Literature DB >> 24001056

Accuracy of available methods for quantifying the heat power generation of nanoparticles for magnetic hyperthermia.

Irene Andreu1, Eva Natividad.   

Abstract

In magnetic hyperthermia, characterising the specific functionality of magnetic nanoparticle arrangements is essential to plan the therapies by simulating maximum achievable temperatures. This functionality, i.e. the heat power released upon application of an alternating magnetic field, is quantified by means of the specific absorption rate (SAR), also referred to as specific loss power (SLP). Many research groups are currently involved in the SAR/SLP determination of newly synthesised materials by several methods, either magnetic or calorimetric, some of which are affected by important and unquantifiable uncertainties that may turn measurements into rough estimates. This paper reviews all these methods, discussing in particular sources of uncertainties, as well as their possible minimisation. In general, magnetic methods, although accurate, do not operate in the conditions of magnetic hyperthermia. Calorimetric methods do, but the easiest to implement, the initial-slope method in isoperibol conditions, derives inaccuracies coming from the lack of matching between thermal models, experimental set-ups and measuring conditions, while the most accurate, the pulse-heating method in adiabatic conditions, requires more complex set-ups.

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Year:  2013        PMID: 24001056     DOI: 10.3109/02656736.2013.826825

Source DB:  PubMed          Journal:  Int J Hyperthermia        ISSN: 0265-6736            Impact factor:   3.914


  19 in total

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Review 2.  Cancer therapy with iron oxide nanoparticles: Agents of thermal and immune therapies.

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4.  Ferromagnetic glass-coated microwires with good heating properties for magnetic hyperthermia.

Authors:  A Talaat; J Alonso; V Zhukova; E Garaio; J A García; H Srikanth; M H Phan; A Zhukov
Journal:  Sci Rep       Date:  2016-12-19       Impact factor: 4.379

5.  Experimental estimation and analysis of variance of the measured loss power of magnetic nanoparticles.

Authors:  Frederik Soetaert; Sri Kamal Kandala; Andris Bakuzis; Robert Ivkov
Journal:  Sci Rep       Date:  2017-07-27       Impact factor: 4.379

6.  Magnetic Glass Ceramics by Sintering of Borosilicate Glass and Inorganic Waste.

Authors:  Inès M M M Ponsot; Yiannis Pontikes; Giovanni Baldi; Rama K Chinnam; Rainer Detsch; Aldo R Boccaccini; Enrico Bernardo
Journal:  Materials (Basel)       Date:  2014-07-31       Impact factor: 3.623

Review 7.  Magnetic Properties of Magnetic Nanoparticles for Efficient Hyperthermia.

Authors:  Ihab M Obaidat; Bashar Issa; Yousef Haik
Journal:  Nanomaterials (Basel)       Date:  2015-01-09       Impact factor: 5.076

Review 8.  Physical mechanism and modeling of heat generation and transfer in magnetic fluid hyperthermia through Néelian and Brownian relaxation: a review.

Authors:  E Y K Ng; S D Kumar
Journal:  Biomed Eng Online       Date:  2017-03-23       Impact factor: 2.819

9.  Nanomagnetite-embedded PLGA Spheres for Multipurpose Medical Applications.

Authors:  Valentina Grumezescu; Oana Gherasim; Irina Negut; Stefan Banita; Alina Maria Holban; Paula Florian; Madalina Icriverzi; Gabriel Socol
Journal:  Materials (Basel)       Date:  2019-08-08       Impact factor: 3.623

10.  Facile transformation of FeO/Fe3O4 core-shell nanocubes to Fe3O4 via magnetic stimulation.

Authors:  Aidin Lak; Dina Niculaes; George C Anyfantis; Giovanni Bertoni; Markus J Barthel; Sergio Marras; Marco Cassani; Simone Nitti; Athanassia Athanassiou; Cinzia Giannini; Teresa Pellegrino
Journal:  Sci Rep       Date:  2016-09-26       Impact factor: 4.379

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