Redox process chemical bonds, changes

During the redox process connected with the coordination process, the character of chemical bonds changes. Therefore correlations of wave numbers of the changing chemical bonds can be applied as the characteristic of the nanostructure formation process in nanoreactor. 

As mentioned before, at two-dimensional growth circles that form petals and further more complex nanostructures resembling flowers can be formed [15], When being rolled, the circles formed can produce distorted semispheres or can serve as a basis for the transformation into a beady. During the redox process connected with the coordination process, the character of chemical bonds changes. Therefore correlations of wave numbers of the changing chemical bonds can be applied as the characteristic of the nanostructure formation process in nanoreactor. 

Electrochemistry provides a powerful tool for elucidating the pH-dependent redox mechanisms of coordination complexes. In principle, any electrochemically active chemical (or biological) system may exhibit pH-dependent reduction potentials, if the concomitant pH-dependent process occurs on the same timescale as electron transfer. While the pH-dependent process is ultimately chemical in nature (i.e., involves bond breaking and/or bond making), the phenomenon that perturbs the redox center and alters the reduction potential may be electronic, structural (e.g., a conformational change), or environmental (e.g., changes in solvation), and often will be some ill-defined combination of these factors. ... 

Oxidation-reduction, also known as redox, is a chemical process in which the oxidation number of an element is changed. The process may involve the complete transfer of electrons to form ionic bonds or only a partial transfer or shift of electrons to form covalent bonds. 

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