Survival of a species requires that a reasonable identity be maintained. Over time,
mechanisms to maintain “self” have evolved. To keep persisting, most of microorganisms …

Yersinia species, as well as many other Gram-negative pathogens, use a type III secretion
system (T3SS) to translocate effector proteins from the bacterial cytoplasm to the host …

An ever increasing number of Gram-negative bacteria is known to utilise one or several type
three secretion systems (T3SSs), mostly pathogens that manipulate their host cells by …

The type 3 secretion systems (T3SSs) are virulence mechanisms used by various Gram-
negative bacteria to overcome the host immunity. They are often target-cell contact induced …

The type III secretion system (T3SS) is a highly conserved secretion system among Gram
negative bacteria that translocates anti-host proteins directly into the infected cells to …

Yersinia species, as well as many other Gram-negative pathogens, use a type III secretion
system (TTSS) to translocate effector proteins from the bacterial cytoplasm to the host …

Type III secretion systems (T3SS) are a common feature of Gram-negative bacteria, allowing
them to inject anti-host effectors into the interior of infected eukaryotic cells. By this …

Pathogenic yersiniae utilize a type III secretion system to inject antihost factors, called Yops,
directly into the cytosol of eukaryotic cells. The Yops are injected via a needle-like structure …

Type III secretion system mediated secretion and translocation of Yop-effector proteins
across the eukaryotic target cell membrane by pathogenic Yersinia is highly organized and …

Yersinia species, as well as many other Gram-negative pathogens, use a type III secretion
system (T3SS) to translocate effector proteins from the bacterial cytoplasm to the host …