Microfluidics: Basic issues, applications, and challenges

By Howard A. Stone, S. Kim. 2001

549 citations recorded by the source corpus.

Subfields: Biomedical Engineering, Electrical and Electronic Engineering

View Paper: https://www.semanticscholar.org/paper/fbe29bf8cf1765dd36bdc568493f03eeaec3e6b3

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Biomedical Engineering

In Electrical and Electronic Engineering

Citations in the corpus

Microfluidics Integrated Biosensors: A Leading Technology towards Lab-on-a-Chip and Sensing Applications (2015, unknown): “pre-concentration and treatment [102].”
Tractions, Balances, and Boundary Conditions for Nonsimple Materials with Application to Liquid Flow at Small-Length Scales (2006, background): “An understanding of the flow of liquids at small-length scales is of central importance in a wide variety of disciplines, including biology [2, 25, 39], chemistry [8, 10, 16], and the rapidly expanding fields of micro- and nanotechnology [9, 37, 38, 44].”
Induced-charge electro-osmosis (2003, background): “…pp. 217–252. c© 2004 Cambridge University Press DOI: 10.1017/S0022112004009309 Printed in the United Kingdom 217 Induced-charge electro-osmosis By TODD M. SQUIRES1 AND MARTIN Z. BAZANT2 1Departments of Applied and Computational Mathematics and Physics, California Institute of Technology,…”
Microfluidics for cell separation (2010, background): “However, the focus of the field has now been shifting more toward addressing the need for cell biology studies [4, 8, 29, 76, 99, 110].”
Mass transport and surface reactions in microfluidic systems (2006, background): “The small length scales lead to laminar flows (Stone and Kim, 2001; Stone et al., 2004) and the corresponding high surface-to-volume ratio implies that understanding transport and reactions at surfaces requires special consideration.”
PCR microfluidic devices for DNA amplification. (2006, background): “…by MEMS will represent a central technology in many miniaturized systems used for biological, chemical, and medical applications, whose advances promise to revolutionize many processes of detection of pathogens or environmental pollutants (Chow, 2002; Felton, 2003; Stone and Kim, 2001).”
Experimental observation of induced-charge electro-osmosis around a metal wire in a microchannel (2005, background): “Microfluidics holds the promise of ultra-fast iological assays, analysis of ultra-dilute samples and charcterization of a previously unrealized compounds [1–3].”
Materials perspective on Casimir and van der Waals interactions (2015, methodology): “Despite these shortcomings, PWS approximations have been recently applied to numerically approximate interactions in complex geometries (Sedmik et al., 2007; Tajmar, 2004), especially in the field of microfluidics (Parsegian, 2006; Stone and Kim, 2001).”
ENGINEERING FLOWS IN SMALL DEVICES (2004, background): “…individual and integrated flow configurations with length scales on the order of tens and hundreds of microns and smaller (e.g., Ho & Tai 1998, Stone & Kim 2001, Whitesides & Stroock 2001), (b) rapid developments in biology and biotechnology for which manipulations on the cellular length…”
Microfluidics: Fluid physics at the nanoliter scale (2005, background): “Perspective pieces, both early Manz et al., 1993; Ramsey et al., 1995 and more recent Ramsey, 1999; Figeys and Pinto, 2000; Stone and Kim, 2001; Meldrum and Holl, 2002; Hong and Quake, 2003 , describe the promise, progress, and challenges for the field.”