The present work describes for the first time the production of artificial bacterial flagella (ABFs) by combining laser direct writing and wet metallization. ABFs are helical shaped microrobots that can be remotely actuated using low-strength rotating magnetic fields. They can precisely navigate liquid environments, potentially allowing in-vivo cell and drug delivery or localized microsurgery. ABFs are printed via two photon lithography (2PL) and metallized via electroless deposition. The latter is optimized to yield a nanometric CoNiP layer without damaging the delicate structures. The swimming behavior of the CoNiP coated ABFs is then studied by actuating them inside an array of electromagnetic coils
We show that DNA-based self-assembly can serve as a general and flexible tool to construct artificia...
# The Author(s) 2015. This article is published with open access at Springerlink.com Abstract The co...
Magnetic artificial cilia are bio-inspired micro-hairs covering a surface that can be actuated using...
The present work describes for the first time the production of artificial bacterial flagella (ABFs)...
Untethered microswimmers have been recently proposed as possible candidates for a wealth of biomedic...
Inspired by flagellar propulsion of bacteria such as E. coli, artificial bacterial flagella (ABFs) a...
Flagella can be used to make magnetically-controlled microfluidic and nanoscale devices for biomedic...
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...
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...
Nature consists of numerous solutions to overcome challenges in designing artificial systems. Variou...
Autonomous fleets of small-scale robots have the potential to enhance operations or open entirely ne...
In nature, many bacteria swim by rotating their helical flagella. A particularly promising class of ...
One of the great challenges in nano and micro scale science and engineering is the independent manip...
We show that DNA-based self-assembly can serve as a general and flexible tool to construct artificia...
# The Author(s) 2015. This article is published with open access at Springerlink.com Abstract The co...
Magnetic artificial cilia are bio-inspired micro-hairs covering a surface that can be actuated using...
The present work describes for the first time the production of artificial bacterial flagella (ABFs)...
Untethered microswimmers have been recently proposed as possible candidates for a wealth of biomedic...
Inspired by flagellar propulsion of bacteria such as E. coli, artificial bacterial flagella (ABFs) a...
Flagella can be used to make magnetically-controlled microfluidic and nanoscale devices for biomedic...
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...
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...
Nature consists of numerous solutions to overcome challenges in designing artificial systems. Variou...
Autonomous fleets of small-scale robots have the potential to enhance operations or open entirely ne...
In nature, many bacteria swim by rotating their helical flagella. A particularly promising class of ...
One of the great challenges in nano and micro scale science and engineering is the independent manip...
We show that DNA-based self-assembly can serve as a general and flexible tool to construct artificia...
# The Author(s) 2015. This article is published with open access at Springerlink.com Abstract The co...
Magnetic artificial cilia are bio-inspired micro-hairs covering a surface that can be actuated using...