Microfluidic Impedance Cytometry (MIC) is a label-free technique for counting and analyzing single cells at high throughput. Over the last decade the technology has matured into a robust and versatile tool with applications in many areas. Multi-frequency impedance measurements provide information on cell dielectric properties, including cell volume, membrane capacitance, and internal (cytoplasmic) electrical properties. This chapter describes the basic principles underlying MIC together with the technology that enables such measurements. Examples of application in healthcare and diagnostics are provided, including the use of MIC for performing a fast and simple full blood count with a very small volume of sample. The limits of sensitivity o...
Abstract: This article reviews recent developments in microfluidic impedance flow cytometry for high...
The specific membrane capacitance (SMC) of biological cell membranes correlates with cells’ electric...
<p>The electrical properties of biological cells have connections to their pathological states. Here...
Microfluidics impedance cytometry is an emerging research tool for high throughput analysis of diele...
Lab on chip technologies are being developed for multiplexed single cell assays. Impedance offers a ...
Background: The microfabricated impedance spectroscopy flow cytometer used in this study permits rap...
Impedance-based Coulter counters and its derivatives are widely used cell analysis tools in many lab...
Miniature high speed label-free cell analysis systems have yet to be developed, but have the potenti...
Impedance spectroscopy is a non-invasive technique which allows analysis of the electrical propertie...
Microfluidic impedance cytometry is the dielectric characterisation of single particles flowing thro...
In the process of collection of biological samples for testing, the issue of insufficient samples ha...
The biophysical analysis of single-cells by microfluidic impedance cytometry is emerging as a label-...
In general, cell culture-based assays, investigations of cell number, viability, and metabolic activ...
This article reviews recent developments in microfluidic impedance flow cytometry for high-throughpu...
Electrical impedance spectroscopy is a non-invasive and label free technique that allows for rapid c...
Abstract: This article reviews recent developments in microfluidic impedance flow cytometry for high...
The specific membrane capacitance (SMC) of biological cell membranes correlates with cells’ electric...
<p>The electrical properties of biological cells have connections to their pathological states. Here...
Microfluidics impedance cytometry is an emerging research tool for high throughput analysis of diele...
Lab on chip technologies are being developed for multiplexed single cell assays. Impedance offers a ...
Background: The microfabricated impedance spectroscopy flow cytometer used in this study permits rap...
Impedance-based Coulter counters and its derivatives are widely used cell analysis tools in many lab...
Miniature high speed label-free cell analysis systems have yet to be developed, but have the potenti...
Impedance spectroscopy is a non-invasive technique which allows analysis of the electrical propertie...
Microfluidic impedance cytometry is the dielectric characterisation of single particles flowing thro...
In the process of collection of biological samples for testing, the issue of insufficient samples ha...
The biophysical analysis of single-cells by microfluidic impedance cytometry is emerging as a label-...
In general, cell culture-based assays, investigations of cell number, viability, and metabolic activ...
This article reviews recent developments in microfluidic impedance flow cytometry for high-throughpu...
Electrical impedance spectroscopy is a non-invasive and label free technique that allows for rapid c...
Abstract: This article reviews recent developments in microfluidic impedance flow cytometry for high...
The specific membrane capacitance (SMC) of biological cell membranes correlates with cells’ electric...
<p>The electrical properties of biological cells have connections to their pathological states. Here...