Trimpin Sarah, Yenchick Frank S, Lee Chuping, Hoang Khoa, Pophristic Milan, Karki Santosh, Marshall Darrell D, Lu I-Chung, Lutomski Corinne A, El-Baba Tarick J, Wang Beixi, Pagnotti Vincent S, Meher Anil K, Chakrabarty Shubhashis, Imperial Lorelei F, Madarshahian Sara, Richards Alicia L, Lietz Christopher B, Moreno-Pedraza Abigail, Leach Samantha M, Gibson Stephen C, Elia Efstathios A, Thawoos Shameemah M, Woodall Daniel W, Jarois Dean R, Davis Eric T J, Liao Guochao, Muthunayake Nisansala S, Redding McKenna J, Reynolds Christian A, Anthony Thilani M, Vithanarachchi Sashiprabha M, DeMent Paul, Adewale Adeleye O, Yan Lu, Wager-Miller James, Ahn Young-Hoon, Sanderson Thomas H, Przyklenk Karin, Greenberg Miriam L, Suits Arthur G, Allen Matthew J, Narayan Srinivas B, Caruso Joseph A, Stemmer Paul M, Nguyen Hien M, Weidner Steffen M, Rackers Kevin J, Djuric Ana, Shulaev Vladimir, Hendrickson Tamara L, Chow Christine S, Pflum Mary Kay H, Grayson Scott M, Lobodin Vladislav V, Guo Zhongwu, Ni Chi-Kung, Walker J Michael, Mackie Ken, Inutan Ellen D, McEwen Charles N
Department of Chemistry, Wayne State University, Detroit, Michigan 48202, United States.
MSTM, LLC, Newark, Delaware 19711, United States.
J Am Soc Mass Spectrom. 2024 Dec 4;35(12):2753-2784. doi: 10.1021/jasms.3c00122. Epub 2024 Oct 7.
This covers discovery and mechanistic aspects as well as initial applications of novel ionization processes for use in mass spectrometry that guided us in a series of subsequent discoveries, instrument developments, and commercialization. matrix-assisted ionization on an intermediate pressure matrix-assisted laser desorption/ionization source the use of a laser, high voltages, or any other added energy was simply unbelievable, at first. Individually and as a whole, the various discoveries and inventions started to paint, , an exciting new picture and outlook in mass spectrometry from which key developments grew that were at the time unimaginable, and continue to surprise us in its simplistic preeminence. We, and others, have demonstrated exceptional analytical utility. Our current research is focused on how best to understand, improve, and use these novel ionization processes through dedicated platforms and source developments. These ionization processes convert volatile and nonvolatile compounds from solid or liquid matrixes into gas-phase ions for analysis by mass spectrometry using, , mass-selected fragmentation and ion mobility spectrometry to provide accurate, and sometimes improved, mass and drift time resolution. The combination of research and discoveries demonstrated multiple advantages of the new ionization processes and established the basis of the successes that lead to the Biemann Medal and this Perspective. How the new ionization processes relate to traditional ionization is also presented, as well as how these technologies can be utilized in tandem through instrument modification and implementation to increase coverage of complex materials through complementary strengths.
这涵盖了发现和机理方面,以及用于质谱分析的新型电离过程的初步应用,这些应用指导我们进行了一系列后续的发现、仪器开发和商业化。最初,在中压基质辅助激光解吸/电离源上进行基质辅助电离,使用激光、高电压或任何其他附加能量简直令人难以置信。各个发现和发明单独来看以及总体来看,开始描绘出质谱分析中一幅令人兴奋的新图景和前景,从中产生了当时难以想象的关键发展,并且其简单的卓越性至今仍让我们感到惊讶。我们以及其他人已经证明了其卓越的分析效用。我们目前的研究重点是如何通过专门的平台和源开发来最好地理解、改进和使用这些新型电离过程。这些电离过程将来自固体或液体基质的挥发性和非挥发性化合物转化为气相离子,以便通过质谱分析,使用质量选择碎裂和离子淌度光谱法来提供准确的,有时是改进的质量和漂移时间分辨率。研究和发现的结合展示了新电离过程的多种优势,并奠定了获得比曼奖章和撰写本综述文章所取得成功的基础。还介绍了新电离过程与传统电离的关系,以及如何通过仪器改装和实施将这些技术串联使用,以通过互补优势扩大对复杂材料的覆盖范围。