2014
DOI: 10.1016/j.ica.2013.09.035
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The piroxicam complex of cobalt(II): Synthesis in two different ionic liquids, structure, DNA- and BSA interaction and molecular modeling

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Cited by 69 publications
(32 citation statements)
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“…For example meloxicam acted as monodentate nitrogen donor ligand to Pt II , and coordinated in a bidentate fashion to Ni II through the thiazole nitrogen and amidate oxygen atoms . Similarly, piroxicam coordinated monodentately to Ru II (arene), by its pyridyl nitrogen, and it can act also as an N,O ‐chelator through its amidate oxygen and pyridyl nitrogen to metal ions such as Co II , Ru II , Cu II , and Zn II . In case of hard Sn IV , piroxicam coordinated as an O,O ‐chelator via its enolate and amidate oxygen atoms, whereas the analogous benzothiazine lornoxicam coordinated as a tridentate N , N,O ‐chelator by employing an enolate oxygen and pyridyl and amide nitrogen donors.…”
Section: Introductionmentioning
confidence: 99%
“…For example meloxicam acted as monodentate nitrogen donor ligand to Pt II , and coordinated in a bidentate fashion to Ni II through the thiazole nitrogen and amidate oxygen atoms . Similarly, piroxicam coordinated monodentately to Ru II (arene), by its pyridyl nitrogen, and it can act also as an N,O ‐chelator through its amidate oxygen and pyridyl nitrogen to metal ions such as Co II , Ru II , Cu II , and Zn II . In case of hard Sn IV , piroxicam coordinated as an O,O ‐chelator via its enolate and amidate oxygen atoms, whereas the analogous benzothiazine lornoxicam coordinated as a tridentate N , N,O ‐chelator by employing an enolate oxygen and pyridyl and amide nitrogen donors.…”
Section: Introductionmentioning
confidence: 99%
“…The emission intensity of EB bound DNA was measured, which is used to find out the binding ability of metal complexes. Using classical Stern‐Volmer equation, F0/F=1+Ksv[]Q=1+Kqnormalτ[]Q where F 0 and F is the emission intensity in the absence presence of quencher, K sv is the Stern‐Volmer quenching constant, K q is DNA quenching rate constant and τ is DNA average lifetime without quencher, which is equal to 10 −8 s for bio‐macromolecules, the quenching constant ( K sv ) value is obtained as a slope from the plot of F 0 / F vs. [Q]. The K b and n can be calculated from the equation, log()F0F/F=logKb+nlog[]Q where K b is the binding constant and n is the number of binding sites in DNA base pairs.…”
Section: Methodsmentioning
confidence: 99%
“…Coupling of the π orbitals which are also partially filled by electrons, reduces the transition probability and thus results in a hypochromism [23,24]. In the case of groove binding, sometimes a hypochromism that is manifested in terms of a small decline in absorbance and either no or only minor changes in λ max are observed [25,26].…”
Section: Titration Of Ole With the Dnamentioning
confidence: 99%
“…From the shifts observed in peak potential separation (∆E p ) and formal potential (E˚f) of the electroactive species after interacting with DNA, one can explain the binding mechanism [25]. Typical cyclic voltammetric behavior of Ole in the absence and presence of the DNA was studied.…”
Section: Electrochemical Studiesmentioning
confidence: 99%