Abstract :
From the miniaturization of laboratory instrumentation for bedside rapid diagnosis of disease to bioanalytical instrumentation for studying individual cells or molecules in new ways using micromachined structures, microfluidics is well established as an exciting area of research with great promise and an ever-growing application base. Microfluidics is revolutionizing laboratory methods and biomedical devices, offering new capabilities and instrumentation for multiple areas such as deoxyribonucleic acid (DNA) analysis, proteomics, enzymatic analysis, single-cell analysis, immunology, point-of-care medicine, personalized medicine, drug delivery, and environmental toxin and pathogen detection. Through the combination of biosensors; microchannel fluid transport; and other micromechanical, optical, chemical, and fluidic components; microfluidic-based instrumentation has spawned research into miniaturized systems, e.g., bedside rapid diagnosis, wearable environmental monitoring, and biological single-cell monitoring.
Keywords :
bioMEMS; biosensors; filled polymers; microfluidics; microsensors; nanocomposites; DNA; bedside rapid diagnosis; bioanalytical instrumentation; biological single-cell monitoring; biomedical MEMS; biomedical devices; biosensors; chemical components; cutting-edge composite polymer materials; deoxyribonucleic acid analysis; disease diagnosis; drug delivery; environmental toxin; enzymatic analysis; fluidic components; immunology; laboratory instrumentation miniaturization; microchannel fluid transport; microfluidic-based instrumentation; micromachined structures; micromechanical components; optical components; pathogen detection; personalized medicine; point-of-care medicine; polymer nanocomposites; proteomics; single-cell analysis; wearable environmental monitoring; Biomedical monitoring; Diseases; Magnetic anisotropy; Medical diagnosis; Microfluidics; Nanocomposites; Nanoparticles; Polymers; Soft magnetic materials;