Identification of Peroxisome-Derived Hydrogen Peroxide-Sensitive Target Proteins Using a YAP1C-Based Genetic Probe.

Methods Mol Biol

Department of Cellular and Molecular Medicine, Laboratory of Peroxisome Biology and Intracellular Communication, KU Leuven, Leuven, Belgium.

Published: March 2023


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Article Abstract

As the reversible oxidation of protein cysteine thiols is an important mechanism in signal transduction, it is essential to have access to experimental approaches that allow for spatiotemporal indexing of the cellular sulfenome in response to local changes in HO levels. Here, we provide a step-by-step guide for enriching and identifying the sulfenome of mammalian cells at the subcellular level in response to peroxisome-derived HO by the combined use of (i) a previously developed cell line in which peroxisomal HO production can be induced in a time- and dose-dependent manner; (ii) YAP1C, a genetically encoded yeast AP-1-like transcription factor-based probe that specifically reacts with S-sulfenylated cysteines and traps them through mixed disulfide bonds; and (iii) mass spectrometry. Given that this approach includes differential labeling of reduced and reversibly oxidized cysteine residues, it can also provide additional information on the positions of the modified cysteines. Gaining more in-depth insight into the complex nature of how alterations in peroxisomal HO metabolism modulate the cellular sulfenome is key to our understanding of how these organelles act as redox signaling hubs in health and disease.

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As the reversible oxidation of protein cysteine thiols is an important mechanism in signal transduction, it is essential to have access to experimental approaches that allow for spatiotemporal indexing of the cellular sulfenome in response to local changes in HO levels. Here, we provide a step-by-step guide for enriching and identifying the sulfenome of mammalian cells at the subcellular level in response to peroxisome-derived HO by the combined use of (i) a previously developed cell line in which peroxisomal HO production can be induced in a time- and dose-dependent manner; (ii) YAP1C, a genetically encoded yeast AP-1-like transcription factor-based probe that specifically reacts with S-sulfenylated cysteines and traps them through mixed disulfide bonds; and (iii) mass spectrometry. Given that this approach includes differential labeling of reduced and reversibly oxidized cysteine residues, it can also provide additional information on the positions of the modified cysteines.

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