首页> 外文期刊>Ukrainian Biochemical Journal >The Nobel laureates’ contributions to the study of carbohydrate metabolism and its regulation. A. Harden, H. Euler-Chelpin, C. F. Cori, G. T. Cori, E. Sutherland, L. F. Leloir, H. Krebs, F. Lipmann, P. Mitchell
【24h】

The Nobel laureates’ contributions to the study of carbohydrate metabolism and its regulation. A. Harden, H. Euler-Chelpin, C. F. Cori, G. T. Cori, E. Sutherland, L. F. Leloir, H. Krebs, F. Lipmann, P. Mitchell

机译:诺贝尔劳保人对碳水化合物新陈代谢研究及其监管的贡献。 A. Harden,H.Euler-Chelpin,C.F.Ceri,G.Cte Cori,E. Sutherland,L.F.Leloir,H.Krebs,F. Lipmann,P. Mitchell

获取原文
       

摘要

Carbohydrate metabolism is a complex and multi-stage process. Many scientists (biochemists, physiologists, chemists) worked on deciphering this process, but only some of them were awarded the Nobel Prize. Thus, in the early XXsupth/sup century, the work of A. Garden and H. Euler-Chelpin with yeast cells revealed that the conversion of carbohydrates (sugars) into end products occurs in living cells in several steps with the involvement of enzymes and that this conversion requires the presence of phosphoric acid residue. These studies were the beginning of exploring the chemical reactions (the reactions of intermediate metabolism) that are fundamentals for the vital functions of cells. In 1932, Hans Krebs discovered the ornithine cycle, a sequence of chemical reactions, in which the end product of nitrogen metabolism, urea, is formed in the liver of animals. The apogee of his research was the discovery of tri- and dicarboxylic acid cycle, which combines the oxidation of almost all organic compounds in living organisms. Fritz Lipmann, who in 1945 discovered coenzyme A and identified its role in the activation of organic compounds, furthered the works of H. Krebs. At the time, it became clear how inactive acetic acid and other organic acids are activated in living organisms to be oxidized in the tricarboxylic acid cycle. The great work was done by the spouses Gerty and Carl Cori, and Bernardo Houssay, as well as their students and followers, in particular, Luis Leloir to clarify the mechanism of conversion (synthesis and breakdown) of glycogen in the liver and muscles. The peak of studying the carbohydrate metabolism was the research of Earl Sutherland who in 1958 revealed the regulation of the activity of enzymes involved in the conversion of chemical compounds (the example – phosphorylase), with the participation of the adenylate cyclase enzyme and c-AMP. The discovery of c-AMR established one of the fundamental principles of almost all vital processes. And the culmination of research on carbohydrate metabolism was the unrivaled works of Peter Mitchell, who studied the course of biochemical reactions in cells relative to certain intracellular “landmarks” and who formulated the chemiosmotic theory of oxidative phosphorylation that underlies bioenergetics.
机译:碳水化合物代谢是一种复杂和多阶段的过程。许多科学家(生物化学家,生理学家,化学家)在破译这个过程中致力于解读,但只有其中一些人被授予诺贝尔奖。因此,在早期的XX th 世纪中,A.花园和H. euler-chelpin与酵母细胞的工作表明,碳水化合物(糖)将碳水化合物(糖)转化为终端产物的几个步骤随着酶的参与,并且该转化需要存在磷酸残余物。这些研究是探索化学反应的开始(中间代谢的反应),这是细胞重要函数的基本原理。 1932年,Hans Krebs发现了鸟苷循环,一系列化学反应,其中氮代谢的最终产物尿素在动物的肝脏中形成。他的研究的曝光是发现三醇和二羧酸循环,其结合了几乎所有有机化合物在生物体中的氧化。 Fritz Lipmann于1945年发现辅酶A并鉴定了其在有机化合物的激活中的作用,进一步了H. krebs的作品。当时,清楚地明确了在生物体中如何激活无活性乙酸和其他有机酸在三羧酸循环中被氧化。伟大的作品是由配偶吉埃蒂和卡尔科里,而Bernardo Houssay以及他们的学生和追随者,特别是Luis Leloir,以澄清肝脏和肌肉中的糖原转化(合成和分解)的机制。研究碳水化合物新陈代谢的高峰是1958年的伯爵·萨瑟兰的研究揭示了参与化学化合物转化(实施例 - 磷酸化酶)的酶活性的调节,并参与腺苷酸环酶和C-AMP 。 C-AMR的发现建立了几乎所有重要过程的基本原则之一。并且碳水化合物新陈代谢研究的高潮是Peter Mitchell的无与伦比的作品,他研究了细胞中的生化反应的过程,相对于某些细胞内的“地标”,以及制定了生物终端的氧化磷酸化的化学理论。

著录项

相似文献

  • 外文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号