Magnetic hyperthermia in magnetic nanoemulsions: Effects of polydispersity, particle concentration and medium viscosity

Journal of Magnetism and Magnetic Materials

Volumn 441, Issue , 2017, Pages 310-327

  Lahiri, B B ^a   Ranoo, Surojit ^a   Zaibudeen, A W ^a   Philip, John ^a  

^a INDIRA GANDHI CENTRE FOR ATOMIC RESEARCH   (India)

Author keywords

Agar gel; Linear response theory (LRT); Magnetic fluid hyperthermia (MFH); Magnetic nanoemulsion; Neel Brown relaxation; Specific absorption rate (SAR)

Indexed keywords

ALGAE; DISEASES; DROPS; DRUG THERAPY; EFFICIENCY; EMULSIFICATION; EMULSIONS; HEATING; HISTOLOGY; HYPERTHERMIA THERAPY; LIPOSOMES; MAGNETIC FIELDS; MAGNETIC FLUIDS; MAGNETISM; NANOFLUIDICS; NANOPARTICLES; PHOTODYNAMIC THERAPY; POLYSACCHARIDES; TISSUE; VISCOSITY; VOLCANIC ROCKS;

AGAR GEL; BROWN RELAXATION; LINEAR-RESPONSE THEORY; MAGNETIC FLUID HYPERTHERMIA; MAGNETIC NANOEMULSION; SPECIFIC ABSORPTION RATE;

NANOMAGNETICS;

EID: 85020271800     PISSN: 03048853     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jmmm.2017.05.076     Document Type: Article

References (94)

