Published Paper Details:

Coordination chemistry has emerged as a central pillar in modern chemical science, providing versatile platforms for designing functional metal-ligand architectures with highly tunable structural and electronic properties. Over the decades, advancements in synthetic methodologies have revolutionized the field, enabling chemists to engineer coordination compounds with increasing precision, complexity, and sustainability. Classical solution-phase routes continue to serve as fundamental approaches; however, growing environmental concerns and demands for efficiency have accelerated the development of innovative techniques such as hydrothermal and solvothermal synthesis, microwave-assisted reactions, mechanochemical procedures, and electrochemical pathways. These methodologies not only enhance reaction control and product purity but also support the creation of unprecedented coordination motifs, supramolecular assemblies, and high-performance materials.This review provides an in-depth examination of major synthetic methodologies in coordination chemistry, critically evaluating their principles, advantages, limitations, and sustainability aspects. Furthermore, it highlights the transformative impact of coordination compounds across multiple scientific and technological fields, emphasizing the role of rational design, green chemistry, and computational modeling in shaping next-generation coordination systems. The continued integration of innovative synthetic strategies with application-driven design is expected to propel coordination chemistry toward even greater relevance in future technological advancements.