Membrane proteins embedded in bilayer lipids of cell membrane have unique functions including inter-cell communication and ionic/molecular transport. To understand the structure and function of the membrane protein embedded in a native biological bilayer lipid environment is a major research area in biology. A reconstitution/crystallisation process of membrane proteins and lipids can form virus-like nanoparticles, and have important potential applications in drug design and drug delivery. Earlier studies used a standard dialysis process that is inherently low-throughput, time consuming (days to weeks) and costly in protein materials. In this reported work a new microfluidic device is demonstrated to rapidly form membrane protein lipid n...
Membrane proteins are generally unstable in detergents. Therefore, biochemical and biophysical studi...
Microfluidics is an emerging technology that can be employed as a powerful tool for designing lipid ...
We demonstrate here that nanotube-vesicle networks can be constructed directly from plasma membranes...
Membrane proteins embedded in bilayer lipids of cell membrane have unique functions including inter-...
Membrane proteins embedded in bi-layer lipids of cell membrane have unique functions including inter...
Microfluidic devices, so-called BioMEMs, or Lab on a chip, have been widely used to improve the scie...
ABSTRACT: We report on a microfluidic method for the formation of aqueous/lipid mesophases to enable...
Membrane proteins are essential to cellular functions, including cell-cell communication and signal ...
A microfluidic platform is reported for various experimentation schemes on cell membrane models and ...
International audienceBeing the base element of cell membranes, lipid bilayers are an essential ingr...
Advancements in microfluidics (the study of how fluids and gases behave at the micro and nano-scale)...
We describe a system that provides a rapid and simple way of forming suspended lipid bilayers within...
Self-assembled proteolipid particles, termed 'nanodiscs', consist of approximately 150 lipid molecul...
In recent years, protein array technologies have found widespread applications in proteomics. Howeve...
Functional assays of membrane proteins are becoming increasingly important, both in research and dru...
Membrane proteins are generally unstable in detergents. Therefore, biochemical and biophysical studi...
Microfluidics is an emerging technology that can be employed as a powerful tool for designing lipid ...
We demonstrate here that nanotube-vesicle networks can be constructed directly from plasma membranes...
Membrane proteins embedded in bilayer lipids of cell membrane have unique functions including inter-...
Membrane proteins embedded in bi-layer lipids of cell membrane have unique functions including inter...
Microfluidic devices, so-called BioMEMs, or Lab on a chip, have been widely used to improve the scie...
ABSTRACT: We report on a microfluidic method for the formation of aqueous/lipid mesophases to enable...
Membrane proteins are essential to cellular functions, including cell-cell communication and signal ...
A microfluidic platform is reported for various experimentation schemes on cell membrane models and ...
International audienceBeing the base element of cell membranes, lipid bilayers are an essential ingr...
Advancements in microfluidics (the study of how fluids and gases behave at the micro and nano-scale)...
We describe a system that provides a rapid and simple way of forming suspended lipid bilayers within...
Self-assembled proteolipid particles, termed 'nanodiscs', consist of approximately 150 lipid molecul...
In recent years, protein array technologies have found widespread applications in proteomics. Howeve...
Functional assays of membrane proteins are becoming increasingly important, both in research and dru...
Membrane proteins are generally unstable in detergents. Therefore, biochemical and biophysical studi...
Microfluidics is an emerging technology that can be employed as a powerful tool for designing lipid ...
We demonstrate here that nanotube-vesicle networks can be constructed directly from plasma membranes...