bioRxivBioinformaticsPreprint
JUMPlion improves quantitative DIA proteomics through ion-level recovery of missing values
Yingxue FuiD, Zuo-Fei YuaniD, Stephanie D. ByrumiD, Long WuiD, Junmin PengiD, Xusheng Wang, Anthony A. HighiD
Abstract
Incomplete quantification remains a persistent challenge in data-independent acquisition (DIA) mass spectrometry (MS), particularly in low-input and single-cell analyses. In identification-driven workflows, missing protein quantities often arise not from true absence of the corresponding peptides, but from failure to retain low-abundance signals from precursor or product ions for quantification. Here we present JUMPlion (local inference of ion-level missingness), a DIA quantification framework that re-examines MS raw files to recover missing values at the ion level before protein quantification. JUMPlion re-extracts precursor- and production signals directly from raw data, infers ion-level measurements within precursor-specific local quantitative neighborhoods, and combines complementary precursor- and production signals into downstream quantification. Using benchmark datasets acquired on multiple DIA platforms, JUMPlion increased protein-level completeness, improved fold-change accuracy, and enhanced detection of differentially abundant proteins while maintaining low differential-abundance false discovery rates. These gains were most evident in low-input and single-cell DIA datasets. Together, these results show that addressing missingness at the ion level before protein-level summarization can improve DIA quantification in diverse acquisition settings.
- assay: proteomics
- research focus: variant calling
- research focus: imputation
- approach: statistical model
- Citations
- 0
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