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The Origins of Gaslight Technology in Eighteenth-Century Pneumatic Chemistry

机译:Gaslight技术在18世纪气动化学中的起源

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The interaction between science and technology in the Industrial Revolution has been debated by various authors over the years. Most recently, Ursula Klein has described eighteenth-century chemistry as an interconnected system of science and technology because of the inherently productive nature of chemical experimentation. The technology used in the nineteenth gaslight industry follows the pattern that Klein describes: gaslight technology was derived from the academic studies of eighteenth-century pneumatic chemists. The foundation of the technology in science included first, a knowledge about inflammable gases and their properties, and second, various instruments and processes developed for the study of gases. Although inflammable exhalations had been known long before the eighteenth-century, it was only with the work of Priestley, Volta, Berthollet, and other chemists that their properties and characteristics, including the multiplicity of species of inflammable gases, became known. The instruments and processes of pneumatic chemistry that were incorporated into gaslight apparatus were the retort, the pneumatic trough, lime purification of carbon dioxide and hydrogen sulphide, and finally the gasometer. The first important instance of lighting with inflammable gases, that of J. P. Minckelers in 1785, demonstrates that pneumatic chemistry formed part of an interconnected network of science and technology, as does the work of other early gaslight pioneers such as Philippe Lebon, Zachaus Winzler, and William Murdoch. Lebon came to gaslight through the investigation of distillation processes, and later thought of using the inflammable gas produced in this way. Zachaus Winzler, an Austrian chemist, recreated Lebon's thermolamp from the instruments in his laboratory after hearing descriptions of it. In the case of William Murdoch, he incorporated the pneumatic apparatus that James Watt had built for Thomas Beddoes.
机译:多年来,许多作者一直在争论工业革命中科学技术之间的相互作用。最近,厄休拉·克莱因(Ursula Klein)将18世纪的化学描述为科学和技术的相互联系的系统,因为化学实验具有内在的生产性。十九世纪燃气灯行业使用的技术遵循克莱因(Klein)描述的模式:燃气灯技术源自18世纪气动化学家的学术研究。科学技术的基础包括:首先,关于易燃气体及其特性的知识;其次,为研究气体而开发的各种仪器和过程。尽管可燃呼气早在18世纪就已为人所知,但只有在Priestley,Volta,Berthollet和其他化学家的工作下,才知道它们的特性和特征,包括多种易燃气体。集成到煤气灯设备中的气动化学仪器和工艺包括干馏罐,气动槽,二氧化碳和硫化氢的石灰提纯,最后是煤气表。 1785年的JP Minckelers照明是可燃气体照明的第一个重要实例,表明气动化学已成为相互联系的科学技术网络的一部分,其他早期的lightlight先锋如Philippe Lebon,Zachaus Winzler和威廉默多克。勒邦通过研究蒸馏过程而大放异彩,后来想到使用这种方式产生的可燃气体。奥地利化学家Zachaus Winzler在听完Lebon的热灯后,从实验室的仪器中重新制作了热灯。在威廉默多克(William Murdoch)的情况下,他结合了詹姆斯·瓦特(James Watt)为托马斯·贝多斯(Thomas Beddoes)制造的气动设备。

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