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Abraham D. Stroock

Researcher at Cornell University

Publications -  139
Citations -  16670

Abraham D. Stroock is an academic researcher from Cornell University. The author has contributed to research in topics: Reynolds number & Laminar flow. The author has an hindex of 44, co-authored 132 publications receiving 15244 citations. Previous affiliations of Abraham D. Stroock include Harvard University & Ithaca College.

Papers
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Non-isothermal effects on water potential measurement in a simple geometry

TL;DR: In this article, the authors investigate quantitatively the coupling between gradients of temperature and of chemical or water potential under steady state conditions in the vapor phase and show that thermodiffusion coupled to natural convection could explain the small discrepancy observed between measurements and first order theoretical prediction.
Journal ArticleDOI

Re-entrant transition as a bridge of broken ergodicity in confined monolayers of hexagonal prisms and cylinders.

TL;DR: In this paper, the entropy-driven monolayer assembly of hexagonal prisms and cylinders was studied under hard slit confinement and Monte Carlo simulations revealed a reentrant melting transition where an intervening disordered Flipped-Unflipped (FUN) phase is sandwiched between a fourfold tetratic phase at high concentrations and a sixfold triangular solid at intermediate concentrations.
Proceedings ArticleDOI

Oxygen-Sensing Microfluidic Scaffolds

TL;DR: The development of oxygen-sensing microfluidic scaffolds are proposed, which meet the challenge to develop an in vitro system where one can control and monitor oxygen concentration in a spatiotemporal manner within a three-dimensional (3-D) cell-seeded tissue scaffold.
Patent

Multimodal sensor including a tensiometer, method of use and fabrication

TL;DR: In this article, a multimodal sensor includes a microtensiometer for measuring the chemical potential of a sub-saturated liquid, a temperature sensor, and a water content sensor.
Journal ArticleDOI

Abstract P37: Optimizing Cellular Invasion into Hydrogel Scaffolds Using Microspheres to Create Interfaces of Differential Densities

TL;DR: A novel scaffold containing closely packed higher density collagen microspheres encased in a lower density collagen bulk was fabricated, which created regularly spaced interfaces of differential densities so as to optimize cellular invasion and neovascularization.