53 related articles for article (PubMed ID: 25836990)
1. Susceptibility losses in heating of magnetic core/shell nanoparticles for hyperthermia: a Monte Carlo study of shape and size effects.
Vasilakaki M; Binns C; Trohidou KN
Nanoscale; 2015 May; 7(17):7753-62. PubMed ID: 25836990
[TBL] [Abstract][Full Text] [Related]
2. Asymmetric Assembling of Iron Oxide Nanocubes for Improving Magnetic Hyperthermia Performance.
Niculaes D; Lak A; Anyfantis GC; Marras S; Laslett O; Avugadda SK; Cassani M; Serantes D; Hovorka O; Chantrell R; Pellegrino T
ACS Nano; 2017 Dec; 11(12):12121-12133. PubMed ID: 29155560
[TBL] [Abstract][Full Text] [Related]
3. A comparative investigation of normal and inverted exchange bias effect for magnetic fluid hyperthermia applications.
Tsopoe SP; Borgohain C; Fopase R; Pandey LM; Borah JP
Sci Rep; 2020 Oct; 10(1):18666. PubMed ID: 33122680
[TBL] [Abstract][Full Text] [Related]
4. Tailoring Interfacial Exchange Anisotropy in Hard-Soft Core-Shell Ferrite Nanoparticles for Magnetic Hyperthermia Applications.
Narayanaswamy V; Al-Omari IA; Kamzin AS; Issa B; Obaidat IM
Nanomaterials (Basel); 2022 Jan; 12(2):. PubMed ID: 35055278
[TBL] [Abstract][Full Text] [Related]
5. Effect of magnetic dipolar interactions on nanoparticle heating efficiency: implications for cancer hyperthermia.
Branquinho LC; Carrião MS; Costa AS; Zufelato N; Sousa MH; Miotto R; Ivkov R; Bakuzis AF
Sci Rep; 2013 Oct; 3():2887. PubMed ID: 24096272
[TBL] [Abstract][Full Text] [Related]
6. Quantitative Analysis of the Specific Absorption Rate Dependence on the Magnetic Field Strength in Zn
Kerroum MAA; Iacovita C; Baaziz W; Ihiawakrim D; Rogez G; Benaissa M; Lucaciu CM; Ersen O
Int J Mol Sci; 2020 Oct; 21(20):. PubMed ID: 33096631
[TBL] [Abstract][Full Text] [Related]
7. Adjusting the Néel relaxation time of Fe3O4/ZnxCo1-xFe2O4 core/shell nanoparticles for optimal heat generation in magnetic hyperthermia.
Fabris F; Lohr JH; Lima E; de Almeida AA; Troiani H; Rodríguez LM; Vásquez Mansilla M; Aguirre M; Goya GF; Rinaldi D; Ghirri A; Peddis D; Fiorani D; Zysler RD; De Biasi E; Winkler E
Nanotechnology; 2020 Oct; ():. PubMed ID: 33086203
[TBL] [Abstract][Full Text] [Related]
8. Preparation of stable colloidal dispersion of surface modified Fe
Sabzi Dizajyekan B; Jafari A; Vafaie-Sefti M; Saber R; Fakhroueian Z
Sci Rep; 2024 Jan; 14(1):1296. PubMed ID: 38221547
[TBL] [Abstract][Full Text] [Related]
9. The impact of data selection and fitting on SAR estimation for magnetic nanoparticle heating.
Ring HL; Sharma A; Ivkov R; Bischof JC
Int J Hyperthermia; 2020 Dec; 37(3):100-107. PubMed ID: 33426988
[TBL] [Abstract][Full Text] [Related]
10. Surfactant-driven optimization of iron-based nanoparticle synthesis: a study on magnetic hyperthermia and endothelial cell uptake.
