We study a synthetic system of motile Escherichia coli bacteria encapsulated inside giant lipid vesicles. Forces exerted by the bacteria on the inner side of the membrane are sufficient to extrude membrane tubes filled with one or several bacteria. We show that a physical coupling between the membrane tube and the flagella of the enclosed cells transforms the tube into an effective helical flagellum propelling the vesicle. We develop a simple theoretical model to estimate the propulsive force from the speed of the vesicles and demonstrate the good efficiency of this coupling mechanism. Together, these results point to design principles for conferring motility to synthetic cells
When vegetative bacteria that can swim are grown in a rich medium on an agar surface, they become mu...
Our present capabilities to build nanomachines are very limited compared to the elegance and effi-ci...
Biomolecular motors can pull and viscously drag membranes. The resulting elongations include cell pr...
Peritrichously-flagellated bacteria, such as Escherichia coli, self-propel in fluids by using specia...
Single flagellated bacteria are ubiquitous in nature. They exhibit various swimming modes using thei...
Bacteria biohybrids employ the motility and power of swimming bacteria to carry and maneuver microsc...
Living organisms often display adaptive strategies that allow them to move efficiently even in stron...
This thesis investigates bacterial motility from the mechanism permitting individual selfpropulsion ...
A crucial structure in the motility of flagellated bacteria is the hook, which connects the flagellu...
Our present capabilities to build nanomachines are very limited compared to the elegance and efficie...
© 2001 Samuel et al; licensee BioMed Central Ltd. This is an Open Access article: verbatim copying a...
The bacterial Min protein system was encapsulated in giant unilamellar vesicles (GUVs). Using confoc...
Bacterial swimming and chemotaxis serves as a model system for understanding information processing ...
Here we describe the utilization of flagellated bacteria as actuators to propel spherical liposomes ...
Over millions of years, Nature has optimized the motion of biological systems at the micro and nanos...
When vegetative bacteria that can swim are grown in a rich medium on an agar surface, they become mu...
Our present capabilities to build nanomachines are very limited compared to the elegance and effi-ci...
Biomolecular motors can pull and viscously drag membranes. The resulting elongations include cell pr...
Peritrichously-flagellated bacteria, such as Escherichia coli, self-propel in fluids by using specia...
Single flagellated bacteria are ubiquitous in nature. They exhibit various swimming modes using thei...
Bacteria biohybrids employ the motility and power of swimming bacteria to carry and maneuver microsc...
Living organisms often display adaptive strategies that allow them to move efficiently even in stron...
This thesis investigates bacterial motility from the mechanism permitting individual selfpropulsion ...
A crucial structure in the motility of flagellated bacteria is the hook, which connects the flagellu...
Our present capabilities to build nanomachines are very limited compared to the elegance and efficie...
© 2001 Samuel et al; licensee BioMed Central Ltd. This is an Open Access article: verbatim copying a...
The bacterial Min protein system was encapsulated in giant unilamellar vesicles (GUVs). Using confoc...
Bacterial swimming and chemotaxis serves as a model system for understanding information processing ...
Here we describe the utilization of flagellated bacteria as actuators to propel spherical liposomes ...
Over millions of years, Nature has optimized the motion of biological systems at the micro and nanos...
When vegetative bacteria that can swim are grown in a rich medium on an agar surface, they become mu...
Our present capabilities to build nanomachines are very limited compared to the elegance and effi-ci...
Biomolecular motors can pull and viscously drag membranes. The resulting elongations include cell pr...