In this chapter, we will discuss a method for the generation of gradients that can be quantitatively used for studying directional cell migration. Microfluidic networks, which serially split and remix small volumes of solutions under laminar flow conditions to generate a series of microchannels of increasing protein concentration. At a juncture of these microchannels, where a single broad channel is formed, a protein concentration gradient can be easily achieved. This method is highly useful because of the ability with which we can control, manipulate and analyze chemical gradients and cells� chemotactic behavior in a quantitative manner
Many chemical and biological processes are dependent on molecular gradients. We describe a new micro...
We describe the use of a microfluidic device to micropattern cells in a microchannel and investigate...
Chemotactic motion in a chemical gradient is an essential cellular function that controls many proce...
In this chapter, we will discuss a method for the generation of gradients that can be quantitatively...
Cell migration of endothelial cells along gradients is an important process in vivo and an interesti...
Understanding biomolecular gradients and their role in biological processes is essential for fully c...
This paper reports the development, modeling, and testing of an original microfluidic chip capable o...
Microfluidics has been proven to be a valuable tool in the study of biological systems. The possibil...
The ability to rapidly generate concentration gradients of diffusible molecules has important applic...
A new method for producing molecular gradients of arbitrary shape in thin three dimensional gels is ...
Microfluidics has shown promise in mimicking a cellular environment that is more physiologically rel...
Cellular locomotion is a central hallmark of eukaryotic life. It is governed by cell-extrinsic molec...
Over the past decade, microfluidic techniques have been established as a versatile platform to perfo...
Although a wealth of knowledge about chemotaxis has accumulated in the past 40 years, these studies ...
We present a robust microfluidic platform for the stable generation of multiple chemical gradients s...
Many chemical and biological processes are dependent on molecular gradients. We describe a new micro...
We describe the use of a microfluidic device to micropattern cells in a microchannel and investigate...
Chemotactic motion in a chemical gradient is an essential cellular function that controls many proce...
In this chapter, we will discuss a method for the generation of gradients that can be quantitatively...
Cell migration of endothelial cells along gradients is an important process in vivo and an interesti...
Understanding biomolecular gradients and their role in biological processes is essential for fully c...
This paper reports the development, modeling, and testing of an original microfluidic chip capable o...
Microfluidics has been proven to be a valuable tool in the study of biological systems. The possibil...
The ability to rapidly generate concentration gradients of diffusible molecules has important applic...
A new method for producing molecular gradients of arbitrary shape in thin three dimensional gels is ...
Microfluidics has shown promise in mimicking a cellular environment that is more physiologically rel...
Cellular locomotion is a central hallmark of eukaryotic life. It is governed by cell-extrinsic molec...
Over the past decade, microfluidic techniques have been established as a versatile platform to perfo...
Although a wealth of knowledge about chemotaxis has accumulated in the past 40 years, these studies ...
We present a robust microfluidic platform for the stable generation of multiple chemical gradients s...
Many chemical and biological processes are dependent on molecular gradients. We describe a new micro...
We describe the use of a microfluidic device to micropattern cells in a microchannel and investigate...
Chemotactic motion in a chemical gradient is an essential cellular function that controls many proce...