Multilayered or stacked lipid membranes are a common principle in biology and have
various functional advantages compared to single‐lipid membranes, such as their ability to …

An electrode surface is presented that enables the characterization of redox-active
membrane enzymes in a native-like environment. An ubiquinol oxidase from Escherichia …

For more than three decades, the field of bioelectrochemistry has provided novel insights
into the catalytic mechanisms of enzymes, the principles that govern biological electron …

Artificial nanobiomolecular architectures that follow natural examples in protein assembly
become more and more important from basic and applied points of view. Our study …

Hybrid bilayer membrane (HBM) platforms represent an emerging nanoscale bio-inspired
interface that has broad implications in energy catalysis and smart molecular devices. An …

Combining biological tools with nanotechnology: The use of a lipolytic enzyme together with
an atomic force microscope to locally hydrolyze supported phospholipid membranes is …

In nature, many enzymes are attached or inserted into the cell membrane, having
hydrophobic subunits or lipid chains for this purpose. Their reconstitution on electrodes …

Nanomembranes are extremely thin (< 5–10 nm), synthetic two-dimensional (2D) layers or
sheets with tailored physical, chemical, or biological functions. With their two opposing …

As surfaces for enzyme immobilization, lipid bilayers (LBs) have the potential to exhibit
chaperone‐like activity, which can greatly enhance enzyme stability. Here, it is shown that …

Cell membranes contain a variety of lipids and functional proteins that offer active platforms
that organize the membrane components into functional assemblies and perform …