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Journal of Materials Science: Materials in Electronics

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13-11-2019

Hyperthermia properties of Ni_xFe_3−xO₄ nanoparticles: a first-order reversal curve investigation

Authors: Ahmad Reza Yasemian, Mohammad Almasi Kashi, Abdolali Ramazani

Published in: Journal of Materials Science: Materials in Electronics | Issue 24/2019

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Abstract

Magnetic nanoparticles (NPs) studied in hyperthermia investigations have shown promising results in combating tumors and slowing cancerous growth. However, no attention has been paid to hyperthermia properties of nickel ferrite NPs with different compositions. Herein, we synthesize Ni_xFe_3−xO₄ (0 ≤ x ≤ 1) NPs using a co-precipitation method, followed by the investigation of their structural, magnetic, and hyperthermia properties. According to room-temperature hysteresis loop results, the complete replacement of Fe cations by Ni²⁺ ions leads to a reduction in the saturation magnetization (M_s) from 55.40 to 19.30 emu/g, and an increase in the coercive field (H_c) from 7.33 to 71.40 Oe. Moreover, first-order reversal curve analysis reveals a reduction in the respective superparamagnetic fraction from 77 to 29% when increasing the Ni concentration (x) from 0 to 1. The results on magnetic hyperthermia properties show that Ni_0.6Fe_2.4O₄ and Ni_0.8Fe_2.2O₄ NPs have highest heating efficiency, giving rise to specific loss power values of 170.5 and 169 W/g in a water medium with a concentration of 3 mg/ml, and 200.5 and 198.4 W/g for a concentration of 1.5 mg/ml, respectively.

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R. Gilchrist, R. Medal, W.D. Shorey, R.C. Hanselman, J.C. Parrott, C.B. Taylor, Selective inductive heating of lymph nodes. Ann. Surg. 146(4), 596 (1957)

U. Gneveckow, A. Jordan, R. Scholz, V. Brüß, N. Waldöfner, J. Ricke, A. Feussner, B. Hildebrandt, B. Rau, P. Wust, Description and characterization of the novel hyperthermia-and thermoablation-system for clinical magnetic fluid hyperthermia. Med. Phys. 31(6), 1444–1451 (2004)

A. Tomitaka, J-i Jo, I. Aoki, Y. Tabata, Preparation of biodegradable iron oxide nanoparticles with gelatin for magnetic resonance imaging. Inflamm. Regen. 34(1), 045–055 (2014)

A. Tomitaka, Y. Takemura, Measurement of specific loss power from intracellular magnetic nanoparticles for hyperthermia. J. Pers. Nanomed. 1(1), 33–37 (2015)

M.A. Abakumov, N.V. Nukolova, M. Sokolsky-Papkov, S.A. Shein, T.O. Sandalova, H.M. Vishwasrao, N.F. Grinenko, I.L. Gubsky, A.M. Abakumov, A.V. Kabanov, VEGF-targeted magnetic nanoparticles for MRI visualization of brain tumor. Nanomedicine 11(4), 825–833 (2015)

S. Mornet, S. Vasseur, F. Grasset, E. Duguet, Magnetic nanoparticle design for medical diagnosis and therapy. J. Mater. Chem. 14(14), 2161–2175 (2004)

J.-P.A.A. Fortin, F. Gazeau, C. Wilhelm, Intracellular heating of living cells through Néel relaxation of magnetic nanoparticles. Eur. Biophys. J. 37(2), 223–228 (2008)

H.M. Joshi, Y.P. Lin, M. Aslam, P. Prasad, E.A. Schultz-Sikma, R. Edelman, T. Meade, V.P. Dravid, Effects of shape and size of cobalt ferrite nanostructures on their MRI contrast and thermal activation. J. Phys. Chem. C 113(41), 17761–17767 (2009)

A.G. Kolhatkar, A.C. Jamison, D. Litvinov, R.C. Willson, T.R. Lee, Tuning the magnetic properties of nanoparticles. Int. J. Mol. Sci. 14(8), 15977–16009 (2013)

10.

A.B. Salunkhe, V.M. Khot, S. Pawar, Magnetic hyperthermia with magnetic nanoparticles: a status review. Curr. Top. Med. Chem. 14(5), 572–594 (2014)

11.

L. Delaunay, S. Neveu, G. Noyel, J. Monin, A new spectrometric method, using a magneto-optical effect, to study magnetic liquids. J. Magn. Magn. Mater. 149(3), L239–L245 (1995)

12.

R.E. Rosensweig, Heating magnetic fluid with alternating magnetic field. J. Magn. Magn. Mater. 252, 370–374 (2002)

13.

I. Obaidat, B. Issa, Y. Haik, Magnetic properties of magnetic nanoparticles for efficient hyperthermia. Nanomaterials 5(1), 63–89 (2015)

14.

Z. Nemati, J. Alonso, L. Martinez, H. Khurshid, E. Garaio, J. Garcia, M. Phan, H. Srikanth, Enhanced magnetic hyperthermia in iron oxide nano-octopods: size and anisotropy effects. J. Phys. Chem. C 120(15), 8370–8379 (2016)

15.

