This short review aims to describe microfluidics definition from the concept, the advantages and the various fields of application.
Microfluidics took off in the 1990’s thanks to the Micro Electro Mechanical System (MEMs) technology.
Over the past 20 years, microfluidics offered a tremendous technological breakthrough for the scientific community as a means to miniaturize the work of a whole lab onto a microfluidic chip less than a few inches (cm) big!
Microfluidics definition: microfluidics is the study and manipulation of fluid flow at the sub millimeter scale (Whitesides, 2006).
Other than this, microfluidics really is all around us, from our tiniest blood capillaries to the networks of sap in plants. More technological daily applications also include some medical tests and even inkjet printing. Some thought to harvest the mechanics and possibilities offered by microfluidics, with the right tools to control pressure and flow inside microfluidics channels.
As a versatile science and technology, microfluidics is used by researchers & industrials, who can both benefit from its many fields of application. One microfluidics definition is that it can be used to spearhead breakthroughs and lead innovative research, as well as be an essential brick in an industrial production process where there is a need to scale up while cutting down on reagent cost.
Through miniaturization & automation, microfluidics are a great tool to:
It’s in the very microfluidics definition: microfluidics implies the handling of very small volumes of fluids (gas or liquids) that require very precise fluid control with microfluidic systems composed of flow controller (pressure-driven flow controller) or pumps (syringe, peristaltic), flow sensors (Coriolis flow sensor and/or standard flow sensor) and distribution, recirculation or injection valves to control the fluid passing through your microfluidic device.
Microfluidic system schematic for droplet generation
Microfluidic system employed experimentally for droplet generation
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Do you want tips on how to best set up your microfluidic experiment? Do you need inspiration or a different angle to take on your specific problem? Well, we probably have an application note just for you, feel free to check them out!
Free-flow electrophoresis (FFE) is a technique that enables the continuous separation of analytes as they flow through a planar channel.
The profile of laminar flow through a small straight pipe may be approximated by small concentric cylinders towards the direction of the flow.
Finding the right technique for particle encapsulation using micro and nanoparticles is key for a successful particle encapsulation protocol.
This review demonstrates the development of microfluidic techniques and their capability in performing various types of chemical synthesis.
A guide to calculate the flow resistance of your microfluidic circuit.
One of the key criteria to choose your microfluidic device material is its chemical resistance. This review will help you choose one depending on your application.
Introduction to thermoelectric sensor | Microfluidics immunosensors offer multiple advantages over the conventional immunoassays that include improved reaction rate, reduced time for incubation of the reactants, and decreased reagents and sample consumption. Moreover, miniaturization and integration of the multiple assay components permit automation, precise flow control, increased reproducibility, and the possibility for high-throughput analysis.
PLGA nanoparticles are of great interest for biomedical applications. This review focus on microfluidic synthesis methods of these nanoparticles.
This review focuses on point of care (POC) diagnostic devices for pathogen detection
Acoustic techniques for sorting and separation of micron-sized particles in microfluidic devices
Microfluidics is the science that deals with the flow of liquid inside micrometer-size channels.
Air bubbles are among the most recurring issues in microfluidics. Because of the micrometric dimensions of the tubes and channels
Microrheology is a technique used to measure the rheological properties of a medium, such as viscosity and viscoelasticity. This short review is presenting the different techniques and applications.
Diagnosis is the first step in treating any disease, and paper microfluidic devices can facilitate this crucial step. Most of the time, this necessary task is
Electrochemical detection is particularly suitable for lab-on-a-chip integration and microfluidics due to the versatility of size, geometry and nature of electrodes that can be integrated within a microfluidic platform, and to the minimum instrumentation it requires.
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