H. M. McNair, G. L. Reed
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引用次数: 27
Abstract
Fast gas chromatography (GC) has been around ever since the introduction of capillary GC columns. M. Golay's patent application for capillary GC (Patent 2,920,478, January 12, 1960) showed five peaks in 15 s in 1957. Desty et al. (Desty, D. H.; Goldup, A.; Swanton, W. T. In Gas Chromatography; Brenner, N.; Caller, J. E.; Weiss, M. D., Eds.; Academic: New York, 1962; p. 105), LeClercq et al. (LeClercq, P. A.; Scherpenzeel, G. J.; Vermeer, E. A. A.; Cramers, C. A. J Chromatogr 1982, 241, 61–71), and Cramers et al. (Schutjes, C.; Vermeer, E.; Rijks, J.; Cramers, C. J Chromatogr 1982, 253, 1–16), among others, followed up this early work on fast GC. The work in this paper is a continuation of fast GC, primarily using fast oven temperature programming. This work is restricted to normal pressures, routinely used on Hewlett Packard 5890 and 6890 model gas chromatographs. The first step in doing fast GC is to reduce the column length, since the retention time is directly proportional to the length, only true for isothermal runs. Columns of 1 to 6 m are used and since this step sometimes sacrifices resolution, 100 μm inner diameter columns with thin films, 0.1 to 0.2 μm, are used with small sample sizes (split ratios of 500:1 to 2000:1). © 2000 John Wiley & Sons, Inc. J Micro Sep 12: 351–355, 2000
快速气相色谱法:快速温度编程的影响
自毛细管气相色谱柱问世以来,快速气相色谱(GC)就一直存在。M. Golay的毛细管气相色谱专利申请(专利号2920478,1960年1月12日)显示了1957年15秒内的5个峰。德斯蒂等人(德斯蒂博士;Goldup, a;气相色谱法;布伦纳:;来电者,j.e.;Weiss, m.d,编辑;学术:纽约,1962年;第105页),LeClercq等人(LeClercq, p.a.;Scherpenzeel, g.j.;维米尔,e.a.;Cramers, c.a. J chrochroogr 1982, 241, 61-71),和Cramers等(Schutjes, C.;维米尔,大肠;艾尔,j .;Cramers, C. J . chrochroogr, 1982, 253, 1-16)等人对快速气相色谱进行了后续研究。本文的工作是快速GC的延续,主要使用快速烤箱温度编程。这项工作仅限于常压,通常用于惠普5890和6890型气相色谱仪。快速GC的第一步是减少列长度,因为保留时间与长度成正比,只有在等温运行时才正确。使用1至6米的色谱柱,由于这一步有时会牺牲分辨率,因此在小样本量(分裂比为500:1至2000:1)的情况下,使用100 μm内径的薄膜柱,0.1至0.2 μm。©2000 John Wiley &[J] .中国科技大学学报(自然科学版),2000
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