A Facile Synthesis of Fe3O4@SiO2@ZnO for Curcumin Delivery
Somayeh Sadighian, Kimia Sharifan, Akram Khanmohammadi, M.S. Rohani, Z Karami, S Sadighian, K Rostamizadeh, S Hosseini, S Rezaee, M Hamidi, M Kermanian, S Ramazani, A Naghibi, M Hosseini, S, S Sadighian, M Abbasi, S Arjmandi, H Karami, M Kermanian, S Sadighian, M Naghibi, M Khoshkam, M Kermanian, M Naghibi, S Sadighian, S Sadighian, N Bayat, S Najaflou, M Kermanian, M Hamidi, M Kermanian, S Sadighian, A Ramazani, M Naghibi, M Khoshkam, P Ghezelbash, M Tadic, L Kopanja, M Panjan, J Lazovic, B Tadic, B Stanojevic, L Motte, Y Zhao, H Zhang, X Yang, H Huang, G Zhao, T Cong, X Zuo, S Yang, L Pan, H Qiu, B Cui, G Li, J Yang, H Peng, Y Wang, N Li, R Gao, Z Chang, Y Wang, L Shen, B Li, Y Qiao, A Singh, S Sahoo, W Wen, L Wu, Y Chen, X Qi, J Cao, X Zhang, W Ma, Y Ge, S Shen, M Khalkhali, K Rostamizadeh, S Sadighian, F Khoeini, M Naghibi, M Hamidi, Y Ji, S Song, X Li, R Lv, L Wu, H Wang, M Cao, A Beagan, A Alghamdi, S Lahmadi, M Halwani, M Almeataq, A Alhazaa, K Alotaibi, A Alswieleh, B Karimi, S Emadi
Abstract
This paper proposed an engineered silica-coated Fe3O4 with ZnO nanoparticle, prepared by a coprecipitation/Stöber method as a curcumin delivery system. To this end, the structural characterization of the nanocomposite was performed by Fourier transform infrared spectroscopy (FT-IR), ray diffraction (XRD), VSM, and TEM. The findings show that the synthesized nanocomposite has a semispherical structure with an average particle size of 50-70 nm and excellent magnetization properties (21.4 emu/g).