Aly, A. A. M.; Hassan, A. M. A.; Soliman, E. M., Indian Journal of Chemistry, Section A: Inorganic, Physical, Theoretical and Analytical, 1990, vol. 29, # 8, p. 811 - 814
using Coats–Redfern and Horowitz–Metzger methods. The ligands (HLn) and Ru(III) complexes are screened for their antimicrobial activity against bacterial and fungal species. The tested complexes (1) and (2) have good antibacterialactivity against Bacillus cereus and the tested ligands (HL2, HL3 and HL5) have good antifungal activity against Aspergillus niger and also HL5 showed against Alternaria alternata
制备5-(4-衍生物苯基偶氮)-8-羟基喹啉(HL n)的Ru(III)配合物,并通过元素分析,IR,UV-可见光谱,1 H和13 C NMR光谱,质谱,X表征射线衍射分析,电导率测量和磁化率测量以及热分析。X射线衍射图谱表明配体(HL 3)具有多晶性质和络合物(2)是完全无定形的。所述配体通过取代来自CN和OH基团的质子而充当通过CN和OH基团配位的二元双齿。摩尔电导率表明Ru(III)络合物本质上是非电解质。光谱表明,所有络合物都是八面体,其中两个氯化物附着在金属离子上。研究了配位体(HL n)和Ru(III)配合物的最佳键长,键角和计算的量子化学参数。分子对接用于预测偶氮染料配体与前列腺癌突变体2q7k激素受体之间的结合。活化热力学参数,例如活化能(E a),焓(ΔH⁎),熵(ΔS⁎))和吉布斯分解的自由能变化(ΔG⁎)是使用Coats–Redfern和Horowitz–Metzger方法计算的。筛选配体(HL
Azo quinoline derivatives (AQ(x)) were synthesized by coupling of 8-hydroxyquinoline with aniline derivatives. The optimized bond lengths, bond angles and the quantum chemical parameters for the ligands (AQ(x)) were calculated. The dielectric constants (epsilon(r) and epsilon(i)) and ac conductivity (sigma(ac)) were studied as a function of both temperature and frequency in the temperature range 293-509 K and frequency range 10(2)-10(5) Hz. The thermal activation energies Delta E-1 and Delta E-2 were calculated and found to be in the range of 0.03-0.26 and 0.2-1.31 eV, respectively, depending on the substituent and frequency. The conduction mechanism was investigated for all the derivatives under investigation. The ligands (AQ(1), AQ(2) and AQ(4)) were found to be controlled by correlated barrier hopping model and the ligands (AQ(3) and AQ(5)) were controlled by small polaron tunneling mechanism. The optical absorption properties of the ligands thin films were investigated. The absorption coefficient (alpha) spectra reveals two absorption peaks which are assigned as pi-pi* and n-pi* transitions. The optical energy gap (E-g) was investigated near the absorption edge and found to be in the range of 134-226 and 1.47-1.69 eV for direct and indirect optical transitions, respectively. (C) 2015 Elsevier B.V. All rights reserved.