L.-Y. Lu, L.-N. Yu, X.-G. Xu, Y. Jiang, Monodisperse magnetic metallic nanoparticles: synthesis, performance enhancement, and advanced applications. Rare Met. 32(4), 323–331 (2013)

16.

Z. Hedayatnasab, F. Abnisa, W.M.A.W. Daud, Review on magnetic nanoparticles for magnetic nanofluid hyperthermia application. Mater. Des. 123, 174–196 (2017)

17.

R. Betancourt-Galindo, O. Ayala-Valenzuela, L. Garcia-Cerda, O.R. Fernandez, J. Matutes-Aquino, G. Ramos, H. Yee-Madeira, Synthesis and magneto-structural study of Co_xFe_3−xO₄ nanoparticles. J. Magn. Magn. Mater. 294(2), e33–e36 (2005)

18.

G. Salazar-Alvarez, R.T. Olsson, J. Sort, W.A. Macedo, J.D. Ardisson, M.D. Baró, U.W. Gedde, J. Nogués, Enhanced coercivity in co-rich near-stoichiometric Co_xFe_3-xO_{4+ δ} nanoparticles prepared in large batches. Chem. Mater. 19(20), 4957–4963 (2007)

19.

H. Le Trong, A. Barnabé, L. Presmanes, P. Tailhades, Phase decomposition study in Co_xFe_3−xO₄ iron cobaltites: synthesis and structural characterization of the spinodal transformation. Solid State Sci. 10(5), 550–556 (2008)

20.

L. Hu, C. De Montferrand, Y. Lalatonne, L. Motte, A. Brioude, Effect of cobalt doping concentration on the crystalline structure and magnetic properties of monodisperse Co_xFe_3–xO₄ nanoparticles within nonpolar and aqueous solvents. J. Phys. Chem. C 116(7), 4349–4355 (2012)

21.

R. Ji, C. Cao, Z. Chen, H. Zhai, J. Bai, Solvothermal synthesis of Co_xFe_3−xO₄ spheres and their microwave absorption properties. J. Mater. Chem. C 2(29), 5944–5953 (2014)

22.

L. Wu, P.-O. Jubert, D. Berman, W. Imaino, A. Nelson, H. Zhu, S. Zhang, S. Sun, Monolayer assembly of ferrimagnetic Co_xFe_3–xO₄ nanocubes for magnetic recording. Nano Lett. 14(6), 3395–3399 (2014)

23.

A.M. Wahba, M.B. Mohamed, Structural and magnetic characterization and cation distribution of nanocrystalline Co_xFe_3−xO₄ ferrites. J. Magn. Magn. Mater. 378, 246–252 (2015)

24.

E. Fantechi, C. Innocenti, M. Albino, E. Lottini, C. Sangregorio, Influence of cobalt doping on the hyperthermic efficiency of magnetite nanoparticles. J. Magn. Magn. Mater. 380, 365–371 (2015)

25.

J. Mohapatra, M. Xing, J.P. Liu, Magnetic and hyperthermia properties of Co_xFe_3-xO₄ nanoparticles synthesized via cation exchange. AIP Adv. 8(5), 056725 (2018)

26.

S. Bae, S.W. Lee, Y. Takemura, Applications of NiFe₂O₄ nanoparticles for a hyperthermia agent in biomedicine. Appl. Phys. Lett. 89(25), 252503 (2006)

27.

S. Larumbe, C. Gomez-Polo, J. Pérez-Landazábal, A. García-Prieto, J. Alonso, M. Fdez-Gubieda, D. Cordero, J. Gómez, Ni doped Fe₃O₄ magnetic nanoparticles. J. Nanosci. Nanotechnol. 12(3), 2652–2660 (2012)

28.

M.I. Nugraha, P. Noorlaily, M. Abdullah, F. Iskandar (eds.) Synthesis of Ni_xFe_3-xO₄ nanoparticles by microwave-assisted coprecipitation and their application in viscosity reduction of heavy oil. Materials Science Forum, Trans Tech Publications (2013)

29.

Y. Xia, B. Wang, G. Wang, X. Liu, H. Wang, MOF-derived porous Ni_xFe_3-xO₄ nanotubes with excellent performance in lithium-ion batteries. ChemElectroChem. 3(2), 299–308 (2016)

30.

X. Sun, X. Zhang, P. Wang, M. Yang, J. Ma, Z. Ding, B. Geng, M. Wang, Y. Ma, Evolution of structure and magnetism from Ni_xFe_3−xO₄ (x = 0, 0.5, 1 and 1.5) to Ni-Fe alloys and to Ni-Fe-N. Mater. Res. Bull. 95, 261–266 (2017)

31.

K. Jiang, Y. Liu, Y. Pan, R. Wang, P. Hu, R. He, L. Zhang, G. Tong, Monodisperse Ni_xFe_3-xO₄ nanospheres: metal-ion-steered size/composition control mechanism, static magnetic and enhanced microwave absorbing properties. Appl. Surf. Sci. 404, 40–48 (2017)

32.

