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Areas of Research 

  • Mesocrystals: Investigating the impact of design strategies on the properties and applications of mesocrystals in magnetic (Fe3O4) and ZnO materials.

  • Crystallization of small molecules: Classical and nonclassical crystallizations, mesocrystals, hierarchical structure, reversed crystals growth, nucleation, and in situ studies.

  • Lanthanide doped nanophosphors: Crystal site engineering approach, dopant influences, structure-property study, UC nanomaterials.

  • Organic Materials: Nonlinear optical crystals, Terahertz generation, cocrystals, salt, polymorphism, crystal structure solution.

  • Density Functional Theory: Gaussian 09 for molecular optimization, vibrational studies and solvent influences.

Latest Research

What Clients Say

Mesocrystals with hierarchical architecture and crystallographically aligned nanoparticles hold immense potential for advanced applications in catalysis, energy storage and biomedicine. However, challenges arise for biomedical applications due to their surfactant-controlled growth, lack of understanding of magnetic mesocrystals and their dopant effect. Herein, we report a facile, and additive-free solvothermal synthesis of Fe3O4 mesocrystals (~205 nm) and investigated their morphological evolution by correlating the structural changes with respect to magnetic properties. The Fe3O4 mesocrystals exhibit high saturation magnetization of 87 emu/g surpassing conventional nanoparticles (55.29 emu/g) suitable for magnetic hyperthermia. The therapeutic temperature of 42°C was reached in 5 and 10 mg/mL under applied fields of 20 and 26.7 kA/m both in water and 2% agar media within the clinical safety limit. Furthermore, they exhibit excellent drug encapsulation efficiency of 41.09% for paclitaxel drugs significantly outperforming the nanoparticles (19.4%).  J. Mater. Chem. B, 2025

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