Synthesis, characterization, mechanical and magnetic characteristics of Gd3+/PO43 substituted zircon for application in hard tissue replacements

Author:

M Ezhilan1ORCID,Alam M. Mushtaq1,Vijayalakshmi U.2,Gupta Somlee3,Dhayalan Arunkumar3,Kannan S.1ORCID

Affiliation:

1. Centre for Nanoscience and Technology Pondicherry University Puducherry India

2. Department of Chemistry, School of Advanced Sciences (SAS) Vellore Institute of Technology Vellore India

3. Department of Biotechnology Pondicherry University Puducherry India

Abstract

AbstractThe study reports on the use of sol–gel technique to yield zircon type [Zr(1–0.1–x) GdxTi0.1] [(SiO4)1–x(PO4)x] solid solution. Titanium has been used as a mineralizer to trigger zircon formation while equimolar concentrations of Gd3+ and PO43− were added to determine their accommodation limits in the zircon structure. The crystallization of t‐ZrO2 as a dominant phase alongside the crystallization of m‐ZrO2 and zircon were detected at 1200°C while their further annealing revealed the formation of zircon as a major phase at 1300°C. Heat treatment at 1400°C revealed the formation of zircon‐type solid solution [Zr(1–0.1‐x)GdxTi0.1][(SiO4)1−x(PO4)x] comprising the accommodation of 10 mol.% of Gd3+/PO43− at the zircon lattice. Beyond 10 mol.% of Gd3+/PO43−, the crystallization of GdPO4 as a secondary phase is noticed. Structural analysis revealed the expansion of zircon lattice due to the simultaneous occupancy of Gd3+/PO43− for the corresponding Zr4+/SiO44− sites. The mechanical strength of single‐phase zircon solid solution was higher in comparison to that of multiphase materials, namely in the presence of GdPO4 formed as a secondary phase in samples with added equimolar Gd3+/PO43− contents beyond 10 mol.%. Nevertheless, the paramagnetic behavior of the samples demonstrated a steady surge as a function of enhanced Gd3+ content.

Funder

Department of Health Research, India

Publisher

Wiley

Subject

Biomedical Engineering,Biomaterials

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