Steps towards a nature inspired inorganic crystal engineering.

Area of Science:

• Materials Science
• Green Chemistry
• Bioinorganic Chemistry

Background:

• Crystal engineering offers a pathway to design novel organic-inorganic materials.
• Nature-inspired materials can address pressing global challenges in health and environment.
• Co-crystallization is a versatile method for creating functional materials.

Purpose of the Study:

• To explore the application of crystal engineering in developing nature-inspired organic-inorganic materials.
• To demonstrate the utility of these materials in chiral resolution, pollution control, and antimicrobial applications.
• To highlight the importance of intermolecular interactions in achieving superior material properties.

Main Methods:

• Co-crystallization of inorganic salts (alkali and transition metal halides) with organic compounds (amino acids, urea, thiourea, quaternary ammonium salts).
• Mechanochemical solvent-free or slurry methods for material synthesis.
• Solid-state characterization techniques.

Main Results:

• Successful chiral resolution and conglomerate formation from racemic compounds.
• Inhibition of soil enzyme activity to reduce urea decomposition and environmental pollution.
• Preparation of novel agents effective against antimicrobial resistance.

Conclusions:

• Crystal engineering of organic-inorganic materials provides a powerful strategy for developing functional materials with enhanced properties.
• The designed materials show significant potential in addressing environmental pollution and antimicrobial resistance.
• Cross-disciplinary collaboration is crucial for the successful application-oriented development of these novel materials.