AbstractA platform of discrete microscopic magnetic elements patterned on a surface offers dynamic control over the motion of fluid-borne cells by reprogramming the magnetization within the magnetic bits. T-lymphocyte cells tethered to magnetic microspheres and untethered leukemia cells are remotely manipulated and guided along desired trajectories on a silicon surface by directed forces with average speeds up to 20 μm/s. In addition to navigating cells, the microspheres can be operated from a distance to push biological and inert entities and act as local probes in fluidic environments
The importance of magnetic micro- and nanoparticles for applications in biomedical technology is wid...
This study reports the design, realization, and characterization of a multi-pole magnetic tweezers t...
© The Author(s) 2016.Inspired by the biogenic magnetism found in certain organisms, such as magnetot...
AbstractA platform of discrete microscopic magnetic elements patterned on a surface offers dynamic c...
We present a multiplex method, based on microscopic programmable magnetic traps in zigzag wires patt...
Live mammalian cells are captured and manipulated in magneto-fluidic traps created in a suspension o...
Single cells, despite being the base unit of living organisms, possess a high degree of hierarchical...
PubMed: 30619842Live cell manipulation is an important biotechnological tool for cellular and tissue...
Live cell manipulation is an important biotechnological tool for cellular and tissue level bioengine...
AbstractThis study reports the design, realization, and characterization of a multi-pole magnetic tw...
AbstractWe discuss the possibility of a specially designed electro-magnetic template with magnetic n...
Single-cell analysis is an emerging discipline that has shown a transformative impact in cell biolog...
An approach is described for controlling the spatial organization of mammalian cells using ferromagn...
The manipulation of biological molecules and single cells on a surface is of fundamental importance ...
Microfluidics, the manipulation of fluid samples on the order of nanoliters and picoliters, is rapid...
The importance of magnetic micro- and nanoparticles for applications in biomedical technology is wid...
This study reports the design, realization, and characterization of a multi-pole magnetic tweezers t...
© The Author(s) 2016.Inspired by the biogenic magnetism found in certain organisms, such as magnetot...
AbstractA platform of discrete microscopic magnetic elements patterned on a surface offers dynamic c...
We present a multiplex method, based on microscopic programmable magnetic traps in zigzag wires patt...
Live mammalian cells are captured and manipulated in magneto-fluidic traps created in a suspension o...
Single cells, despite being the base unit of living organisms, possess a high degree of hierarchical...
PubMed: 30619842Live cell manipulation is an important biotechnological tool for cellular and tissue...
Live cell manipulation is an important biotechnological tool for cellular and tissue level bioengine...
AbstractThis study reports the design, realization, and characterization of a multi-pole magnetic tw...
AbstractWe discuss the possibility of a specially designed electro-magnetic template with magnetic n...
Single-cell analysis is an emerging discipline that has shown a transformative impact in cell biolog...
An approach is described for controlling the spatial organization of mammalian cells using ferromagn...
The manipulation of biological molecules and single cells on a surface is of fundamental importance ...
Microfluidics, the manipulation of fluid samples on the order of nanoliters and picoliters, is rapid...
The importance of magnetic micro- and nanoparticles for applications in biomedical technology is wid...
This study reports the design, realization, and characterization of a multi-pole magnetic tweezers t...
© The Author(s) 2016.Inspired by the biogenic magnetism found in certain organisms, such as magnetot...