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Description
This work investigates the structural and spectroscopic characteristics of water molecules in aquachloro complexes in the solid state and analyzes the dynamics of hydrogen bonding in crystalline environments. Structural and spectroscopic data from selected aquachloro complexes were systematically extracted from crystallographic publications and comparatively analyzed. Methodologically, the study combines a review of the fundamental principles of solid-state chemistry, with particular emphasis on hydrogen bonding in confined systems, and statistical processing of structural parameters (bond lengths and coordination geometry) together with spectroscopic data in order to establish spectrum–structure correlations. The analysis highlights how confined environments in solid-state systems influence the structural flexibility of water molecules and their bonding interactions. The conclusions emphasize the role of lattice geometry in determining the efficiency of hydrogen bonding, thereby providing insights into the design of crystalline materials with controlled hydration properties.