Cooks R Graham, Ifa Demian R, Sharma Gautam, Tadjimukhamedov Fatkhulla Kh, Ouyang Zheng
Department of Chemistry, Purdue University, West Lafayette, Indiana 47906, USA.
Eur J Mass Spectrom (Chichester). 2010;16(3):283-300. doi: 10.1255/ejms.1073.
Mass spectrometry benefits from a flexible definition which equates it with many aspects of the science of matter in the ionized state. The field continues to expand rapidly, not only to encompass larger and more complex molecules through more powerful instruments, but simultaneously towards in-situ measurements made using smaller, more flexible and just-sufficiently-powerful instruments. The senior author has been fortunate to work in mass spectrometry from 1967 to the present and has been involved in a wide range of efforts which have covered analytical, biological, organic, instrumental and physical aspects of the subject. This effort has been made in the company of a remarkable set of colleagues. From this vantage, it is possible to look both backwards and forwards in this prospective and retrospective piece. This presentation involves a personal look at places, people, instruments, and concepts engaged in along a path through Mass Spectrometry. The journey goes from Natal, South Africa, via Cambridge, UK, through Kansas and on to Purdue University, in the great state of Indiana. It starts with natural products chemistry and moves to the physical chemistry of fragmentation and energy partitioning on to complex mixture analysis by tandem mass spectrometry and hence to the concepts of thermochemical determination by the kinetic method, preparation of materials by ion soft landing, the possible role of amino acid clusters in the origin of homochiral life, and the elaboration of a set of ambient ionization methods for chemical analysis performed using samples in their native state. Special attention is given to novel concepts and instrumentation and to the emerging areas of ambient ionization, molecular imaging and miniature mass spectrometers. Personal mass spectrometers appear to be just over the horizon as is the large-scale use of mass spectrometry in field-based analysis, including point-of-care medical diagnostics.
质谱得益于其灵活的定义,该定义将其与电离态物质科学的诸多方面等同起来。该领域持续迅速扩展,不仅通过功能更强大的仪器涵盖更大、更复杂的分子,同时也朝着使用更小、更灵活且功率刚好足够的仪器进行原位测量发展。资深作者有幸自1967年至今从事质谱工作,参与了涵盖该学科分析、生物、有机、仪器和物理等方面的广泛工作。这些工作是在一群杰出同事的陪伴下完成的。从这个有利视角出发,在这篇兼具前瞻性和回顾性的文章中既可以回顾过去,也能够展望未来。本报告涉及个人对质谱历程中所涉及的地点、人物、仪器和概念的审视。旅程从南非的纳塔尔出发,途经英国剑桥,再到堪萨斯州,最后抵达印第安纳州的普渡大学。它始于天然产物化学,接着转向碎片化和能量分配的物理化学,再到串联质谱用于复杂混合物分析,进而发展到动力学方法进行热化学测定的概念、离子软着陆制备材料、氨基酸簇在同手性生命起源中可能扮演的角色,以及开发一套用于对天然状态样品进行化学分析的常压电离方法。特别关注新颖的概念和仪器,以及常压电离、分子成像和微型质谱仪等新兴领域。个人质谱仪似乎即将出现,质谱在现场分析(包括即时医疗诊断)中的大规模应用也是如此。