This paper presents a proof-of-concept prototype of a micro force sensing mobile microrobot. The design consists of a planar, elastic mechanism serving as computer vision-based force sensor module, while the microrobot body is made from a magnetic layer driven by a magnetic field. From observing the deformation of the elastic mechanism, manipulation forces can be determined. The deformation is tracked by a CCD camera attached to an optical microscope. This design is validated through experimental tests with a micromachined prototype. The preliminary results verify this first microrobot prototype is indeed capable of in situ force sensing. This concept can be scaled down further for next generation designs and can be designed for real biomed...
In the microrobotic field, the handling of small objects is needed. In order to characterize interac...
A magnetic micromanipulator capable of generating two-dimensional translational and rotational motio...
Microorganisms can move in complex media, respond to the environment and self-organize. The field of...
Over the years, research and development of micro-force sensing techniques has gained a lot of tract...
Abstract—Microrobots experience physical phenomena that are difficult to model analytically and that...
International audienceIn this paper, we present the design of a new magentic nano and microforce sen...
Untethered, controllable, mobile microrobots have been proposed for numerous applications, ranging f...
Magnetic manipulation finds diverse applications in actuation, characterization, and manipulation of...
Untethered mobile microrobots, robotic systems where the untethered mobile component has a character...
International audienceFor actuating the magnetic microrobots, two types of magnetic actuation techno...
With the rapid development of micro/nanomanufacturing technology, a variety of multifunctional micro...
Abstract—Existing remotely-actuated microrobots powered by magnetic coils far from the workspace exh...
The continuing trend in miniaturization of technology, advancements in micro and nanofabrication and...
We aimed to develop a micro-robot that can crawl on contact surfaces in biological environments. The...
University of Minnesota Ph.d. dissertation. December 2008. Major: Mechanical Engineering. Advisor: B...
In the microrobotic field, the handling of small objects is needed. In order to characterize interac...
A magnetic micromanipulator capable of generating two-dimensional translational and rotational motio...
Microorganisms can move in complex media, respond to the environment and self-organize. The field of...
Over the years, research and development of micro-force sensing techniques has gained a lot of tract...
Abstract—Microrobots experience physical phenomena that are difficult to model analytically and that...
International audienceIn this paper, we present the design of a new magentic nano and microforce sen...
Untethered, controllable, mobile microrobots have been proposed for numerous applications, ranging f...
Magnetic manipulation finds diverse applications in actuation, characterization, and manipulation of...
Untethered mobile microrobots, robotic systems where the untethered mobile component has a character...
International audienceFor actuating the magnetic microrobots, two types of magnetic actuation techno...
With the rapid development of micro/nanomanufacturing technology, a variety of multifunctional micro...
Abstract—Existing remotely-actuated microrobots powered by magnetic coils far from the workspace exh...
The continuing trend in miniaturization of technology, advancements in micro and nanofabrication and...
We aimed to develop a micro-robot that can crawl on contact surfaces in biological environments. The...
University of Minnesota Ph.d. dissertation. December 2008. Major: Mechanical Engineering. Advisor: B...
In the microrobotic field, the handling of small objects is needed. In order to characterize interac...
A magnetic micromanipulator capable of generating two-dimensional translational and rotational motio...
Microorganisms can move in complex media, respond to the environment and self-organize. The field of...