高杀菌银()对细菌和Ag+离子的抗癌活性调控癌症/肿瘤细胞生长

Ishida Tsuneo
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引用次数: 0

摘要

由于已经获得了对细菌具有高度杀菌作用的银(I)离子,作为高度精确的结果,银(I)离子在调节癌症和肿瘤细胞生长方面的前景效应甚至可以在凋亡条件下发生。本文报道了银离子作为一种具有高度杀菌作用的离子,可能通过银离子介导的水解和降解功能来调节癌细胞的生长。分析了银离子通过激活肽聚糖(PGN)自溶酶对细菌细胞壁的菌解作用以及银离子介导的内溶酶对癌细胞的水解和降解活性。Ag+离子对金黄色葡萄球菌(S. aureus) PGN细胞壁的细菌溶解作用是通过调节PGN合成转糖基化酶(TG)和转肽酶(TP)抑制PGN的延伸,增强PGN自溶酶的活化而引起的。另一方面,Ag+离子对大肠杆菌(e.c oli)细胞壁的细菌溶解和破坏是由于脂蛋白的N端和c端降解酶破坏了外膜结构,并使PGN TP合成酶内肽酶失活,增强了PGN水解酶和氨基酶、肽酶和羧肽酶的自溶酶的活性,从而抑制了PGN的延伸。Ag+离子介导的癌细胞水解酶结合并降解产生生物的完整癌细胞,被归类为自溶酶或内溶酶(噬菌体溶酶),因此水解酶的活性是癌症和肿瘤细胞生长的必不可少的调节剂,水解酶的激活可能促进癌细胞的凋亡和坏死,从而导致癌细胞死亡。因此,Ag+离子对细菌的高杀菌作用和Ag+离子对癌细胞生长调节或细胞死亡的作用可以同时实现。银离子诱导的ROS世代如O2 -, H2O2, OH, OH-在细菌和肿瘤细胞中产生并导致氧化应激。DNA损伤可能是由于在DNA碱基对的双氢键和三氢键内Ag+取代而形成线性配位的Ag+络合物。
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Highly Bactericidal Silver () against Bacteria and Anti-Cancer Activity of Ag+ ions for Regulation of Cancer/Tumor Cell Growth
Since highly bactericidal silver (I) ions against bacteria have been obtained, as highly accurate results, prospect effects of silver (I) ions for regulation of cancer and tumor cell growth can be expected to occur even at apoptotic conditions. This mini-review article is reported that as an availability for most highly bactericidal effect of Ag+ ions, the regulation of cancer cell growth may be able to be achieved by Ag+ ions-mediated hydrolyzing and degrading functions. Bactericidal effects of silver (I) ions on bacteriolyses of bacterial cell walls by activation of peptidoglycan (PGN) autolysins and silver ion-mediated cancer cell hydrolyzing and degrading activity by endolysins have been analyzed. Bacteriolysis against Staphylococcus aureus (S. aureus) PGN cell wall by Ag+ ions is caused by the inhibition of PGN elongation due to regulation of PGN synthetic transglycosylase (TG) and transpeptidase (TP), and the enhancement of activation of PGN autolysins of amidases. On the other hand, bacteriolysis and destruction against Escherichia coli (E. coli) cell wall by Ag+ ions are caused by the destruction of outer membrane structure due to degradative enzymes of lipoproteins at N- and Cterminals, and by the inhibition of PGN elongation owing to inactivation of PGN TP synthetic enzyme endopeptidase and enhancement of the activations of PGN hydrolases and autolysins of amidase, peptidase, and carboxypeptidase. Ag+ ions-mediated cancerous cell hydrolyzing enzyme that binds to and degrades intact cancer cells of the producing organism are classified as autolysins or endolysins (phage lysin), resulting that the hydrolase activity is an essential as regulator of cancer and tumor cell growth and hydrolase activation may be promoted the apoptosis and the necrosis of cancer cells, and subsequently lead to cancer cell death by this hydrolase. Thus, highly bactericidal Ag+ ions against bacteria and effect of Ag+ ions for cancer cell growth regulation or cell death can be able to realize at the same time. Silver ions induced ROS generations such as O2 - , H2O2,・OH, OH- producing in bacterial and tumorous cells occur and lead to oxidative stress. DNA damages may be due to linear coordinated Ag+ complex formations by Ag+ substitution within double and triple hydrogen bonds in DNA base pairs.
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