Y. Yunas, W.A. Adi, M. Mashadi, P.A. Rahmy, Magnetic and microwave absorption properties of nickel ferrite (Ni_xFe_3-xO₄) by HEM technique. Malays. J. Fundam. Appl. Sci. 13(3), 203–206 (2017)

33.

M. Phadatare, J. Meshram, K. Gurav, J.H. Kim, S. Pawar, Enhancement of specific absorption rate by exchange coupling of the core–shell structure of magnetic nanoparticles for magnetic hyperthermia. J. Phys. D 49(9), 0950040.0 (2016)

34.

V. Mote, Y. Purushotham, B. Dole, Williamson-Hall analysis in estimation of lattice strain in nanometer-sized ZnO particles. J. Theor. Appl. Phys. 6(1), 6 (2012)

35.

P.M. Kibasomba, S. Dhlamini, M. Maaza, C.-P. Liu, M.M. Rashad, D.A. Rayan, B.W. Mwakikunga, Strain and grain size of TiO2 nanoparticles from TEM, Raman spectroscopy and XRD: the revisiting of the Williamson-Hall plot method. Results Phys. 9, 628–635 (2018)

36.

Y. Slimani, M. Almessiere, E. Hannachi, A. Baykal, A. Manikandan, M. Mumtaz, F.B. Azzouz, Influence of WO₃ nanowires on structural, morphological and flux pinning ability of YBa₂Cu₃Oy superconductor. Ceram. Int. 45(2), 2621–2628 (2019)

37.

A.P. Roberts, C.R. Pike, K.L. Verosub, First-order reversal curve diagrams: a new tool for characterizing the magnetic properties of natural samples. J. Geophys. Res. Solid Earth 105(B12), 28461–28475 (2000)

38.

M. Winklhofer, R.K. Dumas, K. Liu, Identifying reversible and irreversible magnetization changes in prototype patterned media using first-and second-order reversal curves. J. Appl. Phys. 103(7), 07C518 (2008)

39.

S. Samanifar, M. Alikhani, M.A. Kashi, A. Ramazani, A. Montazer, Magnetic alloy nanowire arrays with different lengths: insights into the crossover angle of magnetization reversal process. J. Magn. Magn. Mater. 430, 6–15 (2017)

40.

M. Mouallem-Bahout, S. Bertrand, O. Pena, Synthesis and characterization of Zn_1−xNi_xFe₂O₄ spinels prepared by a citrate precursor. J. Solid State Chem. 178(4), 1080–1086 (2005)

41.

M. Salavati-Niasari, F. Davar, T. Mahmoudi, A simple route to synthesize nanocrystalline nickel ferrite (NiFe₂O₄) in the presence of octanoic acid as a surfactant. Polyhedron 28(8), 1455–1458 (2009)

42.

P. Sivakumar, R. Ramesh, A. Ramanand, S. Ponnusamy, C. Muthamizhchelvan, Synthesis and characterization of nickel ferrite magnetic nanoparticles. Mater. Res. Bull. 46(12), 2208–2211 (2011)

43.

G. Glöckl, R. Hergt, M. Zeisberger, S. Dutz, S. Nagel, W. Weitschies, The effect of field parameters, nanoparticle properties and immobilization on the specific heating power in magnetic particle hyperthermia. J. Phys. Condens. Matter 18(38), S2935 (2006)

44.

A. Goldman, Modern Ferrite Technology (Springer, Cham, 2006)

45.

G. Nabiyouni, M.J. Fesharaki, M. Mozafari, J. Amighianet, Characterization and magnetic properties of nickel ferrite nanoparticles prepared by ball milling technique. Chin. Phys. Lett. 27(12), 6–9 (2010)

46.

R. Kambale, P. Shaikh, S. Kamble, Y. Kolekar, Effect of cobalt substitution on structural, magnetic and electric properties of nickel ferrite. J. Alloys Compd. 478(1–2), 599–603 (2009)

47.

M. Kumari, M. Widdrat, É. Tompa, R. Uebe, D. Schüler, M. Pósfai, D. Faivre, A.M. Hirt, Distinguishing magnetic particle size of iron oxide nanoparticles with first-order reversal curves. J. Appl. Phys. 116(12), 124304 (2014)

48.

B. Mehdaoui, R. Tan, A. Meffre, J. Carrey, S. Lachaize, B. Chaudret, M. Respaud, Increase of magnetic hyperthermia efficiency due to dipolar interactions in low-anisotropy magnetic nanoparticles: theoretical and experimental results. Phys. Rev. B 87(17), 174419 (2013)

Title: Hyperthermia properties of NixFe3−xO4 nanoparticles: a first-order reversal curve investigation
Authors: Ahmad Reza Yasemian
Mohammad Almasi Kashi
Abdolali Ramazani
Publication date: 13-11-2019
Publisher: Springer US
Published in: Journal of Materials Science: Materials in Electronics / Issue 24/2019
Print ISSN: 0957-4522
Electronic ISSN: 1573-482X
DOI: https://doi.org/10.1007/s10854-019-02501-8

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