The simultaneous investigation of a large number of events with different types of intermolecular interactions, from nonequilibrium high-force pulling assays to quasi-equilibrium unbinding events in the same environment, can be very important for fully understanding intermolecular bond-rupture mechanisms. Here, we describe a novel dielectrophoretic force spectroscopy technique that utilizes microsized beads as multifunctional probes for parallel measurement of intermolecular forces with an extremely wide range of force rate (10 -4 to 10 4 pN/s) inside a microfluidic device. In our experiments, various forces, which broadly form the basis of all molecular interactions, were measured across a range of force loading rates by multifunctional pr...
The use of probe beads for lab-on-chip affinity assays is very interesting from a practical point of...
A micromachined polymer membrane-based active probe has been developed for biomolecular force spectr...
The quantification of the interactions between biomolecules and materials interfaces is crucial for ...
The simultaneous investigation of a large number of events with different types of intermolecular in...
Dept. of Biomedical Engineering/석사The simultaneous investigation of a large number of events with di...
he characterization of biochemical bonds in biological processes, from cell adhesion to protein/RNA ...
We reported an automated dielectrophoretic (DEP) tweezers-based force spectroscopy system to examine...
The direct quantification of weak intermolecular binding interactions is very important for many app...
Several techniques have been established to quantify the mechanicals of single molecules. However, m...
The assembly of a highly parallel force spectroscopy tool requires careful placement of single-molec...
International audienceMonitoring biological reactions using the mechanical response of macromolecule...
Dynamic force spectroscopy (DFS) makes it possible to investigate specific interactions between two ...
The authors present dielectrophoresis (DEP)-based tweezers that can be used to characterize the inte...
Multivalent interactions play a critical role in a variety of biological processes on both molecular...
A novel micromachined, membrane-based probe has been developed and fabricated as assays to enable pa...
The use of probe beads for lab-on-chip affinity assays is very interesting from a practical point of...
A micromachined polymer membrane-based active probe has been developed for biomolecular force spectr...
The quantification of the interactions between biomolecules and materials interfaces is crucial for ...
The simultaneous investigation of a large number of events with different types of intermolecular in...
Dept. of Biomedical Engineering/석사The simultaneous investigation of a large number of events with di...
he characterization of biochemical bonds in biological processes, from cell adhesion to protein/RNA ...
We reported an automated dielectrophoretic (DEP) tweezers-based force spectroscopy system to examine...
The direct quantification of weak intermolecular binding interactions is very important for many app...
Several techniques have been established to quantify the mechanicals of single molecules. However, m...
The assembly of a highly parallel force spectroscopy tool requires careful placement of single-molec...
International audienceMonitoring biological reactions using the mechanical response of macromolecule...
Dynamic force spectroscopy (DFS) makes it possible to investigate specific interactions between two ...
The authors present dielectrophoresis (DEP)-based tweezers that can be used to characterize the inte...
Multivalent interactions play a critical role in a variety of biological processes on both molecular...
A novel micromachined, membrane-based probe has been developed and fabricated as assays to enable pa...
The use of probe beads for lab-on-chip affinity assays is very interesting from a practical point of...
A micromachined polymer membrane-based active probe has been developed for biomolecular force spectr...
The quantification of the interactions between biomolecules and materials interfaces is crucial for ...