Inspired by flagellar propulsion of bacteria such as E. coli, artificial bacterial flagella (ABFs) are magnetic swimming microrobots with helical shapes. ABFs are capable of performing precise three-dimensional (3D) navigation in fluids under low-strength rotating magnetic fields making them attractive tools for targeted drug delivery. Further biomedical functionalization of these swimming microrobots is essential to enhance their biological and medical performances. We report the successful functionalization of titanium-coated ABFs with temperature-sensitive dipalmitoylphosphatidylcholine (DPPC)-based liposomes, known as “smart” drug carriers. Liposome coating on the surface of ABFs was confirmed using quartz crystal microbalance with diss...
Bacteria biohybrids employ the motility and power of swimming bacteria to carry and maneuver microsc...
Magnetic helical microswimmers, also known as artificial bacterial flagella (ABFs), perform 3D navig...
Artificial microswimmers are micron-sized devices that can propel in viscous fluids. Their potentia...
The present work describes for the first time the production of artificial bacterial flagella (ABFs)...
Currently there is a great deal of interest in micro and nano scale robotics for biomedical applicat...
Abstract — Swimming microrobots have the potential to be used in medical applications such as target...
Flagella can be used to make magnetically-controlled microfluidic and nanoscale devices for biomedic...
<p>Living systems have developed intricate multi-functional methods of sensing and responding to the...
Artificial bacterial flagella (ABFs) consist of helical tails resembling natural flagella fabricated...
In this article, a porous hollow biotemplated nanoscale helix that can serve as a low Reynolds numbe...
Flagellated bacteria have been utilized as potential swimming micro-robotic bodies for propulsion of...
Bacteria-propelled biohybrid microswimmers have recently shown to be able to actively transport and ...
Mobile microrobots have been proposed as a promising approach to overcome the limitations of traditi...
Biohybrid cell-driven microsystems offer unparalleled possibilities for realization of soft microrob...
We show that DNA-based self-assembly can serve as a general and flexible tool to construct artificia...
Bacteria biohybrids employ the motility and power of swimming bacteria to carry and maneuver microsc...
Magnetic helical microswimmers, also known as artificial bacterial flagella (ABFs), perform 3D navig...
Artificial microswimmers are micron-sized devices that can propel in viscous fluids. Their potentia...
The present work describes for the first time the production of artificial bacterial flagella (ABFs)...
Currently there is a great deal of interest in micro and nano scale robotics for biomedical applicat...
Abstract — Swimming microrobots have the potential to be used in medical applications such as target...
Flagella can be used to make magnetically-controlled microfluidic and nanoscale devices for biomedic...
<p>Living systems have developed intricate multi-functional methods of sensing and responding to the...
Artificial bacterial flagella (ABFs) consist of helical tails resembling natural flagella fabricated...
In this article, a porous hollow biotemplated nanoscale helix that can serve as a low Reynolds numbe...
Flagellated bacteria have been utilized as potential swimming micro-robotic bodies for propulsion of...
Bacteria-propelled biohybrid microswimmers have recently shown to be able to actively transport and ...
Mobile microrobots have been proposed as a promising approach to overcome the limitations of traditi...
Biohybrid cell-driven microsystems offer unparalleled possibilities for realization of soft microrob...
We show that DNA-based self-assembly can serve as a general and flexible tool to construct artificia...
Bacteria biohybrids employ the motility and power of swimming bacteria to carry and maneuver microsc...
Magnetic helical microswimmers, also known as artificial bacterial flagella (ABFs), perform 3D navig...
Artificial microswimmers are micron-sized devices that can propel in viscous fluids. Their potentia...