1. Brule, S., Levy, M., Wilhelm, C., Letourneur, D., Gazeau, F., Menager, C., Visage, C.L., Doxorubicin release triggered by alginate embedded magnetic nanoheaters: a combined therapy. Adv. Mater. 23 (2011), 787–790.
2. Luong, T.T., Knoppe, S., Bloemen, M., Brullot, W., Strobbe, R., Locquet, J.-P., Verbiest, T., Magnetothermal release of payload from iron oxide/silica drug delivery agents. J. Magn. Magn. Mater. 416 (2016), 194–199.
3. 4 core–shell nanoparticles. J. Magn. Magn. Mater. 397 (2016), 20–27.
4. Lahiri, B.B., Muthukumaran, T., Philip, J., Magnetic hyperthermia in phosphate coated iron oxide nanofluids. J. Magn. Magn. Mater. 407 (2016), 101–113.
5. Phong, P.T., Nguyen, L.H., Phong, L.T.H., Nam, P.H., Manh, D.H., Lee, I.J., Phuc, N.X., Study of specific loss power of magneticfluids with various viscosities. J. Magn. Magn. Mater. 428 (2017), 36–42.
6. Soares, P.I.P., Lochte, F., Echeverria, C., Pereira, L.C.J., Coutinho, J.T., Ferreira, I.M.M., Novo, C.M.M., Borges, J.P.M.R., Thermal and magnetic properties of iron oxide colloids: influence of surfactants. Nanotechnology, 26, 2015, 425704.
7. Yoo, D., Lee, J.-H., Shin, T.-H., Cheon, J., Theranostic magnetic nanoparticles. Acc. Chem. Res. 44 (2011), 863–874.
8. Paula, L.B.D., Primo, F.L., Pinto, M.R., Morais, P.C., Tedesco, A.C., Combination of hyperthermia and photodynamic therapy on mesenchymal stem cell line treated with chloroaluminum phthalocyanine magnetic-nanoemulsion. J. Magn. Magn. Mater. 380 (2015), 372–376.
9. Sahoo, B., Devi, K.S.P., Banerjee, R., Maiti, T.K., Pramanik, P., Dhara, D., Thermal and pH responsive polymer-tethered multifunctional magnetic nanoparticles for targeted delivery of anti-cancer drug. ACS Appl. Mater. Interfaces 5 (2013), 3884–3893.
10. 4 nanoparticles for Therapeutic applications. J. Nanofluids 4 (2015), 421–427.
11. Gilchrist, R.K., Medal, R., Shorey, W.D., Hanselman, R.C., Parrott, J.C., Taylor, C.B., Selective inductive heating of lymph nodes. Ann. Surg. 146 (1957), 596–606.
12. Deatsch, A.E., Evans, B.A., Heating efficiency in magnetic nanoparticle hyperthermia. J. Magn. Magn. Mater. 354 (2014), 163–172.
13. Pankhurst, Q.A., Connolly, J., Jones, S.K., Dobson, J., Application of magnetic nanoparticles in biomedicine. J. Phys. D Appl. Phys. 36 (2003), R167–R181.
14. Pankhurst, Q.A., Thanh, N.K.T., Jones, S.K., Dobson, J., Progress in applications of magnetic nanoparticles in biomedicine. J. Phys. D Appl. Phys., 42, 2009, 224001.
15. Ito, A., Tanaka, K., Kondo, M., Shinkai, M., Honda, H., Matsumoto, K., Saida, T., Kobayashi, T., Tumor regression by combined immunotherapy and hyperthermia using magnetic nanoparticles in an experimental subcutaneous murine melanoma. Cancer Sci. 94 (2003), 308–313.
16. Hilger, I., Hiergeist, R., Hergt, R., Winnefeld, K., Schubert, H., Kaiser, W.A., Thermal ablation of tumors using magnetic nanoparticles: an in vivo feasibility study. Invest. Radiol. 37 (2002), 580–586.
17. Johannsen, M., Gneveckow, U., Eckelt, L., Feussner, A., Waldofner, N., Scholz, R., Deger, S., Wust, P., Loening, S.A., Jordan, A., Clinical hyperthermia of prostate cancer using magnetic nanoparticles: presentation of a new interstitial technique. Int. J. Hyperth. 21 (2005), 637–647.
18. Lee, J.-H., Jang, J.-T., Choi, J.-S., Moon, S.H., Noh, S.-H., Kim, J.-W., Kim, J.-G., Kim, I.-S., Park, K.I., Cheon, J., Exchange-coupled magnetic nanoparticles for efficient heat induction. Nat. Nanotechnol. 6 (2011), 418–422.
19. Ruta, S., Chantrell, R., Hovorka, O., Unified model of hyperthermia via hysteresis heating in systems of interacting magnetic nanoparticles. Sci. Rep., 5, 2015, 9090.
