Physics responsible for heating efficiency and self-controlled temperature rise of magnetic nanoparticles in magnetic hyperthermia therapy

Magnetic nanoparticles as heat-generating nanosources in hyperthermia treatment are still faced with many drawbacks for achieving sufficient clinical potential. In this context, increase in heating ability of magnetic nanoparticles in a biologically safe alternating magnetic field and also approach...

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Published inProgress in biophysics and molecular biology Vol. 133; pp. 9 - 19
Main Authors Shaterabadi, Zhila, Nabiyouni, Gholamreza, Soleymani, Meysam
Format Journal Article
LanguageEnglish
Published England Elsevier Ltd 01.03.2018
Subjects
Animals
Curie temperature
Ferrite nanoparticles
Heat generation mechanisms
Hot Temperature
Humans
Hyperthermia, Induced - methods
Magnetic hyperthermia therapy (MHT)
Magnetic Phenomena
Magnets - chemistry
Nanoparticles
Specific loss power (SLP)
Superparamagnetic
Ferrite nanoparticles
Superparamagnetic
Heat generation mechanisms
Magnetic hyperthermia therapy (MHT)
Specific loss power (SLP)
Curie temperature
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Abstract Magnetic nanoparticles as heat-generating nanosources in hyperthermia treatment are still faced with many drawbacks for achieving sufficient clinical potential. In this context, increase in heating ability of magnetic nanoparticles in a biologically safe alternating magnetic field and also approach to a precise control on temperature rise are two challenging subjects so that a significant part of researchers’ efforts has been devoted to them. Since a deep understanding of Physics concepts of heat generation by magnetic nanoparticles is essential to develop hyperthermia as a cancer treatment with non-adverse side effects, this review focuses on different mechanisms responsible for heat dissipation in a radio frequency magnetic field. Moreover, particular attention is given to ferrite-based nanoparticles because of their suitability in radio frequency magnetic fields. Also, the key role of Curie temperature in suppressing undesired temperature rise is highlighted. [Display omitted] •In MHT, the heat generated by MNPs is produced by independent mechanisms.•MHT demands MNPs with high heating efficiency in a safe alternating magnetic field.•Undesired temperature rise can be inhibited through Curie temperature of MNPs.•This review discusses about the Physics concepts involved in the above subjects.
AbstractList Magnetic nanoparticles as heat-generating nanosources in hyperthermia treatment are still faced with many drawbacks for achieving sufficient clinical potential. In this context, increase in heating ability of magnetic nanoparticles in a biologically safe alternating magnetic field and also approach to a precise control on temperature rise are two challenging subjects so that a significant part of researchers' efforts has been devoted to them. Since a deep understanding of Physics concepts of heat generation by magnetic nanoparticles is essential to develop hyperthermia as a cancer treatment with non-adverse side effects, this review focuses on different mechanisms responsible for heat dissipation in a radio frequency magnetic field. Moreover, particular attention is given to ferrite-based nanoparticles because of their suitability in radio frequency magnetic fields. Also, the key role of Curie temperature in suppressing undesired temperature rise is highlighted.
Magnetic nanoparticles as heat-generating nanosources in hyperthermia treatment are still faced with many drawbacks for achieving sufficient clinical potential. In this context, increase in heating ability of magnetic nanoparticles in a biologically safe alternating magnetic field and also approach to a precise control on temperature rise are two challenging subjects so that a significant part of researchers’ efforts has been devoted to them. Since a deep understanding of Physics concepts of heat generation by magnetic nanoparticles is essential to develop hyperthermia as a cancer treatment with non-adverse side effects, this review focuses on different mechanisms responsible for heat dissipation in a radio frequency magnetic field. Moreover, particular attention is given to ferrite-based nanoparticles because of their suitability in radio frequency magnetic fields. Also, the key role of Curie temperature in suppressing undesired temperature rise is highlighted. [Display omitted] •In MHT, the heat generated by MNPs is produced by independent mechanisms.•MHT demands MNPs with high heating efficiency in a safe alternating magnetic field.•Undesired temperature rise can be inhibited through Curie temperature of MNPs.•This review discusses about the Physics concepts involved in the above subjects.
Magnetic nanoparticles as heat-generating nanosources in hyperthermia treatment are still faced with many drawbacks for achieving sufficient clinical potential. In this context, increase in heating ability of magnetic nanoparticles in a biologically safe alternating magnetic field and also approach to a precise control on temperature rise are two challenging subjects so that a significant part of researchers' efforts has been devoted to them. Since a deep understanding of Physics concepts of heat generation by magnetic nanoparticles is essential to develop hyperthermia as a cancer treatment with non-adverse side effects, this review focuses on different mechanisms responsible for heat dissipation in a radio frequency magnetic field. Moreover, particular attention is given to ferrite-based nanoparticles because of their suitability in radio frequency magnetic fields. Also, the key role of Curie temperature in suppressing undesired temperature rise is highlighted.Magnetic nanoparticles as heat-generating nanosources in hyperthermia treatment are still faced with many drawbacks for achieving sufficient clinical potential. In this context, increase in heating ability of magnetic nanoparticles in a biologically safe alternating magnetic field and also approach to a precise control on temperature rise are two challenging subjects so that a significant part of researchers' efforts has been devoted to them. Since a deep understanding of Physics concepts of heat generation by magnetic nanoparticles is essential to develop hyperthermia as a cancer treatment with non-adverse side effects, this review focuses on different mechanisms responsible for heat dissipation in a radio frequency magnetic field. Moreover, particular attention is given to ferrite-based nanoparticles because of their suitability in radio frequency magnetic fields. Also, the key role of Curie temperature in suppressing undesired temperature rise is highlighted.
Author Soleymani, Meysam
Nabiyouni, Gholamreza
Shaterabadi, Zhila
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Keywords Ferrite nanoparticles
Superparamagnetic
Heat generation mechanisms
Magnetic hyperthermia therapy (MHT)
Specific loss power (SLP)
Curie temperature
Language English
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Snippet Magnetic nanoparticles as heat-generating nanosources in hyperthermia treatment are still faced with many drawbacks for achieving sufficient clinical...
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SubjectTerms Animals
Curie temperature
Ferrite nanoparticles
Heat generation mechanisms
Hot Temperature
Humans
Hyperthermia, Induced - methods
Magnetic hyperthermia therapy (MHT)
Magnetic Phenomena
Magnets - chemistry
Nanoparticles
Specific loss power (SLP)
Superparamagnetic
Title Physics responsible for heating efficiency and self-controlled temperature rise of magnetic nanoparticles in magnetic hyperthermia therapy
URI https://dx.doi.org/10.1016/j.pbiomolbio.2017.10.001
https://www.ncbi.nlm.nih.gov/pubmed/28993133
https://www.proquest.com/docview/1949693938
Volume 133
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