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Nano/micro-scale magnetophoretic devices for biomedical applications
- Nano/micro-scale magnetophoretic devices for biomedical applications
- Lim, B[Lim, Byeonghwa]; Vavassori, P[Vavassori, Paolo]; Sooryakumar, R[Sooryakumar, R.]; Kim, C[Kim, CheolGi]
- DGIST Authors
- Lim, B[Lim, Byeonghwa]; Kim, C[Kim, CheolGi]
- Issue Date
- Journal of Physics D: Applied Physics, 50(3)
- Article Type
- Bioassay; Biochips; Biomedical Applications; Cell Sorting; Domain Walls; Integrated Engineering; Magnetic Domain Walls; Magnetic Domains; Magnetic Field Gradient; Magnetic Structure; Magnetism; Magnetophoresis; Magnets; Medical Applications; Micro/Nanopatterns; Microarrays; Molecular Biology; Remote Control; Remote Manipulation; Single-Cell Manipulation
- In recent years there have been tremendous advances in the versatility of magnetic shuttle technology using nano/micro-scale magnets for digital magnetophoresis. While the technology has been used for a wide variety of single-cell manipulation tasks such as selection, capture, transport, encapsulation, transfection, or lysing of magnetically labeled and unlabeled cells, it has also expanded to include parallel actuation and study of multiple bio-entities. The use of nano/micro-patterned magnetic structures that enable remote control of the applied forces has greatly facilitated integration of the technology with microfluidics, thereby fostering applications in the biomedical arena. The basic design and fabrication of various scaled magnets for remote manipulation of individual and multiple beads/cells, and their associated energies and forces that underlie the broad functionalities of this approach, are presented. One of the most useful features enabled by such advanced integrated engineering is the capacity to remotely tune the magnetic field gradient and energy landscape, permitting such multipurpose shuttles to be implemented within lab-on-chip platforms for a wide range of applications at the intersection of cellular biology and biotechnology. © 2016 IOP Publishing Ltd.
- Institute of Physics Publishing
- Related Researcher
Kim, Cheol Gi
Lab for NanoBio-MatErials & SpinTronics(nBEST)
Magnetic Materials and Spintronics; Converging Technology of Nanomaterials and Biomaterials; Bio-NEMS;MEMS
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- Department of Emerging Materials ScienceLab for NanoBio-Materials & SpinTronics(nBEST)1. Journal Articles
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