The ion flow through channel proteins embedded in a lipid bilayer membrane can be recorded as an electrical current, enabling biophysical characterization and pharmacological drug screening at a single-channel level. These measurements are challenging because the self-assembled bilayers are fragile and the currents are in the pA–nA range. This concise review introduces the bilayer recording methodology, with an emphasis on the requirements for full electrophysiology assays. The self-assembled lipid bilayer, formed in a ∼100 μm diameter aperture in between two aqueous chambers, is critical. Various approaches to increase the measurement throughput by scaling to aperture arrays are discussed in terms of current-amplifier technology, bilayer s...
Making and holding an artificial lipid bilayer horizontally in an aqueous solution within the micros...
Ion channels are natural nanometric pores formed by proteins across cell membranes. They are respons...
A planar lipid bilayer which is widely used for the electrophysiological study of membrane proteins ...
Ion channels are transmembrane proteins responsible of cell signaling and a large part of pharmaceut...
We describe a scalable artificial bilayer lipid membrane platform for rapid electrophysiological scr...
Bilayer lipid membranes (BLMs) are excellent platforms to study ion channels in a functional environ...
i The purpose of this study is to demonstrate that stable lipid bilayers can be set up on an array o...
Lipid bilayer membrane (BLM) arrays are required for high throughput analysis, for example drug scre...
The convergence of integrated electronic devices with nanotechnology structures on heterogeneous sys...
none5Different electrophysiology setups allow single ion channel recordings using Lipid Bilayer Memb...
Ion channel proteins play important roles in various cell functions, making them attractive drug tar...
AbstractPlanar lipid bilayers suspended in apertures provide a controlled environment for ion channe...
We describe two enhancements of the planar bilayer recording method which enable low-noise recording...
Here, we describe a multiplexed microfluidic platform with a series of independently electrically an...
We present single-ion-channel recordings performed with biomimetic lipid membranes w...
Making and holding an artificial lipid bilayer horizontally in an aqueous solution within the micros...
Ion channels are natural nanometric pores formed by proteins across cell membranes. They are respons...
A planar lipid bilayer which is widely used for the electrophysiological study of membrane proteins ...
Ion channels are transmembrane proteins responsible of cell signaling and a large part of pharmaceut...
We describe a scalable artificial bilayer lipid membrane platform for rapid electrophysiological scr...
Bilayer lipid membranes (BLMs) are excellent platforms to study ion channels in a functional environ...
i The purpose of this study is to demonstrate that stable lipid bilayers can be set up on an array o...
Lipid bilayer membrane (BLM) arrays are required for high throughput analysis, for example drug scre...
The convergence of integrated electronic devices with nanotechnology structures on heterogeneous sys...
none5Different electrophysiology setups allow single ion channel recordings using Lipid Bilayer Memb...
Ion channel proteins play important roles in various cell functions, making them attractive drug tar...
AbstractPlanar lipid bilayers suspended in apertures provide a controlled environment for ion channe...
We describe two enhancements of the planar bilayer recording method which enable low-noise recording...
Here, we describe a multiplexed microfluidic platform with a series of independently electrically an...
We present single-ion-channel recordings performed with biomimetic lipid membranes w...
Making and holding an artificial lipid bilayer horizontally in an aqueous solution within the micros...
Ion channels are natural nanometric pores formed by proteins across cell membranes. They are respons...
A planar lipid bilayer which is widely used for the electrophysiological study of membrane proteins ...