20. Haase, C., Nowak, U., Role of dipole-dipole interactions for hyperthermia heating of magnetic nanoparticle ensembles. Phys. Rev. B, 85, 2012, 045435.
21. Conde-Leboran, I., Baldomir, D., Martinez-Boubeta, C., Chubykalo-Fesenko, O., Morales, M.D.P., Salas, G., Cabrera, D., Camarero, J., Teran, F.J., Serantes, D., A single picture explains diversity of hyperthermia response of magnetic nanoparticles. J. Phys. Chem. C 119 (2015), 15698–15706.
22. Urtizberea, A., Natividad, E., Arizaga, A., Castro, M., Mediano, A., Specific absorption rate and magnetic properties of ferrofluids with interaction effects at low concentration. J. Phys. Chem. C 114 (2010), 4916–4922.
23. Rosensweig, R.E., Heating magnetic fluid with alternating magnetic field. J. Magn. Magn. Mater. 252 (2002), 370–374.
24. Guardia, P., Corato, R.D., Lartigue, L., Wilhelm, C., Espinosa, A., Garcia-Hernandez, M., Gazeau, F., Manna, L., Pellegrino, T., Water-soluble iron oxide nanocubes with high values of specific absorption rate for cancer cell hyperthermia treatment. ACS Nano 6 (2012), 3080–3091.
25. Kallumadil, M., Tada, M., Nakagawa, T., Abe, M., Southern, P., Pankhurst, Q.A., Suitability of commercial colloids for magnetic hyperthermia. J. Magn. Magn. Mater. 321 (2009), 1509–1513.
26. Renard, P.-E.L., Lortz, R., Senatore, C., Rapin, J.-P., Buchegger, F., Petri-Fink, A., Hofmann, H., Doelker, E., Jordan, O., Magnetic and in vitro heating properties of implants formed in situ from injectable formulations and containing superparamagnetic iron oxide nanoparticles (SPIONs) embedded in silica microparticles for magnetically induced local hyperthermia. J. Magn. Magn. Mater. 323 (2011), 1054–1063.
27. Muller, R., Hergt, R., Zeisberger, M., Gawalek, W., Preparation of magnetic nanoparticles with large specific loss power for heating applications. J. Magn. Magn. Mater. 289 (2005), 13–16.
28. Guibert, C., Fresnais, J., Peyre, V., Dupuis, V., Magneticfluid hyperthermia probed by both calorimetric and dynamic hysteresis measurements. J. Magn. Magn. Mater. 421 (2017), 384–392.
29. Knobel, M., Nunes, W.C., Socolovsky, L.M., De Biasi, E., Vargas, J.M., Denardin, J.C., Superparamagnetism and other magnetic features in granular materials: a review on ideal and real systems. J. Nanosci. Nanotechnol. 8 (2008), 2836–2857.
30. 4 based magnetic fluids. Infrared Phys. Technol. 78 (2016), 173–184.
31. 4 using infrared thermography. Infrared Phys. Technol. 80 (2017), 71–82.
32. R.O. Rodrigues, H.T. Gomes, R. Lima, A.M.T. Silva, P.J.S. Rodrigues, P.B. Tavares, J.M.R.S. Tavares, Thermal infrared image processing to assess heat generated by magnetic nanoparticles for hyperthermia applications, in: 11th International Symposium on Visual Computing, ISVC'15 Las Vegas, Nevada, USA, December 14-16, 2015, pp. 25-34.
33. Kumar, C.S.S.R., Mohammad, F., Magnetic nanomaterials for hyperthermia-based therapy and controlled drug delivery. Adv. Drug Deliv. Rev. 63 (2011), 789–808.
34. Liu, X.L., Choo, E.S.G., Ahmed, A.S., Zhao, L.Y., Yang, Y., Ramanujan, R.V., Xue, J.M., Fan, D.D., Fan, H.M., Ding, J., Magnetic naoparticle-loaded polymer nanospheres as magnetic hyperthermia agents. J. Mat. Chem. B 2 (2014), 120–128.
35. 4) hollow spheres and a study on AC magnetic properties for hyperthermia application. J. Magn. Magn. Mater. 417 (2016), 376–381.
36. Paula, L.B.D., Primo, F.L., Jardim, D.R., Morais, P.C., Tedesco, A.C., Development, characterization, and in vitro trials of chloroaluminum phthalocyanine-magnetic nanoemulsion to hyperthermia and photodynamic therapies on glioblastoma as a biological model. J. Appl. Phys., 111, 2012, 07B307.
