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光合作用:1900 - 1930年。

Photosynthesis: 1900-1930.

作者信息

Pennazio Sergio

出版信息

Riv Biol. 2007 Sep-Dec;100(3):439-60.

PMID:18278741
Abstract

During the second half of the 19th century Julius von Sachs established the main principles of the photosynthetic production of sugars. From then, a growing number of biochemists and physiologists attended to the process, that appeared like a "black box", in order to detect what came in and what went out of it. The English group of Frederick Blackman gave a remarkable contribution in individuating the close connection between temperature, light and CO2 concentration. Later, the great importance of light was stressed by Otto Warburg, who evaluated the radiant energy necessary to the process in terms of quantum theory. The biochemical mechanism of photosynthesis was interpreted by the main European schools on the basis of Adolf Baeyer's suggestion which posed formaldehyde as the core of the process. Formaldehyde's theory hold engaged the biochemists for about fifty years although some voices rose up against it. However, nobody could put forward more coherent theories until the 1940s, when Sam Ruben and Martin Kamen individuated the cyclic pattern of the process. Ultimately, the first thirty years of the 20th century must be seen as a preliminary stage studded with light and shade even if, in spite of controversial trends, several findings of remarkable interest became to disclose that "black box" as we know today chlorophyll photosynthesis.

摘要

19世纪下半叶,尤利乌斯·冯·萨克斯确立了糖类光合作用的主要原理。从那时起,越来越多的生物化学家和生理学家关注这个看似“黑匣子”的过程,以检测其输入和输出的物质。英国的弗雷德里克·布莱克曼团队在确定温度、光照和二氧化碳浓度之间的紧密联系方面做出了卓越贡献。后来,奥托·瓦尔堡强调了光的重要性,他根据量子理论评估了该过程所需的辐射能。欧洲主要学派在阿道夫·拜尔提出甲醛是该过程核心的建议基础上,对光合作用的生化机制进行了解释。甲醛理论使生物化学家们关注了大约五十年,尽管有人对此提出反对。然而,直到20世纪40年代,山姆·鲁本和马丁·卡门确定了该过程的循环模式,才有人能提出更连贯的理论。最终,20世纪的前三十年必须被视为一个有起有伏的初步阶段,尽管存在争议性趋势,但一些引人注目的发现开始揭示我们如今所知的叶绿素光合作用这个“黑匣子”。

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