Abstract
Since the beginning of twenty-first century assembling of nanobricks with innovation and creativity lead to functional structural framework in order to fabricate a reliable–reproducible result-oriented nanodevice remains a synthetic challenge to the researchers and technologist. The use of nanomaterials as diagnostic tools is relatively a new area in medical research. The soft chemical approach help for synthesis of nanoparticle with distinctive physical, chemical, and electronic properties for various biosciences–clinical applications, opens new possibilities with controlled size particle and its distribution, surface chemistry, and agglomeration, which has attracted a remarkable interest in recent years precisely to label and to track abnormalities in vivo administration. Many contrast cell labeling and tracking strategies were used based on metal oxide nanopowder with high biocompatible to give a better contrast due to their Lewis-acid behavior of metal ions. With fast research in nano-biotechnology, demands for new synthetic approach for clinical functional materials have attracted interest for scientists. In coming times, it will revolutionize clinical studies both in vitro and vivo imaging with desired chemical composition, crystal phase, and surface morphology by better understanding biological barriers to target the drug at the malfunctional sites.
Small particle-Smart properties—Better understanding—Reliable applications-good health.
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Athar, T. (2016). Synthesis of Nanostructured Material and Its Applications as Surgical Tools and Devices for Monitoring Cellular Activities. In: Ahmed, W., Jackson, M. (eds) Surgical Tools and Medical Devices. Springer, Cham. https://doi.org/10.1007/978-3-319-33489-9_23
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