Linking chromatin acylation mark-defined proteome and genome in living cells
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA842563 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR16942700_1.fastq.gz | Fastqsanger.gz | |||
| SRR16942700_2.fastq.gz | Fastqsanger.gz | |||
| SRR16942702_1.fastq.gz | Fastqsanger.gz | |||
| SRR16942702_2.fastq.gz | Fastqsanger.gz | |||
| SRR16942704_1.fastq.gz | Fastqsanger.gz |
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Project description:A generalizable strategy with programmable site-specificity for in situ profiling of histone modifications on unperturbed chromatin remains highly desirable but challenging. We herein developed a Single-site-resolved multi-omics (SiTomics) strategy for systematic mapping of dynamic modifications, and subsequent profiling of chromatinized proteome and genome defined by specific chromatin acylations in living cells. By leveraging the genetic code expansion strategy, our SiTomics toolkit revealed distinct crotonylation (e.g., H3K56cr) and β-hydroxybutyrylation (e.g., H3K56bhb) upon short chain fatty acids stimulation, and established linkages for chromatin acylation mark-defined proteome, genome and functions. This led to the identification of GLYR1 as a distinct interacting protein in modulating H3K56cr’s gene body localization as well as the discovery of an elevated super-enhancer repertoire underlying bhb-mediated chromatin modulations. SiTomics offers a platform technology for elucidating the “metabolites-modification-regulation” axis, which is widely applicable for multi-omics profiling and functional dissection of modifications beyond acylations and proteins beyond histones.
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Project description:A generalizable strategy with programmable site-specificity for in situ profiling of histone modifications on unperturbed chromatin remains highly desirable but challenging. We herein developed a Single-site-resolved multi-omics (SiTomics) strategy for systematic mapping of dynamic modifications, and subsequent profiling of chromatinized proteome and genome defined by specific chromatin acylations in living cells. By leveraging the genetic code expansion strategy, our SiTomics toolkit revealed distinct crotonylation (e.g., H3K56cr) and β-hydroxybutyrylation (e.g., H3K56bhb) upon short chain fatty acids stimulation, and established linkages for chromatin acylation mark-defined proteome, genome and functions. This led to the identification of GLYR1 as a distinct interacting protein in modulating H3K56cr’s gene body localization as well as the discovery of an elevated super-enhancer repertoire underlying bhb-mediated chromatin modulations. SiTomics offers a platform technology for elucidating the “metabolites-modification-regulation” axis, which is widely applicable for multi-omics profiling and functional dissection of modifications beyond acylations and proteins beyond histones.
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Project description:A generalizable strategy with programmable site-specificity for in situ profiling of histone modifications on unperturbed chromatin remains highly desirable but challenging. We herein developed a Single-site-resolved multi-omics (SiTomics) strategy for systematic mapping of dynamic modifications, and subsequent profiling of chromatinized proteome and genome defined by specific chromatin acylations in living cells. By leveraging the genetic code expansion strategy, our SiTomics toolkit revealed distinct crotonylation (e.g., H3K56cr) and β-hydroxybutyrylation (e.g., H3K56bhb) upon short chain fatty acids stimulation, and established linkages for chromatin acylation mark-defined proteome, genome and functions. This led to the identification of GLYR1 as a distinct interacting protein in modulating H3K56cr’s gene body localization as well as the discovery of an elevated super-enhancer repertoire underlying bhb-mediated chromatin modulations. SiTomics offers a platform technology for elucidating the “metabolites-modification-regulation” axis, which is widely applicable for multi-omics profiling and functional dissection of modifications beyond acylations and proteins beyond histones.
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Project description:Isoniazid (INH) is the first-line anti-tuberculosis drug used for nearly seventy years. Metabolites of INH showed hepatotoxicity in human and tumorigenicity in rodents. However, mechanism underlying the side effects of INH is elusive. Histone acylation is known to be modulated by intracellular metabolites. Here, we report INH and its metabolites induces a novel post-translational modification (PTM) on histones, the lysine isonicotinylation (Kinic), also called 4-picolinylation, in cells and mice. INH functions as a donor to promote biosynthesis of isonicotinyl-CoA that is used for a co-factor of intracellular isonicotinylation reaction. Twenty-six isonicotinylation sites were identified on histones in HepG2 cells by mass spectrometry. Acetyltransferases CREB-binding protein (CBP) and P300 were found to catalyze histone Kinic, whilst histone deacetylase HDAC3 functions as a deisonicotinylase. MNase sensitivity assay and RNA-seq analysis showed that histone Kinic relaxes chromatin structure and promotes gene transcription. Importantly, INH-mediated histone Kinic upregulates PIK3R1 gene expression and activates PI3K/Akt/mTOR signaling pathway in liver cancer cells, linking INH to the tumorigenicity in liver. Further, Kinic was found increased in liver cancer patients with concomitant raised PIK3R1 protein level. In addition, histone Kinic also affects TNF and GABAergic synapse signaling pathways that are closely related to INH-caused side effects. Taken together, we demonstrated that lysine isonicotinylation represents the first histone acylation mark with the pyridine ring that may arise broad biological effects. Therefore, INH-induced isonicotinylation is likely a mechanism accounting for side effects in patients who taking long-term INH for anti-tuberculosis therapy and this modification may also increase cancer risk in human.
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