Magnetophoretic Velocity Determined by Space-and Time-Resolved Extinction Profiles

Olga Mykhaylyk; Dietmar Lerche; Dialechti Vlaskou; Veronika Schoemig; Torsten Detloff; Daniel Krause; Markus Wolff; Timo Joas; Sonja Berensmeier; Christian Plank

doi:10.1109/LMAG.2015.2474306

Magnetophoretic Velocity Determined by Space-and Time-Resolved Extinction Profiles

Olga Mykhaylyk, Dietmar Lerche, Dialechti Vlaskou, Veronika Schoemig, Torsten Detloff, Daniel Krause, Markus Wolff, Timo Joas, Sonja Berensmeier, Christian Plank

Chair of Bioseparation Engineering

Research output: Contribution to journal › Article › peer-review

11 Scopus citations

Abstract

Magnetophoretic velocity of magnetic nano-objects for biomedical applications was characterized by measuring space-and time-resolved extinction profiles (STEP-Technology) using a customized LUMiReader device equipped with a set of permanent magnets (STEP-MAG). The resulting magnetic fields and gradients in a sample volume enable the operator to choose measurement conditions for magnetic micro-and nanoparticles and their assemblies. The dependence of magnetophoretic velocity on concentration and optical wavelengths indicated assembly of the nano-objects upon magnetophoresis. The method has potential applications in biomedicine to develop advanced materials and protocols for cell separation, tissue engineering, and drug/nucleic acid targeting.

Original language	English
Article number	7229292
Journal	IEEE Magnetics Letters
Volume	6
DOIs	https://doi.org/10.1109/LMAG.2015.2474306
State	Published - 2015

Keywords

Extinction profiles
Magnetophoretic velocity
Nano-object suspension
Nanomagnetics

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10.1109/LMAG.2015.2474306

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title = "Magnetophoretic Velocity Determined by Space-and Time-Resolved Extinction Profiles",

abstract = "Magnetophoretic velocity of magnetic nano-objects for biomedical applications was characterized by measuring space-and time-resolved extinction profiles (STEP-Technology) using a customized LUMiReader device equipped with a set of permanent magnets (STEP-MAG). The resulting magnetic fields and gradients in a sample volume enable the operator to choose measurement conditions for magnetic micro-and nanoparticles and their assemblies. The dependence of magnetophoretic velocity on concentration and optical wavelengths indicated assembly of the nano-objects upon magnetophoresis. The method has potential applications in biomedicine to develop advanced materials and protocols for cell separation, tissue engineering, and drug/nucleic acid targeting.",

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language = "English",

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AU - Mykhaylyk, Olga

AU - Lerche, Dietmar

AU - Vlaskou, Dialechti

AU - Schoemig, Veronika

AU - Detloff, Torsten

AU - Krause, Daniel

AU - Wolff, Markus

AU - Joas, Timo

AU - Berensmeier, Sonja

AU - Plank, Christian

PY - 2015

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AB - Magnetophoretic velocity of magnetic nano-objects for biomedical applications was characterized by measuring space-and time-resolved extinction profiles (STEP-Technology) using a customized LUMiReader device equipped with a set of permanent magnets (STEP-MAG). The resulting magnetic fields and gradients in a sample volume enable the operator to choose measurement conditions for magnetic micro-and nanoparticles and their assemblies. The dependence of magnetophoretic velocity on concentration and optical wavelengths indicated assembly of the nano-objects upon magnetophoresis. The method has potential applications in biomedicine to develop advanced materials and protocols for cell separation, tissue engineering, and drug/nucleic acid targeting.

KW - Extinction profiles

KW - Magnetophoretic velocity

KW - Nano-object suspension

KW - Nanomagnetics

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VL - 6

JO - IEEE Magnetics Letters

JF - IEEE Magnetics Letters

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ER -

Magnetophoretic Velocity Determined by Space-and Time-Resolved Extinction Profiles

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Keywords

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