Ultrasonic standing waves allow concentration, washing, fractionation, or trapping against a flow of cells in microfluidic environments and can potentially enhance biosensor performance
The use of ultrasound for trapping and patterning particles or cells in microfluidic systems is usua...
Techniques for manipulating, separating, and trapping particles and cells are highly desired in toda...
The capture of Bacillus subtilis var. niger spores on an antibody-coated surface can be enhanced whe...
Ultrasonic standing wave fields are able to trap and manipulate biological cells and other micron sc...
Ultrasonic fields can be used to trap and manipulate micron-scale particles and second-phase fluids,...
Ultrasonic standing wave fields are able to trap and manipulate biological cells and other micron sc...
The use of ultrasonic standing waves for contactless manipulation of microparticles in microfluidic ...
An emerging demand for the precise manipulation of cells and particles for applications in cell biol...
Microfluidic chips have become a powerful tool in research where biological cells are processed and/...
Several cell-based biological applications in microfluidic systems require simultaneous high-through...
The sensing of cells within micro-fluidic components can be greatly enhanced by maximizing the conce...
The paper describes the use of ultrasonic standing waves as bulk acoustic wave actuators, exploiting...
Ultrasonic fields are able to exert forces on cells and other micron-scale particles, including micr...
This chapter introduces the concept of using ultrasound for the manipulation of small particles in f...
Critical to the development of lab-on-a-chip (LOC) devices is the ability to accurately manipulate m...
The use of ultrasound for trapping and patterning particles or cells in microfluidic systems is usua...
Techniques for manipulating, separating, and trapping particles and cells are highly desired in toda...
The capture of Bacillus subtilis var. niger spores on an antibody-coated surface can be enhanced whe...
Ultrasonic standing wave fields are able to trap and manipulate biological cells and other micron sc...
Ultrasonic fields can be used to trap and manipulate micron-scale particles and second-phase fluids,...
Ultrasonic standing wave fields are able to trap and manipulate biological cells and other micron sc...
The use of ultrasonic standing waves for contactless manipulation of microparticles in microfluidic ...
An emerging demand for the precise manipulation of cells and particles for applications in cell biol...
Microfluidic chips have become a powerful tool in research where biological cells are processed and/...
Several cell-based biological applications in microfluidic systems require simultaneous high-through...
The sensing of cells within micro-fluidic components can be greatly enhanced by maximizing the conce...
The paper describes the use of ultrasonic standing waves as bulk acoustic wave actuators, exploiting...
Ultrasonic fields are able to exert forces on cells and other micron-scale particles, including micr...
This chapter introduces the concept of using ultrasound for the manipulation of small particles in f...
Critical to the development of lab-on-a-chip (LOC) devices is the ability to accurately manipulate m...
The use of ultrasound for trapping and patterning particles or cells in microfluidic systems is usua...
Techniques for manipulating, separating, and trapping particles and cells are highly desired in toda...
The capture of Bacillus subtilis var. niger spores on an antibody-coated surface can be enhanced whe...
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