We made a bold choice to fit both our mission, which is to boost science using microfluidics, as well as our culture, which is to do things our way and to be part of the research community.
We decided to promote and sell our instruments, not through common, boring advertisement, but instead by providing you with:
And then we hope that while surfing our website, some of you will discover our microfluidic brand and fall in love with Elveflow.
Microfluidic flow cells with embedded optical sensors, have been the most common choice for microenvironment monitoring like pH control.
Microfluidic cell culture is an innovative technology to improve classical lab protocols
Microfluidic systems have an important role to play in the democratization of sperm sorting technologies as well as improving existing techniques...
Cell Biology: Microfluidic Concept and methologies for biologists to control the complete cellular microenvironment with microfluidics.
Live-cell imaging is a non destructive method which focuses on the observation of live cells and is widely used in cellular biology research and biomedical industry. This short review will present some technical aspects and challenges encountered in this field. Nowadays, the most widely used cell culture system is the static culture, where the cells are cultivated inside Petri dishes or multiwall plates. In static culture, the culture medium is supplied in a batch-wised manner.
In this review we will describe some label-free microfluidic techniques to accomplish cell separation and sorting.
Ability to switch drugs in seconds or less in microfluidic chambers allows studying cell response at cells timescale.
PDMS advantages and drawbacks for cell biology are here discussed.
This short note summarizes the methods and techniques employed to perform perfusion for live cell imaging and critical issues encountered.
The first live-cell imaging chambers were designed in the early twentieth century, shortly after mammalian cell culture techniques were developped
Live-cell imaging is a non destructive method which focuses on the observation of live cells and is widely used in cellular biology research and biomedical industry. This short review will present some technical aspects and challenges encounter in this field.
This review presents an overview of the different techniques developed over the last decade to regulate the temperature within microfluidic systems.
Cells growth, gene expression and differentiation are often related to mechanical environment such as confinement or applied stresses.
Chemical gradients play a key role in many biological processes and regulate a number of cellular functions in vivo. Indeed, there are several examples of gradient-dependent phenomena in nature.
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