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This comprehensive compendium presents an in-depth exploration of the crystal structure analysis of organic compounds, compiling over two decades of dedicated research and personal contributions to the fields of crystallography and supramolecular chemistry. The structural characterization of organic solids is paramount for understanding their intrinsic physicochemical properties, thermal stability, and overall functional behavior in various applications. Through a meticulous collection of published works, structural analyses, and detailed methodologies, this book offers a profound understanding of molecular packing, complex non-covalent interactions, and the subtle energetic balances that dictate crystal lattice formation.
A central focus of this extensive volume is the rigorous investigation of supramolecular chemistry, where intricate networks of hydrogen bonds, halogen bonds, and C–H⋯π interactions are systematically analyzed. Readers will find detailed discussions on the fascinating phenomenon of isostructurality, evaluating how minor molecular modifications influence solid-state arrangements. Furthermore, the text expertly bridges empirical crystallographic data with advanced computational chemistry. Crucially, it highlights significant personal contributions to the in-silico prediction of pharmacological activity and ADME properties, linking supramolecular architecture directly with molecular recognition and rational drug design.
Designed as an authoritative reference, this compendium serves as an invaluable resource for researchers, crystallographers, and advanced students in physical, medicinal, and organic chemistry. It highlights the remarkable evolution of analytical techniques and theoretical frameworks over the past twenty years, providing enduring insights into the design of novel crystalline materials. By consolidating these extensive studies into a cohesive single volume, the book stands as a testament to the enduring importance of rigorous structural analysis in unlocking the complex three-dimensional architecture and biomedical potential of organic compounds.