Proteomic sensors for quantitative multiplexed and spatial monitoring of kinase signaling

Understanding kinase action requires precise quantitative measurements of their activity in vivo. In addition, the ability to capture spatial information of kinase activity is crucial to deconvolute complex signaling networks, interrogate multifaceted kinase actions, and assess drug effects or genetic perturbations. Here we develop a proteomic kinase activity sensor technique (ProKAS) for the analysis of kinase signaling using mass spectrometry. ProKAS is based on a tandem array of peptide sensors with amino acid barcodes that allow multiplexed analysis for spatial, kinetic, and screening applications. We engineered a ProKAS module to simultaneously monitor the activities of the DNA damage response kinases ATR, ATM, and CHK1 in response to genotoxic drugs, while also uncovering differences between these signaling responses in the nucleus, cytosol, and replication factories. Furthermore, we developed an in silico approach for the rational design of specific substrate peptides expandable to other kinases. Overall, ProKAS is a versatile system for systematically and spatially probing kinase action in cells.

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Publication Details

Journal
Nature Communications
Published
2025-11-13
DOI
https://doi.org/10.1038/s41467-025-65950-2
Primary Topic
Advanced Proteomics Techniques and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Proteomic sensors for quantitative multiplexed and spatial monitoring of kinase signaling

Deanna V. Maybee, Marcus B. Smolka, M.V.A.S. Navarro, William Comstock et al.
Nature Communications
Advanced Proteomics Techniques and Applications
article

Proteomic sensors for quantitative multiplexed and spatial monitoring of kinase signaling

Deanna V. Maybee, Marcus B. Smolka, M.V.A.S. Navarro, William Comstock, Mateusz Wagner, Yiseo Rho, Yingzheng Wang, Khoula Jaber
article en

Abstract

Understanding kinase action requires precise quantitative measurements of their activity in vivo. In addition, the ability to capture spatial information of kinase activity is crucial to deconvolute complex signaling networks, interrogate multifaceted kinase actions, and assess drug effects or genetic perturbations. Here we develop a proteomic kinase activity sensor technique (ProKAS) for the analysis of kinase signaling using mass spectrometry. ProKAS is based on a tandem array of peptide sensors with amino acid barcodes that allow multiplexed analysis for spatial, kinetic, and screening applications. We engineered a ProKAS module to simultaneously monitor the activities of the DNA damage response kinases ATR, ATM, and CHK1 in response to genotoxic drugs, while also uncovering differences between these signaling responses in the nucleus, cytosol, and replication factories. Furthermore, we developed an in silico approach for the rational design of specific substrate peptides expandable to other kinases. Overall, ProKAS is a versatile system for systematically and spatially probing kinase action in cells.

Nature CommunicationsVol. 16(1)
Cornell University (US), Institute of Physics (PL), Institute of Mathematics and Computer Science (MD)
National Institutes of Health
Openalex Percentile: Top 69%
Advanced Proteomics Techniques and Applications
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Proteomic sensors for quantitative multiplexed and spatial monitoring of kinase signaling — Deanna V. Maybee, Marcus B. Smolka, et al. · Nature Communications (2025) | TGRS Research Map | TGRS