A Scanning Frequency Mode for Ion Cyclotron Mobility Spectrometry

被引:33
|
作者
Glaskin, Rebecca S. [1 ]
Valentine, Stephen J. [1 ]
Clemmer, David E. [1 ]
机构
[1] Indiana Univ, Dept Chem, Bloomington, IN 47405 USA
关键词
IONIZATION MASS-SPECTROMETRY; ELECTROSPRAY-IONIZATION; RESOLVING POWER; IMS-IMS; SEPARATIONS; PEPTIDE; CONFORMATION; FUNNEL; PERFORMANCE; MOLECULES;
D O I
10.1021/ac1017474
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
A new operational mode for an ion cyclotron mobility spectrometry instrument is explored as a possible means of performing high-resolution separations. The approach is based on oscillating fields that are applied to segmented regions of a circular drift tube. Ions with mobilities that are resonant with the frequency of field application are transmitted while nonresonant species are eliminated. An ion mobility spectrum is obtained by scanning the drift field application frequency. The approach is demonstrated by examining mixtures of ions produced by electrospraying the substance P peptide, as well as a mixture of tryptic peptides obtained by enzymatic digestion of cytochrome c. Drift field application frequency scans of substance P peptide ions show that it is possible to separate [M+2H](2+) ions, and compact and elongated forms of [M+3H](3+) ions. The resolution of different ions is related to the number of cycles for the analysis. At high cycle numbers (>50 3/4 or a drift length of 9242.03 cm) values of the resolving power can exceed 300 with a maximum resolving power of similar to 400. The ability to tune the resolving power of a mobility-based separation by varying the ion cycle number has substantial analytical utility.
引用
收藏
页码:8266 / 8271
页数:6
相关论文
共 50 条
  • [1] High-Resolution Ion Cyclotron Mobility Spectrometry
    Merenbloom, Samuel I.
    Glaskin, Rebecca S.
    Henson, Zachary B.
    Clemmer, David E.
    ANALYTICAL CHEMISTRY, 2009, 81 (04) : 1482 - 1487
  • [2] Ion Trapping for Ion Mobility Spectrometry Measurements in a Cyclical Drift Tube
    Glaskin, Rebecca S.
    Ewing, Michael A.
    Clemmer, David E.
    ANALYTICAL CHEMISTRY, 2013, 85 (15) : 7003 - 7008
  • [3] Developments in tandem ion mobility mass spectrometry
    Eldrid, Charles
    Thalassinos, Konstantinos
    BIOCHEMICAL SOCIETY TRANSACTIONS, 2020, 48 (06) : 2457 - 2466
  • [4] A substitute for ion gating in ion mobility spectrometry
    Zahar, K.
    Ben-Mrad, R.
    Sullivan, P. E.
    INTERNATIONAL JOURNAL OF MASS SPECTROMETRY, 2020, 455
  • [5] An alternative field switching ion gate for ESI-ion mobility spectrometry
    Zühlke M.
    Zenichowski K.
    Riebe D.
    Beitz T.
    Löhmannsröben H.-G.
    Zühlke, M. (mzuehlke@uni-potsdam.de), 1600, Springer Verlag (20): : 67 - 73
  • [6] Multidimensional Analysis of 16 Glucose Isomers by Ion Mobility Spectrometry
    Gaye, M. M.
    Nagy, G.
    Clemmer, D. E.
    Pohl, N. L. B.
    ANALYTICAL CHEMISTRY, 2016, 88 (04) : 2335 - 2344
  • [7] Radio-Frequency (rf) Confinement in Ion Mobility Spectrometry: Apparent Mobilities and Effective Temperatures
    Allen, Samuel J.
    Bush, Matthew F.
    JOURNAL OF THE AMERICAN SOCIETY FOR MASS SPECTROMETRY, 2016, 27 (12) : 2054 - 2063
  • [8] Trapped ion mobility spectrometry: A short reviewMark
    Ridgeway, Mark E.
    Lubeck, Markus
    Jordens, Jan
    Mann, Mattias
    Park, Melvin A.
    INTERNATIONAL JOURNAL OF MASS SPECTROMETRY, 2018, 425 : 22 - 35
  • [9] Fundamentals of Trapped Ion Mobility Spectrometry Part II: Fluid Dynamics
    Silveira, Joshua A.
    Michelmann, Karsten
    Ridgeway, Mark E.
    Park, Melvin A.
    JOURNAL OF THE AMERICAN SOCIETY FOR MASS SPECTROMETRY, 2016, 27 (04) : 585 - 595
  • [10] Spatial Ion Peak Compression and its Utility in Ion Mobility Spectrometry
    Garimella, Sandilya V. B.
    Ibrahim, Yehia M.
    Tang, Keqi
    Webb, Ian K.
    Baker, Erin S.
    Tolmachev, Aleksey V.
    Chen, Tsung-Chi
    Anderson, Gordon A.
    Smith, Richard D.
    JOURNAL OF THE AMERICAN SOCIETY FOR MASS SPECTROMETRY, 2016, 27 (06) : 1128 - 1135