Overview
Learn about our technology and solutions in precision microfluid control fields for your unique challenge.
With the rapid development of modern science and technology, microfluidic technology has gradually penetrated into many fields such as biomedicine, chemistry and environmental science. As one of the important applications of microfluidic technology, Lab-on-a-Chip (Lab-on-a-Chip) has become a popular choice for scientific research and industrial applications due to its high integration, fast response and portability. In lab-on-a-chip devices, integrated microfluidic manifold plays a crucial role. In this paper, we will discuss the advantages of integrated microfluidic manifold in lab-on-a-chip equipment.
Integrated microfluidic manifold is the key to miniaturisation of lab-on-a-chip equipment. Through sophisticated design and manufacturing technology, microfluidic manifold can be integrated on the surface of the chip to form a miniature, closed flow system. This high level of integration not only greatly reduces the size of the device, but also improves its portability and operability. At the same time, miniaturisation also makes the reaction volume and reagent consumption significantly lower, further reducing the experimental cost.
Integrated microfluidic manifold in the lab-on-a-chip equipment can achieve precise fluid control and efficient transmission. The channel size inside the microfluidic manifold is usually only micron or nano-scale, which makes the fluid flow in it be precisely controlled. By adjusting the size, shape and surface properties of the channels, precise distribution, mixing and separation of fluids can be achieved. In addition, microfluidic manifold has a high fluid transfer efficiency, which enables rapid delivery of reagents and samples to the designated location, thus shortening experiment time.
In the biomedical field, biocompatibility and safety are important considerations for lab-on-a-chip equipment. Integrated microfluidic manifold is usually made of biocompatible materials, such as polydimethylsiloxane (PDMS), glass, etc., which are harmless to humans and have good biocompatibility. At the same time, the closed design of the microfluidic manifold effectively prevents the leakage of reagents and samples and avoids the risk of cross-infection. In addition, microfluidic manifold can also achieve aseptic operation, ensuring the purity and reliability of experiments.
Integrated microfluidic manifold demonstrates versatility and flexibility in lab-on-a-chip equipment. By designing microfluidic manifold with different shapes and functions, a variety of complex experimental operations can be realised, such as cell culture, PCR amplification, electrophoretic separation and so on. In addition, microfluidic manifold can be combined with other functional modules to form a multi-functional lab-on-a-chip device to meet different experimental needs. Meanwhile, the flexibility of microfluidic manifold is also reflected in their reusability and customisability. By simply replacing or adjusting microfluidic manifold, flexible adjustment of different experimental conditions and experimental steps can be achieved.
In summary, integrated microfluidic manifold in lab-on-a-chip devices of Keyto have significant advantages such as high integration, precise control, biocompatibility, safety, as well as versatility and flexibility. These advantages make lab-on-a-chip devices have a wide range of application prospects in biomedical, chemical, environmental science and other fields. With the continuous development and improvement of microfluidic technology, it is believed that more innovative lab-on-a-chip equipments will emerge in the future, bringing more convenience and breakthroughs for human scientific research and industrial applications.
