BslA is an amphiphilic protein that forms a highly hydrophobic coat around <i>Bacillus subtilis</i> biofilms, shielding the bacterial community from external aqueous solution. It has a unique structure featuring a distinct partition between hydrophilic and hydrophobic surfaces. This surface property is reminiscent of synthesized Janus colloids. By investigating the behavior of BslA variants at water-cyclohexane interfaces through a set of multiscale simulations informed by experimental data, we show that BslA indeed represents a biological example of an ellipsoidal Janus nanoparticle, whose surface interactions are, moreover, readily switchable. BslA contains a local conformational toggle, which controls its global affinity for, and orienta...
Hydrophobins are small proteins secreted by fungi, which self-assemble into amphipathic membranes at...
Hydrophobins are extracellular proteins produced by filamentous fungi. They show a variety of functi...
Nanostructured surfaces are called "promising" to control bacterial adhesion and biofilm formation. ...
The soil bacterium Bacillus subtilis is a model organism to investigate the formation of biofilms, t...
Protein adsorption and assembly at interfaces provide a potentially versatile route to create useful...
Bacteria can survive harsh conditions when growing in complex communities of cells known as biofilms...
Protein adsorption and assembly at interfaces provide a potentially versatile route to create useful...
Bacteria can survive harsh conditions when growing in complex communities of cells known as biofilms...
The rapid rise of antibiotic resistance has become a critical global health concern, necessitating t...
Most of the world’s bacteria exist in robust, sessile communities known as biofilms, ubiquitously ad...
The formation of multicellular communities known as biofilms is the part of bacterial life cycle in ...
Over the millennia, diverse species of bacteria have evolved multiple independent mechanisms to stru...
Class I fungal hydrophobins form amphipathic monolayers composed of amyloid rodlets. This is a remar...
The class I hydrophobin EAS is part of a family of small, amphiphilic fungal proteins best known for...
Thesis: Ph. D., Harvard-MIT Program in Health Sciences and Technology, 2014.Cataloged from PDF versi...
Hydrophobins are small proteins secreted by fungi, which self-assemble into amphipathic membranes at...
Hydrophobins are extracellular proteins produced by filamentous fungi. They show a variety of functi...
Nanostructured surfaces are called "promising" to control bacterial adhesion and biofilm formation. ...
The soil bacterium Bacillus subtilis is a model organism to investigate the formation of biofilms, t...
Protein adsorption and assembly at interfaces provide a potentially versatile route to create useful...
Bacteria can survive harsh conditions when growing in complex communities of cells known as biofilms...
Protein adsorption and assembly at interfaces provide a potentially versatile route to create useful...
Bacteria can survive harsh conditions when growing in complex communities of cells known as biofilms...
The rapid rise of antibiotic resistance has become a critical global health concern, necessitating t...
Most of the world’s bacteria exist in robust, sessile communities known as biofilms, ubiquitously ad...
The formation of multicellular communities known as biofilms is the part of bacterial life cycle in ...
Over the millennia, diverse species of bacteria have evolved multiple independent mechanisms to stru...
Class I fungal hydrophobins form amphipathic monolayers composed of amyloid rodlets. This is a remar...
The class I hydrophobin EAS is part of a family of small, amphiphilic fungal proteins best known for...
Thesis: Ph. D., Harvard-MIT Program in Health Sciences and Technology, 2014.Cataloged from PDF versi...
Hydrophobins are small proteins secreted by fungi, which self-assemble into amphipathic membranes at...
Hydrophobins are extracellular proteins produced by filamentous fungi. They show a variety of functi...
Nanostructured surfaces are called "promising" to control bacterial adhesion and biofilm formation. ...