The Coordination Behavior of Two New Complexes, [(C 7 H 10 NO 2 )CdCl 3 ] n (I) and [(C 7 H 9 NO 2 )CuCl 2 ] (II), Based on 2,6-Dimethanolpyridine; Elaboration of the Structure and Hirshfeld Surface, Optical, Spectroscopic and Thermal Analysis.
Sabrine HermiAbdullah A AlotaibiAbdullah M AlswielehKhalid M AlotaibiM G AlthobaitiChristian JelschEmmanuel WengerCherif Ben NasrMohamed Habib MradPublished in: Materials (Basel, Switzerland) (2022)
Two novel complexes, [(C 7 H 10 NO 2 )CdCl 3 ] n (I) and [(C 7 H 9 NO 2 )CuCl 2 ],havebeen synthesized and characterized. Single crystal X-ray diffraction revealed that in compound (I), 2,6-dimethanol pyridinium acts as a monodentate ligand through the O atom of the hydroxyl group. Contrarily, the 2,6-dimethanol pyridine ligand interacts tridentately with the Cu(II) ion via the nitrogen atoms and the two oxygen (O, O') atoms of the two hydroxyl groups. The structure's intermolecular interactions were studied using contact enrichment ratios and Hirshfeld surfaces. Following metal coordination, numerous hydrogen connections between entities and parallel displacement stacking interactions between pyridine rings dictate the crystal packing of both compounds. The aromatic cycles generate layers in the crystal for both substances. Powder XRD measurements confirmed the crystalline sample phase purity. SEM confirmed the surface homogeneity, whereas EDX semi-quantitative analysis corroborated the composition. IR spectroscopy identified vibrational absorption bands, while optical UV-visible absorption spectroscopy investigated optical properties. The thermal stability of the two materials was tested using TG-DTA.
Keyphrases
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- energy transfer
- resting state
- escherichia coli
- electron microscopy
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- computed tomography
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- dual energy
- contrast enhanced