Microfluidic device for super-fast evaluation of membrane protein nanoparticle formation

Micro & Nano Letters, IET(2013)

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摘要
Membrane proteins embedded in bilayer lipids of cell membrane have unique functions including inter-cell communication and ionic/molecular transport. To understand the structure and function of the membrane protein embedded in a native biological bilayer lipid environment is a major research area in biology. A reconstitution/crystallisation process of membrane proteins and lipids can form virus-like nanoparticles, and have important potential applications in drug design and drug delivery. Earlier studies used a standard dialysis process that is inherently low-throughput, time consuming (days to weeks) and costly in protein materials. In this reported work a new microfluidic device is demonstrated to rapidly form membrane protein lipid nanoparticles in an extremely short period (seconds). The reconstitution process occurs using a continuous flow dominated by convection-diffusion phenomena in the microfluidic channel, which can form protein/lipid nanoparticles using only nanolitres or picolitres of protein sample. Moreover, a controllable syringe pump is used to test a combination of conditions, rather than using inefficient hand pipetting. Therefore this novel microfluidic device has an ability to rapidly form uniform membrane protein/lipid nanoparticles, and the authors believe that this new method will make a transformative impact on commercial applications in a variety of areas from biology to pharmacology.
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关键词
biomems,biochemistry,biodiffusion,biomedical equipment,biomembrane transport,crystallisation,lab-on-a-chip,lipid bilayers,microorganisms,molecular biophysics,molecular configurations,nanofabrication,nanomedicine,nanoparticles,proteins,bi-layer lipids,biological bilayer lipid environment,cell membrane,convection-diffusion phenomena,drug delivery,drug design,inter-cell communication,ionic-molecular transport,membrane protein lipid nanoparticle formation,microelectromechanical system,microfluidic channel,microfluidic device,pharmacology,protein materials,reconstitution-crystallisation process,syringe pump,virus-like nanoparticles,lab on a chip
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