Proteins are molecular machines whose function depends on their ability to achieve complex folds with precisely defined structural and dynamic properties. The rational design …
The design of peptides that assemble in membranes to form functional ion channels is challenging. Specifically, hydrophobic interactions must be designed between the peptides …
The computational design of transmembrane proteins with more than one membrane- spanning region remains a major challenge. We report the design of transmembrane …
Transmembrane (TM) helices of integral membrane proteins can facilitate strong and specific noncovalent protein–protein interactions. Mutagenesis and structural analyses have …
The features that stabilize the structures of membrane proteins remain poorly understood. Polar interactions contribute modestly, and the hydrophobic effect contributes little to the …
Conspectus Transmembrane proteins located within biological membranes play a crucial role in a variety of important cellular processes, such as energy conversion and signal …
The exquisite structure-function correlations observed in filamentous protein assemblies provide a paradigm for the design of synthetic peptide-based nanomaterials. However, the …
Interaction between transmembrane helices often determines biological activity of membrane proteins. Bitopic proteins, a broad subclass of membrane proteins, form dimers …
Single-pass membrane receptors contain extracellular domains that respond to external stimuli and transmit information to intracellular domains through a single transmembrane …