Riahi K; Dirba I; Ablets Y; Filatova A; Sultana SN; Adabifiroozjaei E; Molina-Luna L; Nuber UA; Gutfleisch O
Nanoscale Adv; 2023 Oct; 5(21):5859-5869. PubMed ID: 37881718
[TBL] [Abstract][Full Text] [Related]
11. Adjusting the Néel relaxation time of Fe
Fabris F; Lohr J; Lima E; de Almeida AA; Troiani HE; Rodríguez LM; Vásquez Mansilla M; Aguirre MH; Goya GF; Rinaldi D; Ghirri A; Peddis D; Fiorani D; Zysler RD; De Biasi E; Winkler EL
Nanotechnology; 2020 Nov; 32(6):065703. PubMed ID: 33210620
[TBL] [Abstract][Full Text] [Related]
12. Quantifying the Efficacy of Magnetic Nanoparticles for MRI and Hyperthermia Applications via Machine Learning Methods.
Kim P; Serov N; Falchevskaya A; Shabalkin I; Dmitrenko A; Kladko D; Vinogradov V
Small; 2023 Nov; 19(48):e2303522. PubMed ID: 37563807
[TBL] [Abstract][Full Text] [Related]
13. Polyethylene Glycol-Mediated Synthesis of Cubic Iron Oxide Nanoparticles with High Heating Power.
Iacovita C; Stiufiuc R; Radu T; Florea A; Stiufiuc G; Dutu A; Mican S; Tetean R; Lucaciu CM
Nanoscale Res Lett; 2015 Dec; 10(1):391. PubMed ID: 26446074
[TBL] [Abstract][Full Text] [Related]
14. Heating ability of elongated magnetic nanoparticles.
Gubanova EM; Usov NA; Oleinikov VA
Beilstein J Nanotechnol; 2021; 12():1404-1412. PubMed ID: 35028264
[TBL] [Abstract][Full Text] [Related]
15. The role of dipole interactions in hyperthermia heating colloidal clusters of densely-packed superparamagnetic nanoparticles.
Fu R; Yan Y; Roberts C; Liu Z; Chen Y
Sci Rep; 2018 Mar; 8(1):4704. PubMed ID: 29549359
[TBL] [Abstract][Full Text] [Related]
16. Induction heating: an efficient methodology for the synthesis of functional core-shell nanoparticles.
Raya-Barón Á; Ghosh S; Mazarío J; Varela-Izquierdo V; Fazzini PF; Tricard S; Esvan J; Chaudret B
Mater Horiz; 2023 Oct; 10(11):4952-4959. PubMed ID: 37609955
[TBL] [Abstract][Full Text] [Related]
17. Nanoparticles for Magnetic Heating: When Two (or More) Is Better Than One.
Ovejero JG; Spizzo F; Morales MP; Del Bianco L
Materials (Basel); 2021 Oct; 14(21):. PubMed ID: 34771940
[TBL] [Abstract][Full Text] [Related]
18. An exhaustive scrutiny to amplify the heating prospects by devising a core@shell nanostructure for constructive magnetic hyperthermia applications.
Tsopoe SP; Borgohain C; Kar M; Kumar Panda S; Borah JP
Sci Rep; 2023 Aug; 13(1):13669. PubMed ID: 37608046
[TBL] [Abstract][Full Text] [Related]
19. Comparative Modeling of Frequency Mixing Measurements of Magnetic Nanoparticles Using Micromagnetic Simulations and Langevin Theory.
Engelmann UM; Shalaby A; Shasha C; Krishnan KM; Krause HJ
Nanomaterials (Basel); 2021 May; 11(5):. PubMed ID: 34064640
[TBL] [Abstract][Full Text] [Related]
20. Unified model of hyperthermia via hysteresis heating in systems of interacting magnetic nanoparticles.
Ruta S; Chantrell R; Hovorka O
Sci Rep; 2015 Mar; 5():9090. PubMed ID: 25766365
[TBL] [Abstract][Full Text] [Related]
[Next] [New Search]
