Microfluidics-based Learning and Analysis for Plant Cell Studies

Abstract

Microfluidics is a new field of technology and science, which brings all the disciplines together, such as physics, chemistry, biochemistry, engineering, nanotechnology, and biotechnology. It manipulates the fluids between microliters (10 -6 ) and picoliters (10 -12 ) in the channels through dimensions from tens to hundreds of micrometers. The attributes of a microfluidic system, such as extensive surface-to-volume proportions, laminar stream, surface tension and capillary effects at the micrometer scale are significant and make the gadgets proficient for the processes as well as investigating complex biological examples. Microfluidic devices are emerging as innovative systems, which can significantly alter sustenance, agriculture, and biosystems enterprises. The standards of electrokinetics, electro-hydrodynamics, and thermocapillarity of microfluidic systems help take care of significant logical issues that are difficult by regular systems and innovations. The discrete advantages of microfluidic technology over the conventional fluidic systems are low-cost fabrication, development of analytical performance, low power and chemical requirement, and better control and biocompatibility. The benefits offered by miniaturization are quick response, short reaction times, low sample and reagent volumes, reduction of the size of equipment, possibility of portable devices, and parallel tasks for numerous examinations. This paper highlights the manufacturing processes, characteristics of microfluidics, their applications in plant cells, as well as educational use of these devices and technologies in engineering fields.