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Anand Yethiraj

Researcher at St. John's University

Publications -  77
Citations -  2580

Anand Yethiraj is an academic researcher from St. John's University. The author has contributed to research in topics: Phase transition & Liquid crystal. The author has an hindex of 22, co-authored 72 publications receiving 2381 citations. Previous affiliations of Anand Yethiraj include University of British Columbia & Fundamental Research on Matter Institute for Atomic and Molecular Physics.

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Epitaxial Crystal Growth of Charged Colloids

TL;DR: A pattern of repulsive, charged lines is shown to direct three-dimensional (3D) crystallization in a system of long-range repulsion, density-matched colloids.
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Dynamics of Crystal Structure Formation in Spin-Coated Colloidal Films

TL;DR: In this paper, the authors explore the transient dynamics of evaporative colloid spin-coating for the first time, via a combination of high-speed imaging, atomic force microscopy, static photography, and scanning electron microscopy.
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An NMR study of translational diffusion and structural anisotropy in magnetically alignable nonionic surfactant mesophases.

TL;DR: The values of the water and soap diffusion coefficients in the oriented lamellarphase suggest an increase in defects and obstructions to soap diffusion as a function of increasing water content, while those in the low-water-content micellar phase rule out the presence of inverse micelles.
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NMR detection of an equilibrium phase consisting of monomers and clusters in concentrated lysozyme solutions.

TL;DR: P pulsed-field-gradient NMR spectroscopy is used to characterize diffusion in the long-time limit in concentrated lysozyme solutions and finds strong evidence for the existence of an equilibrium phase that consists of both lyso enzyme monomers and clusters (aggregates).
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Modified spin-coating technique to achieve directional colloidal crystallization.

TL;DR: By arranging the field direction to be stationary in the rotating frame, this work is able to break the axial symmetry and to orient the colloids along one predefined direction, and thus, the orientation is determined by the applied field strength.