Surface-associated bacteria typically form self-organizing communities called biofilms. Spatial segregation is important for various bacterial processes associated with cellular and community development. Here, we demonstrate bacterial ordering and oriented attachment on the single-cell level induced by nanometer-scale periodic surface features. These surfaces cause spontaneous and distinct patterning phases, depending on their periodicity, which is observed for several strains, both gram positive and negative. This patterning is a general phenomenon that can control natural biofilm organization.Chemistry and Chemical BiologyEngineering and Applied Science
Bacteria have evolved as intelligent microorganisms that can colonize and form highly structured and...
Bacteria have evolved as intelligent microorganisms that can colonize and form highly structured and...
Dense bacterial communities, known as biofilms, can have functional spatial organization driven by s...
ABSTRACT Surface-associated bacteria typically form self-organizing communities called biofilms. Spa...
Surface topography designed to achieve spatial segregation has shown promise in delaying bacterial a...
Surface topography designed to achieve spatial segregation has shown promise in delaying bacterial a...
Surface engineering is a promising strategy to limit or prevent the formation of biofilms. The use o...
Surface engineering is a promising strategy to limit or prevent the formation of biofilms. The use o...
Surface-associated communities of bacteria, called biofilms, pervade natural and anthropogenic envir...
Nanostructured surfaces are called "promising" to control bacterial adhesion and biofilm formation. ...
Bacterial biofilms are ubiquitous and are the major cause of chronic infections in humans and persis...
Bacterial attachment to material surfaces can lead to the development of biofilms that cause severe ...
textIt has only been within recent decades that the complexity and heterogeneity of the biofilm mode...
Bacterial adhesion to surfaces and subsequent formation of microcolonies play important roles in bio...
Bacterial biofilms are sessile microbial communities that cause serious problems, such as antibiotic...
Bacteria have evolved as intelligent microorganisms that can colonize and form highly structured and...
Bacteria have evolved as intelligent microorganisms that can colonize and form highly structured and...
Dense bacterial communities, known as biofilms, can have functional spatial organization driven by s...
ABSTRACT Surface-associated bacteria typically form self-organizing communities called biofilms. Spa...
Surface topography designed to achieve spatial segregation has shown promise in delaying bacterial a...
Surface topography designed to achieve spatial segregation has shown promise in delaying bacterial a...
Surface engineering is a promising strategy to limit or prevent the formation of biofilms. The use o...
Surface engineering is a promising strategy to limit or prevent the formation of biofilms. The use o...
Surface-associated communities of bacteria, called biofilms, pervade natural and anthropogenic envir...
Nanostructured surfaces are called "promising" to control bacterial adhesion and biofilm formation. ...
Bacterial biofilms are ubiquitous and are the major cause of chronic infections in humans and persis...
Bacterial attachment to material surfaces can lead to the development of biofilms that cause severe ...
textIt has only been within recent decades that the complexity and heterogeneity of the biofilm mode...
Bacterial adhesion to surfaces and subsequent formation of microcolonies play important roles in bio...
Bacterial biofilms are sessile microbial communities that cause serious problems, such as antibiotic...
Bacteria have evolved as intelligent microorganisms that can colonize and form highly structured and...
Bacteria have evolved as intelligent microorganisms that can colonize and form highly structured and...
Dense bacterial communities, known as biofilms, can have functional spatial organization driven by s...