聚有机硅烷:生产、性能、应用

Andrey M. Kontorov, Rus Injection, A. Glushchenko
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引用次数: 0

摘要

综述了有机硅类化合物聚硅烷的研究进展。综述了硅氮烷的发现历史、硅氮烷的主要化学合成方法、硅氮烷参与的主要反应以及硅氮烷的应用范围。综述了硅氮烷的组成。本综述包括40个文献来源。1964年Kruger和Rohov首次描述了多有机硅烷的合成。在氨与氯硅烷的相互作用(氨解)中,首先形成三聚体或四聚体环硅烷,随后在催化剂的高温下反应得到更高分子量的聚合物。氯硅烷氨解仍是合成聚硅烷最重要的途径。使用Muller-Roch工艺生产氯硅烷的工业生产于1940年首次报道,是硅烷化学发展的基石。在20世纪60年代,人们首次尝试将有机硅聚合物转化为准陶瓷材料。此时,合适的(“预陶瓷”)聚合物被加热到1000°C。或更高版本。结果表明,有机基团和氢的消除导致分子网络重新排列,形成非晶无机材料,具有独特的化学和物理性质。使用聚合物衍生陶瓷,可以发现新的应用,特别是在高强度材料领域。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Polyorganosilazanes: production, properties, application
A review is given on the class of organosilicon compounds – polysilazanes. The review includes the history of the discovery of silazanes, the main chemical methods for producing silazanes, the main reactions taking place with the participation of silazanes, and the scope of application of silazanes. The review shows the composition of silazanes. The review consists of 40 literature sources. The synthesis of polyorganosilazanes was first described in 1964 by Kruger and Rohov. In the interaction of ammonia with chlorosilanes (ammonolysis), trimeric or tetrameric cyclosilazanes were formed at the beginning and in the subsequent reaction at high temperatures with a catalyst to obtain polymers with a higher molecular weight. Ammonolysis of chlorosilanes is still the most important synthetic route to polysilazanes. The industrial production of chlorosilanes using the Muller-Roch process, first reported in 1940, served as the cornerstone for the development of silazane chemistry. In the 1960s, the first attempts to turn organosilicon polymers into quasi-ceramic materials were described. At this time, suitable (“pre-ceramic”) polymers are heated to 1000 °C. or higher. It was shown that the elimination of organic groups and hydrogen leads to a rearrangement of the molecular network with the formation of amorphous inorganic materials, which show unique chemical and physical properties. Using polymer-derived ceramics, new applications can be discovered, especially in the field of high-strength materials.
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