Acoustic standing wave technology combined with ligand complexed microbeads offers a means for affinity specific selection of target analytes from complex samples. When realized in a microfluidic format we can capitalize on laminar flow and acoustic forces that can drive cells or microbeads across fluid interfaces. Given this, we have the ability to perform carrier fluid (suspending medium) exchange operations in continuous flow in microfluidic chips based solely on acoustofluidic properties. A key issue here is to ensure that a minimum of the original carrier fluid follows the cells/particles across the fluid interface. Simple processing protocols can be achieved that may outperform macroscale magnetic bead-based sample extraction or centr...
We describe the results of a numerical study about the separation of fluid-suspended microsamples (a...
Acoustofluidics utilizes a combination of acoustics, in the form of ultrasound, and microfluidics to...
In this paper, we utilize bulk acoustic waves to control the position of microparticles inside dropl...
Highly efficient washing and extraction of microbeads to decomplex analytes ranging from small pepti...
This acoustofluidics tutorial focuses on continuous flow-based half wavelength resonator systems ope...
Acoustofluidics has become a well-established technology in the lab-on-a-chip scientific community. ...
A major advantage of microfluidic devices is the ability to manipulate small sample volumes, thus re...
A novel method, free flow acoustophoresis (FFA), capable of continuous separation of mixed particle ...
The inception of microfluidics, utilising borrowed technology from the microelectronics industry, ha...
This thesis presents experimental studies of microchannel acoustophoresis, a technique for manipulat...
Acoustic particle manipulation (acoustophoresis) is a rapidly developing technology in the field of ...
ABSTRACT: A microfluidic device was developed to separate heterogeneous particle or cell mixtures in...
Acoustophoresis is generation of force fields by using sound waves. In microfluidics, micro-scale fl...
This part of the Acoustofluidics tutorial series reviews applications in acoustic trapping of micron...
Traditional cell/particle isolation methods are time-consuming and expensive and can lead to morphol...
We describe the results of a numerical study about the separation of fluid-suspended microsamples (a...
Acoustofluidics utilizes a combination of acoustics, in the form of ultrasound, and microfluidics to...
In this paper, we utilize bulk acoustic waves to control the position of microparticles inside dropl...
Highly efficient washing and extraction of microbeads to decomplex analytes ranging from small pepti...
This acoustofluidics tutorial focuses on continuous flow-based half wavelength resonator systems ope...
Acoustofluidics has become a well-established technology in the lab-on-a-chip scientific community. ...
A major advantage of microfluidic devices is the ability to manipulate small sample volumes, thus re...
A novel method, free flow acoustophoresis (FFA), capable of continuous separation of mixed particle ...
The inception of microfluidics, utilising borrowed technology from the microelectronics industry, ha...
This thesis presents experimental studies of microchannel acoustophoresis, a technique for manipulat...
Acoustic particle manipulation (acoustophoresis) is a rapidly developing technology in the field of ...
ABSTRACT: A microfluidic device was developed to separate heterogeneous particle or cell mixtures in...
Acoustophoresis is generation of force fields by using sound waves. In microfluidics, micro-scale fl...
This part of the Acoustofluidics tutorial series reviews applications in acoustic trapping of micron...
Traditional cell/particle isolation methods are time-consuming and expensive and can lead to morphol...
We describe the results of a numerical study about the separation of fluid-suspended microsamples (a...
Acoustofluidics utilizes a combination of acoustics, in the form of ultrasound, and microfluidics to...
In this paper, we utilize bulk acoustic waves to control the position of microparticles inside dropl...