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Structure-guided design of a selective inhibitor of the methyltransferase KMT9 with cellular activity

ABSTRACT: Structure-guided design of a selective inhibitor of the methyltransferase KMT9 with cellular activity

PROVIDER: PRJNA986527 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR24994160_1.fastq.gz	Fastqsanger.gz
	SRR24994160_2.fastq.gz	Fastqsanger.gz
	SRR24994161_1.fastq.gz	Fastqsanger.gz
	SRR24994161_2.fastq.gz	Fastqsanger.gz
	SRR24994162_1.fastq.gz	Fastqsanger.gz

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Structure-guided design of a selective inhibitor of the methyltransferase KMT9 with cellular activity

Project description:Inhibition of epigenetic regulators by small molecules is an attractive strategy for cancer treatment. Recently, we characterised the role of lysine methyltransferase 9 (KMT9) in prostate, lung, and colon cancer. Our observation that the enzymatic activity was required for tumour cell proliferation identified KMT9 an attractive therapeutic target. Here, we report the development of the first-in-class, potent and selective KMT9 inhibitor (compound 4, KMI169) through structure-based drug design. KMI169 functions as a bi-substrate inhibitor targeting the SAM and substrate binding pockets of KMT9 and exhibits high potency, selectivity, and cellular target engagement. KMT9 inhibition selectively downregulates target genes involved in transcription and cell cycle regulation and impairs proliferation of tumours cells including castration- and enzalutamide-resistant prostate cancer cells. Together, KMI169 represents a valuable tool to probe cellular KMT9 functions and paves the way for the development of clinical inhibitors as therapeutic options to treat malignancies such as therapy-resistant prostate cancer.

2023-12-31 | GSE235595 | GEO

Structure-guided design of a selective inhibitor of the methyltransferase KMT9 with cellular activity.

Project description:Inhibition of epigenetic regulators by small molecules is an attractive strategy for cancer treatment. Recently, we characterised the role of lysine methyltransferase 9 (KMT9) in prostate, lung, and colon cancer. Our observation that the enzymatic activity was required for tumour cell proliferation identified KMT9 as a potential therapeutic target. Here, we report the development of a potent and selective KMT9 inhibitor (compound 4, KMI169) with cellular activity through structure-based drug design. KMI169 functions as a bi-substrate inhibitor targeting the SAM and substrate binding pockets of KMT9 and exhibits high potency, selectivity, and cellular target engagement. KMT9 inhibition selectively downregulates target genes involved in cell cycle regulation and impairs proliferation of tumours cells including castration- and enzalutamide-resistant prostate cancer cells. KMI169 represents a valuable tool to probe cellular KMT9 functions and paves the way for the development of clinical candidate inhibitors as therapeutic options to treat malignancies such as therapy-resistant prostate cancer.

| S-EPMC10762027 | biostudies-literature

Depletion of histone methyltransferase KMT9 inhibits lung cancer cell proliferation by inducing non-apoptotic cell death

Project description:Background: Lung cancer is the leading cause of cancer related death worldwide. Over the past 15 years no major improvement of survival rates could be accomplished. The recently discovered histone methyltransferase KMT9 as epigenetic regulator of prostate tumor growth has now raised hopes of enabling new cancer therapies. In this study we aimed to identify the function of KMT9 in lung cancer which has remained elusive so far. Methods: We linked full transcriptome and proteome analyses of A549 lung adenocarcinoma cells using RNA-Seq and mass spectrometry with functional cell culture, real-time proliferation and flow cytometry assays. Results: KMT9 is expressed in lung cancer tissue and cell lineswith high levels of KMT9 correlating with poor patient survival. We identified 460 overlapping genes and proteins that are deregulated upon knock-down of KMT9alpha in A549 cells. These genes cluster with proliferation, cell cycle and cell death gene sets as well as with subcellular organelles in gene ontology analysis. Knock-down of KMT9alpha inhibits lung cancer cell proliferation and induces non-apoptotic cell death in A549 cells. Conclusions: The novel histone methyltransferase KMT9 is crucial for proliferation and survival of lung cancer cells harboring various mutations. Small molecule inhibitors targeting KMT9 therefore should be further examined as potential milestones in modern epigenetic lung cancer therapy.

