Research
METAL OXIDE CRYSTAL GROWTH
The process of crystal nucleation and growth is fundamental, extending its relevance across a spectrum of scientific and technological domains such as materials science, chemical engineering, chemistry, metallurgy, nanoscience, and mineralogy. The preparation of crystalline materials through crystal growth is integral to a multitude of applications. While recent studies predominantly emphasize the applications of crystalline materials, our research group uniquely delves into in-depth studies of CRYSTAL GROWTH, extending beyond applications, to spearhead advancements in the corresponding research fields.
Our specific focus lies in the realm of METAL OXIDE CRYSTALS. Metal oxides, abundant in nature, possess notable chemical and thermal stabilities, owing to the omnipresence of oxygen in Earth's atmosphere. The attribute of HIGH STABILITY stands as a crucial prerequisite across various technological domains. Moreover, the versatility of metal elements allows for the formation of a LARGE DIVERSITY of oxides, capable of adopting a myriad of structural geometries. The associated electronic structures can manifest metallic, semiconducting, or insulating characteristics, rendering metal oxides immensely valuable in numerous commercial applications.
CRYSTAL GROWTH MECHANISMS
The properties of crystal structures are intricately linked to their sizes, morphologies, and facets. Consequently, the precise control of crystal growth assumes paramount importance in various application areas. To achieve this precision, it is imperative to comprehend the mechanisms governing crystal growth. In our research, we conduct in-depth investigations into both classical and non-classical crystal growth mechanisms. This comprehensive understanding enables us to exert precise control over crystal growth, laying the foundation for advancements in diverse applications.
COMPOSITIONALLY COMPLEX METAL OXIDE STRUCTURES (SOLID SOLUTION or COMPOSITE)
Furthermore, our research is driven by a keen interest in exploring COMPOSITIONALLY COMPLEX metal oxides. These materials offer GREATER FLEXIBILITY in TAILORING PROPERTIES and achieving MULTI-FUNCTIONALITY. In essence, they provide more freedom to fine-tune or enhance functionalities beyond what can be achieved with individual constituents alone.
METAL (HYDR)OXIDE PROPERTIES & APPLICATIONS
Our endeavors involve the development of crystal growth and modification methods aimed at creating unprecedented structures in metal oxides and hydroxides. These novel structures hold immense potential for applications in energy harvesting, energy storage, data storage, water and air purification, and various other fields. Furthermore, they serve as valuable tools for the study of catalysis, ferroelectricity, magnetism, magnetoelectric coupling effects, ionic conduction, and a myriad of other phenomena.