37. Primo, F.L., Rodrigues, M.M.A., Simioni, A.R., Lacava, Z.G.M., Morais, P.C., Tedesco, A.C., Photosensitizer-loaded magnetic nanoemulsion for use in synergic photodynamic and magnetohyperthermia therapies of neoplastic cells. J. Nanosci. Nanotech. 8 (2008), 5873–5877.
38. Gaur, U., Sahoo, S.K., De, T.K., Ghosh, P.C., Maitra, A., Ghosh, P.K., Biodistribution of fluoresceinated dextran using novel nanoparticles evading reticuloendothelial system. Int. J. Pharm. 202 (2000), 1–10.
39. Moghimi, S.M., Hynter, A.H., Murray, J.C., Long-circulating and target-specific nanoparticles: theory to practice. Pharmacol. Rev. 53 (2001), 283–318.
40. Monsky, W.L., Fukumura, D., Gohongi, T., Ancukiewcz, M., Weich, H.A., Torchilin, V.P., Augmentation of transvascular transport of macromolecules and nanoparticles in tumors using vascular endothelial growth factor. Cancer Res. 59 (1999), 4129–4135.
41. Muthu, M.S., Singh, S., Targeted nanomedicines: effective treatment modalities for cancer AIDS and brain disorders. Nanomedicine 4 (2009), 105–118.
42. Win, K.Y., Feng, S.S., Effects of particle size and surface coating on cellular uptake of polymeric nanoparticles for oral delivery of anticancer drugs. Biomaterials 26 (2005), 2713–2722.
43. Bealle, G., Corato, R.D., Kolosnjaj-Tabi, J., Dupuis, V., Clement, O., Gazeau, F., Wilhelm, C., Menager, C., Ultra magnetic liposomes for MR imaging, targeting, and hyperthermia. Langmuir 28 (2012), 11834–11842.
44. 4 magnetic nanoassemblies (MMNs) for chemo-thermal therapy. J. Mat. Chem. B 1 (2013), 3652–3660.
45. Creixell, M., Bohorquez, A.C., Torres-Lugo, M., Rinaldi, C., EGFR-targetted magnetic nanoparticles heaters kill cancer cells without a perceptible temperature rise. ACS Nano 5 (2011), 7124–7129.
46. Mahendran, V., Philip, J., Non-enzymatic glucose detection using magnetic nanoemulsions. Appl. Phys. Lett., 105, 2014, 123110.
47. Montoya, E.D.l.C., Guinel, M.J.-F., Rinaldi, C., Preparation of magnetic polymer colloids with Brownian magnetic relaxation. Colloid Polym. Sci. 292 (2014), 1191–1198.
48. Fan, Y., Guo, R., Shi, X., Allen, S., Cao, Z., Baker, J.R., Wang, S.H., Modified nanoemulsions with iron oxide for magnetic resonance imaging. Nanomedicine, 6, 2016, 223.
49. Hu, S.H., Liao, B.J., Chiang, C.S., Chen, P.J., Chen, I.W., Chen, S.Y., Core-shell nanocapsules stabilized by single-component polymer and nanoparticles for magneto-chemotherapy/hyperthermia with multiple drugs. Adv. Mater. 24 (2012), 3627–3632.
50. Munoz-Menendez, C., Conde-Leboran, I., Baldomir, D., Chubykalo-fesenko, O., Serantes, D., Role of size polydispersity in magnetic fluid hyperthermia: average vs. local infra/over-heating effects. Phys. Chem. Chem. Phys. 17 (2015), 27812–27820.
51. Ivanov, A.O., Kuznetsova, O.B., Subbotin, I.M., Magnetic properties of ferrofluid emulsions: model of non-interacting droplets. Magnetohydrodynamics 47 (2011), 129–134.
52. Gudoshnikov, S.A., Liubimov, B.Y., Usov, N.A., Hysteresis losses in a dense superparamagnetic nanoparticle assembly. AIP Adv., 2, 2012, 012143.
53. Landi, G.T., Role of dipolar interaction in magnetic hyperthermia. Phys. Rev. B, 89, 2014, 014403.
54. Neel, L., Theorie du Trainage Magnetique des Ferromagnetiques en Grains Fins avec Applications aux Terres Cuites (in French). Ann. Geophys. 5 (1949), 99–136.
55. Brown, W.F., Thermal fluctuations of a single-domain particle. Phys. Rev. 130 (1963), 1677–1686.
56. Branquinho, L.C., Carriao, M.S., Costa, A.S., Zufelato, N., Sousa, M.H., Miotto, R., Ivkov, R., Bakuzis, A.F., Effect of magnetic dipolar interactions on nanoparticle heating efficiency: implications for cancer hyperthermia. Sci. Rep., 3, 2013, 2887.
