Magnetic nanocomposites are among the most significant categories of
materials because they have excellent magnetic, thermal, and mechanical
characteristics for use in various professions. The progress made in the last half decade
has stemmed from the preparation of new nanocomposites that display enhanced
performance in healthcare, environmental treatment, the energy industry, and
electronics. Various synthesis methods for producing M-TiO2
have been enhanced
effectively, including co-precipitation, sol-gel processes, and hydrothermal synthesis to
possess the required structural and functional characteristics. Magnetic nanoparticles,
which have been approved for targeted drug delivery combined with polymers,
ceramics, and metal matrices, offer expanded functionality in applications such as MRI
and catalytic systems. Nevertheless, some problems of the approach include the
problems of scalability, stability, and environmental impact that may require further
inquiries. In this chapter, we focus on the recent progress, including computational
modeling, artificial intelligence, and green chemistry. The last one is devoted to present
trends, where the roles of bioinspired and hybrid magnetic nanocomposites in shaping
future technologies are described.
Keywords: Advanced materials, Biomedical applications, Energy storage, Environmental remediation, Green chemistry, Hybrid composites, Magnetic nanocomposites.
