Limits for Resolving Isobaric Tandem Mass Tag Reporter Ions Using Phase-Constrained Spectrum Deconvolution

A popular method for peptide quantification relies on isobaric labeling such as tandem mass tags (TMT), which enables multiplexed proteome analyses. Quantification is achieved by reporter ions generated by fragmentation in a tandem mass spectrometer. However, with higher degrees of multiplexing, the...

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Veröffentlicht in:Journal of proteome research 2018-11, Vol.17 (11), p.4008-4016
Hauptverfasser: Kelstrup, Christian D, Aizikov, Konstantin, Batth, Tanveer S, Kreutzman, Arne, Grinfeld, Dmitry, Lange, Oliver, Mourad, Daniel, Makarov, Alexander A, Olsen, Jesper V
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container_end_page 4016
container_issue 11
container_start_page 4008
container_title Journal of proteome research
container_volume 17
creator Kelstrup, Christian D
Aizikov, Konstantin
Batth, Tanveer S
Kreutzman, Arne
Grinfeld, Dmitry
Lange, Oliver
Mourad, Daniel
Makarov, Alexander A
Olsen, Jesper V
description A popular method for peptide quantification relies on isobaric labeling such as tandem mass tags (TMT), which enables multiplexed proteome analyses. Quantification is achieved by reporter ions generated by fragmentation in a tandem mass spectrometer. However, with higher degrees of multiplexing, the smaller mass differences between the reporter ions increase the mass resolving power requirements. This contrasts with faster peptide sequencing capabilities enabled by lowered mass resolution on Orbitrap instruments. It is therefore important to determine the mass resolution limits for highly multiplexed quantification when maximizing proteome depth. Here, we defined the lower boundaries for resolving TMT reporter ions with 0.0063 Da mass differences using an ultra-high-field Orbitrap mass spectrometer. We found the optimal method depends on the relative ratio between closely spaced reporter ions and that 64 ms transient acquisition time provided sufficient resolving power for separating TMT reporter ions with absolute ratio changes up to 16-fold. Furthermore, a 32 ms transient processed with phase-constrained spectrum deconvolution provides >50% more identifications with >99% quantified but with a slight loss in quantification precision and accuracy. These findings should guide decisions on what Orbitrap resolution settings to use in future proteomics experiments, relying on isobaric TMT reporter ion quantification.
doi_str_mv 10.1021/acs.jproteome.8b00381
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Proteome Res</addtitle><description>A popular method for peptide quantification relies on isobaric labeling such as tandem mass tags (TMT), which enables multiplexed proteome analyses. Quantification is achieved by reporter ions generated by fragmentation in a tandem mass spectrometer. However, with higher degrees of multiplexing, the smaller mass differences between the reporter ions increase the mass resolving power requirements. This contrasts with faster peptide sequencing capabilities enabled by lowered mass resolution on Orbitrap instruments. It is therefore important to determine the mass resolution limits for highly multiplexed quantification when maximizing proteome depth. Here, we defined the lower boundaries for resolving TMT reporter ions with 0.0063 Da mass differences using an ultra-high-field Orbitrap mass spectrometer. 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Proteome Res</addtitle><date>2018-11-02</date><risdate>2018</risdate><volume>17</volume><issue>11</issue><spage>4008</spage><epage>4016</epage><pages>4008-4016</pages><issn>1535-3893</issn><eissn>1535-3907</eissn><abstract>A popular method for peptide quantification relies on isobaric labeling such as tandem mass tags (TMT), which enables multiplexed proteome analyses. Quantification is achieved by reporter ions generated by fragmentation in a tandem mass spectrometer. However, with higher degrees of multiplexing, the smaller mass differences between the reporter ions increase the mass resolving power requirements. This contrasts with faster peptide sequencing capabilities enabled by lowered mass resolution on Orbitrap instruments. It is therefore important to determine the mass resolution limits for highly multiplexed quantification when maximizing proteome depth. 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subjects Cell Line
Cell Line, Tumor
Epithelial Cells - chemistry
Epithelial Cells - cytology
HeLa Cells
Humans
Ions
Jurkat Cells
Neurons - chemistry
Neurons - pathology
Osteoblasts - chemistry
Osteoblasts - pathology
Peptides - analysis
Proteolysis
Proteome - genetics
Proteome - isolation & purification
Proteome - metabolism
Proteomics - methods
Retinal Pigment Epithelium - chemistry
Retinal Pigment Epithelium - cytology
Staining and Labeling - methods
Tandem Mass Spectrometry - methods
title Limits for Resolving Isobaric Tandem Mass Tag Reporter Ions Using Phase-Constrained Spectrum Deconvolution
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