2020-05-26 | PXD014145 | Pride

KMT9 is an actionable target in muscle-invasive bladder cancer

Project description:Novel treatment modalities are imperative for the challenging management of muscle-invasive and metastatic BC to improve patient survival rates. The recently identified lysine methyltransferase (KMT) 9, an obligate heterodimer composed of KMT9α and KMT9β, regulates the growth of various types of tumors such as prostate, lung and colon cancer. While overexpression of KMT9α was previously observed to be associated with aggressive basal-like MIBC in an analysis of patients’ tissue samples, a potential functional role of KMT9 in this type of cancer has not been investigated to date. In this study, we show that KMT9 regulates proliferation and migration of various MIBC cell lines with different genetic mutations. KMT9α depletion results in differential expression of genes involved in the regulation of the cell cycle, cell adhesion and migration. Reduced cell proliferation upon KMT9α depletion is also observed in Pten/Trp53 knockout bladder tumor organoids, which cannot be rescued with an enzymatically inactive KMT9α mutant. In accordance with the idea that the catalytic activity of KMT9 is required for the control of cellular processes in MIBC, a recently developed small molecule inhibitor of KMT9 (KMI169) also impairs cancer cell proliferation. Since KMT9α depletion also restricts the growth of xenografts in mice, our data suggest that KMT9 is an actionable novel therapeutic target for the treatment of MIBC.

2024-05-01 | GSE255344 | GEO

Comprehensive AAV capsid fitness landscape reveals a viral gene and enables machine-guided design

Project description:An Adeno-Associated Virus capsid fitness landscape reveals a frameshifted viral gene and in vivo design principles, enabling machine-guided engineering.

2019-11-29 | GSE139657 | GEO

KMT9 writes the histone mark H4K12me1 and controls metabolism and proliferation of castration-resistant prostate cancer cells

Project description:Posttranslational modifications of histones such as methylation regulate chromatin structure and gene expression. Methylation of histone lysine residues is generally performed by SET domain methyltransferases. Here, we identify the heterodimeric C21orf127/TRMT112 complex as a specific histone methyltransferase. Assembly of the seven-b-strand protein C21orf127 (also named Hemk2, N6amt1 or PrmC) with TRMT112 is essential to form an active enzyme, hereafter named KMT9 that writes the histone mark H4K12me1 in vitro and in vivo. The H4K12me1 mark is enriched at promoters of KMT9 target genes and co-localises with the active histone mark H4K12ac. By controlling expression of genes involved in energy metabolism, KMT9 regulates oxidative phosphorylation in androgen receptor-dependent and -independent prostate tumour cells. Importantly, KMT9 depletion severely affects proliferation of castration and enzalutamide-resistant prostate cancer cells and xenograft tumours. Together, our data link the writing of the H4K12me1 histone mark by KMT9 with KMT9-dependent gene expression, which in consequence regulates energy metabolism and proliferation. KMT9 executes these functions independently of androgen receptor and androgen signalling thus, providing a promising paradigm for the treatment of castration resistant prostate cancer.

2019-03-11 | PXD008965 | Pride

Evolutionarily guided transcription factor design programs novel T cell states [bulkRNA-seq]

Project description:Evolutionarily guided transcription factor design programs novel T cell states [bulkRNA-seq]

| PRJNA1178726 | ENA

A computer-guided design tool to increase the efficiency of cellular conversions

Project description:A computer-guided design tool to increase the efficiency of cellular conversions

| PRJNA698774 | ENA

A computer-guided design tool to increase the efficiency of cellular conversions

Project description:Here we introduce a computer-guided design tool that combines a computational framework for prioritizing more efficient combinations of instructive factors (IFs) of cellular conversions, called IRENE, with a transposon-based genomic integration system for efficient delivery. Particularly, IRENE relies on a stochastic gene regulatory network model that systematically prioritizes more efficient IFs by maximizing the agreement of the transcriptional and epigenetic landscapes between the converted and target cells. Our predictions substantially increased the efficiency of two established iPSC-differentiation protocols (natural killer cells and melanocytes) and established the first protocol for iPSC-derived mammary epithelial cells with high efficiency.

2021-02-02 | GSE165961 | GEO

Sequencing-Guided Design of Genetically Encoded Small RNAs Targeting CAG Repeats for Selective Inhibition of Mutant Huntingtin

Project description:Sequencing-Guided Design of Genetically Encoded Small RNAs Targeting CAG Repeats for Selective Inhibition of Mutant Huntingtin

| PRJNA1102415 | ENA

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