulk freezing temperature.
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X-ray reflectivity measurements of surface layering in liquid mercury.

TL;DR: The surface normal structure of the mercury liquid-vapor interface has been investigated by measuring the x-ray reflectivity out to a momentum transfer of {ital q}{sub {ital z}}=2.5 A, providing direct experimental proof of surface layering in liquid metals.