57. Landi, G.T., Arantes, F.R., Cornejo, D.R., Bakuzis, A.F., Andreu, I., Natividad, E., AC susceptibility as a tool to probe the dipolar interaction in magnetic nanoparticles. J. Magn. Magn. Mater. 421 (2017), 138–151.
58. Andreu, I., Natividad, E., Accuracy of available methods for quantifying the heat power generation of nanoparticles for magnetic hyperthermia. Int. J. Hyperth. 29 (2013), 739–751.
59. Morup, S., Tronc, E., Superparamagnetic relaxation of weekly interacting particles. Phys. Rev. Lett. 72 (1994), 3278–3281.
60. Pineiro-Redondo, Y., Banobre-Lopez, M., Pardinas-Blanco, I., Goya, G., Lopez-Quintela, M.A., Rivas, J., The influence of colloidal parameters on the specific power absorption of PAA-coated magnetite nanoparticles. Nanoscale Res. Lett., 6, 2011, 383.
61. Wang, X., Gu, H., Yang, Z., The heating effect of magnetic fluids in an alternating magnetic field. J. Magn. Magn. Mater. 293 (2005), 334–340.
62. Tan, R.P., Carrey, J., Respaud, M., Magnetic hyperthermia properties of nanoparticles inside lysosomes using kinetic Monte Carlo simulations: Influence of key parameters and dipolar interactions, and evidence for strong spatial variation of heating power. Phys. Rev. B, 90, 2014, 214421.
63. Habault, D., Dery, A., Leng, J., Lecommandoux, S., Meins, J.-F.L., Sandre, O., Droplet microfluidics to prepare magnetic polymer vesicles and to confine the heat in magnetic hyperthermia. IEEE Trans. Magn. 49 (2013), 182–190.
64. J.T. Dias, M. Moros, P.D. Pino, S. Rivera, V. Grazu, J.M.D.l. Fuente, DNA as a molecular local thermal probe for the analysis of magnetic hyperthermia, Angew. Chem. Int. Edit., 52 (2013) 11526-11529.
65. Kucsko, G., Maurer, P., Yao, N.Y., Kubo, M., Noh, H., Lo, P., Park, H., Lukin, M.D., Nanometer-scale thermometry in a living cell. Nature 500 (2013), 54–58.
66. Riedinger, A., Guardia, P., Curcio, A., Garcia, M.A., Cingolani, R., Manna, L., Pellegrino, T., Subnanometer local temperature probing and remotely controlled drug release based on azo-functionalized iron oxide nanoparticles. Nano Lett. 13 (2013), 2399–2406.
67. Trisnanto, S.B., Kitamoto, Y., Field-dependent Brownian relaxation dynamics of a superparamagnetic clustered-particle suspension. Phys. Rev. B, 90, 2014, 032306.
68. Kalele, S., Narain, R., Krishnan, K.M., Probing temperature-sensitive behavior of pNIPAAM-caoted iron oxide nanoparticles using frequency-dependent magnetic measurements. J. Magn. Magn. Mater. 321 (2009), 1377–1380.
69. Shima, P.D., Philip, J., Raj, B., Synthesis of aqueous and nonaqueous iron oxide nanofluids and study of temperature dependence on thermal conductivity and viscosity. J. Phys. Chem. C 114 (2010), 18825–18833.
70. Philip, J., Jayakumar, T., Kalyanasundaram, P., Raj, B., Effect of polymer-surfactant association on colloidal force. Phys. Rev. E, 66, 2002, 011406.
71. Salloum, M., Ma, R.H., Weeks, D., Zhu, L., Controlling nanoparticle delivery in magnetic nanoparticle hyperthermia for cancer treatment: experimental study in agarose gel. Int J. Hyperth. 24 (2008), 337–345.
72. Wildeboer, R.R., Southern, P., Pankhurst, Q.A., On the reliable measurement of specifc absorption rates and intrinsic loss parameters in magnetic hyperthermia materials. J. Phys. D Appl. Phys., 47, 2014, 495003.
73. 4 magnetic nanoparticles capped with oleic acid and polyethylene glycol fo hyperthermia. J. Mater. Chem. 21 (2011), 13388–13398.
74. Gnanaprakash, G., Philip, J., Jayakumar, T., Raj, B., Effect of digestion time and alkali addition rate on physical properties of magnetic nanoparticles. J. Phys. Chem. B 111 (2007), 7978–7986.
75. Rieker, T., Hanprasopwattana, A., Datye, A., Hubbard, P., Particle size distribution inferred from small-angle X-ray scattering and transmission electron microscopy. Langmuir 15 (1999), 638–641.
