Deterministic Lateral Displacement (DLD) devices have been used to separate particles based on size [1] and shape [2]. Here we show how DLD devices can also be used to separate particles based on their ability to deform under shear forces. Varying experimental conditions allows us to vary the relative contributions of size, morphology and deformability. The ability to distinguish between cells based on deformability with high resolution and throughput, in cheap and simple devices, could find highly interesting and relevant applications, for example in the detection of circulating tumor cells or malaria-infected blood cells
The advent of microfluidics in the 1990s promised a revolution in multiple industries from healthcar...
The ability to sort cells is extremely desirable in many fields such as diagnostics, chemical proc...
Determining cell mechanical properties is increasingly recognized as a marker-free way to characteri...
Deterministic lateral displacement (DLD) devices have great potential for the separation and sorting...
Sorting cells based on their intrinsic properties is a highly desirable objective, since changes in ...
We present a deterministic-lateral-displacement (DLD) device that extends the capabilities of this t...
Due to their direct coupling to the physiology of the cells, the physical properties are especially ...
Determining cell mechanical properties is increasingly recognized as a marker-free way to characteri...
Mesoscopic simulations with two-dimensional (2D) models have been performed to elucidate the dynamic...
In the fields of medicine and biology, the separation of particles is a central step in many prepara...
Microfluidic cell separation techniques are of great interest since they help rapid medical diagnose...
Continuous separation of particles of different sizes and shapes is important in both clinical diagn...
Microfluidic devices provide a controlled platform for the manipulation and control of volumetric am...
To better understand how deformable and non-spherical particles behave in sorting devices based on d...
Deterministic lateral displacement (DLD), a hydrodynamic, microfluidic technology, was first reporte...
The advent of microfluidics in the 1990s promised a revolution in multiple industries from healthcar...
The ability to sort cells is extremely desirable in many fields such as diagnostics, chemical proc...
Determining cell mechanical properties is increasingly recognized as a marker-free way to characteri...
Deterministic lateral displacement (DLD) devices have great potential for the separation and sorting...
Sorting cells based on their intrinsic properties is a highly desirable objective, since changes in ...
We present a deterministic-lateral-displacement (DLD) device that extends the capabilities of this t...
Due to their direct coupling to the physiology of the cells, the physical properties are especially ...
Determining cell mechanical properties is increasingly recognized as a marker-free way to characteri...
Mesoscopic simulations with two-dimensional (2D) models have been performed to elucidate the dynamic...
In the fields of medicine and biology, the separation of particles is a central step in many prepara...
Microfluidic cell separation techniques are of great interest since they help rapid medical diagnose...
Continuous separation of particles of different sizes and shapes is important in both clinical diagn...
Microfluidic devices provide a controlled platform for the manipulation and control of volumetric am...
To better understand how deformable and non-spherical particles behave in sorting devices based on d...
Deterministic lateral displacement (DLD), a hydrodynamic, microfluidic technology, was first reporte...
The advent of microfluidics in the 1990s promised a revolution in multiple industries from healthcar...
The ability to sort cells is extremely desirable in many fields such as diagnostics, chemical proc...
Determining cell mechanical properties is increasingly recognized as a marker-free way to characteri...