76. Morita, T., Hatakeyama, Y., Nishikawa, K., Tanaka, E., Shingai, R., Murai, H., Nakano, H., Hino, K., Multiple small-angle X-ray scattering analyses of the structure of gold nanorods with unique end caps. Chem. Phys. 364 (2009), 14–18.
77. Boldon, L., Laliberte, F., Liu, L., Review of the fundamental theories behind small angle X-ray scattering, molecular dynamics simulations, and relevant integrated application. Nano Rev., 6, 2015, 25661.
78. Muthukumaran, T., Philip, J., Enhanced thermal stability of phosphate capped manetite nanoparticles. J. Appl. Phys., 115, 2014, 224304.
79. 4 nanoparticles. Appl. Surf. Sci. 256 (2010), 3093–3097.
80. Bloemen, M., Brullot, W., Luong, T.T., Geukens, N., Gils, A., Verbiest, T., Improved functionalization of oleic acid-coated iron oxide nanoparticles for biomedical applications. J. Nanopart. Res., 14, 2012, 1100.
81. Chantrell, R.W., Popplewell, J., Charles, S.W., Measurement of particle size distribution parameters in ferrofluids. IEEE Trans. Mag. 14 (1978), 975–978.
82. Natividad, E., Castro, M., Mediano, A., Adiabatic magnetothermia makes possible the study of the temperature dependence of the heat dissipated by magnetic nanoparticles under alternating magnetic fields. Appl. Phys. Lett., 98, 2011, 243119.
83. Wang, S.-Y., Huang, S., Borca-Tasciuc, D.-A., Potential sources of errors in measuring and evaluating the specific loss power of magnetic nanopartilces in an alternating magnetic field. IEEE Trans. Magn. 49 (2013), 255–262.
84. Mehdaoui, B., Tan, R.P., Meffre, A., Carrey, J., Lachaize, S., Chaudret, B., Respaud, M., Increase of magnetic hyperthermia efficiency due to dipolar interactions in low-anisotropy magnetic nanoparticles: theoretical and experimental results. Phys. Rev. B, 87, 2013, 174419.
85. Usov, N.A., Low frequency hysteresis loops of superparamagnetic nanoparticles with uniaxial anisotropy. J. Appl. Phys., 107, 2010, 123909.
86. Nakamura, K., Ueda, K., Tomitaka, A., Yamada, T., Takemura, Y., Self-heating temperature and AC hysteresis of magnetic iron oxide nanoparticles and their dependence on secondary particle size. IEEE Trans. Magn. 49 (2013), 240–243.
87. Gonzales-Weimuller, M., Zeisberger, M., Krishnan, K.M., Size-dependant heating rates of iron oxide nanoparticles for magnetic fluid hyperthermia. J. Magn. Magn. Mater. 321 (2009), 1947–1950.
88. Khandhar, A.P., Ferguson, R.M., Krishnan, K.M., Monodispersed magnetite nanoparticles optimized for magnetic fluid hyperthermia: Implications in biological systems. J. Appl. Phys., 109, 2011, 07B310.
89. Nikiforov, V.N., Koksharov, Y.A., Polyakov, S.N., Malakho, A.P., Volkov, A.V., Moskvina, M.A., Khomutov, G.B., Irkhin, V.Y., Magnetism and Verwey transition in magnetite nanoparticles in thin polymer film. J. Alloys Compd. 569 (2013), 58–61.
90. Brezovich, I.A., Low frequency hyperthermia. Med. Phys. Monogr. 16 (1988), 82–111.
91. Haemmerich, D., Schutt, D.J., I.d. Santos, J.G. Webster, D.M. Mahvi, Measurement of temperature-dependent specific heat of biological tissues. Physiol. Meas. 26 (2005), 59–67.
92. Chen, S., Chiang, C.-L., Hsieh, S., Simulating physiological conditions to evaluate nanoparticles for magnetic fluid hyperthermia (MFH) therapy applications. J. Magn. Magn. Mater. 322 (2010), 247–252.
93. Skumiel, A., Hornowski, T., Labowski, M., Jozefczak, A., An investigation of the magnetic properties of ferrofluids. Mol. Quantum Acous. 22 (2001), 231–238.
94. Fernandez, E., Lopez, D., Mijangos, C., Duskova-Smrckova, M., Ilavsky, M., Dusek, K., Rheological and thermal properties of agarose aqueous solutions and hydrogels. J. Polym. Sci. Part B Polym. Phys. 46 (2008), 322–328.