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Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities [Bone marrow]

ABSTRACT: Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities [Bone marrow]

PROVIDER: PRJNA940126 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR23655300.fastq.gz	Fastqsanger.gz
	SRR23655301.fastq.gz	Fastqsanger.gz
	SRR23655302.fastq.gz	Fastqsanger.gz
	SRR23655303.fastq.gz	Fastqsanger.gz
	SRR23655304.fastq.gz	Fastqsanger.gz

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Similar Datasets

Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities [Duodenum]

Project description:The degradation tag (dTAG) system for target protein degradation can remove proteins from biological systems without the drawbacks of some genetic methods, such as slow kinetics, lack of reversibility, low specificity, and the inability to titrate dosage. These drawbacks can make it difficult to compare toxicity resulting from genetic and pharmacological interventions, especially in vivo. Because the dTAG system has not been studied extensively in vivo, we explored the use of this system to study the physiological sequalae resulting from CDK2 or CDK5 degradation in adult mice. Mice with knock-in of the dTAG sequence onto the C-terminus of CDK2 and CDK5 were born at Mendelian ratios despite decreased CDK2 or CDK5 protein levels in comparison to wild-type mice. In bone marrow cells and duodenum organoids derived from these mice, treatment with the dTAG degrader dTAG-13 resulted in rapid and robust protein degradation but caused no appreciable change in viability or the transcriptome. Repeated delivery of dTAG-13 in vivo for toxicity studies proved challenging; we explored multiple formulations in an effort to maximize degradation while minimizing formulation-related toxicity. Degradation of CDK2 or CDK5 in all organs except the brain, where dTAG-13 likely did not cross the blood brain barrier, only caused microscopic changes in the testis of CDK2dTAG mice. These findings were corroborated with conditional CDK2 knockout in adult mice. Our results suggest that the dTAG system can provide robust protein degradation in vivo and that loss of CDK2 or CDK5 in adult mice causes no previously unknown phenotypes.

2023-05-28 | GSE226388 | GEO

Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities [Bone marrow]

2023-05-28 | GSE226386 | GEO

Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities

Project description:Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities

| PRJNA940112 | ENA

Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities [Duodenum]

Project description:Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities [Duodenum]

| PRJNA940124 | ENA

Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities.

Project description:The degradation tag (dTAG) system for target protein degradation can remove proteins from biological systems without the drawbacks of some genetic methods, such as slow kinetics, lack of reversibility, low specificity, and the inability to titrate dosage. These drawbacks can make it difficult to compare toxicity resulting from genetic and pharmacological interventions, especially in vivo. Because the dTAG system has not been studied extensively in vivo, we explored the use of this system to study the physiological sequalae resulting from CDK2 or CDK5 degradation in adult mice. Mice with homozygous knock-in of the dTAG sequence onto CDK2 and CDK5 were born at Mendelian ratios despite decreased CDK2 or CDK5 protein levels in comparison with wild-type mice. In bone marrow cells and duodenum organoids derived from these mice, treatment with the dTAG degrader dTAG-13 resulted in rapid and robust protein degradation but caused no appreciable change in viability or the transcriptome. Repeated delivery of dTAG-13 in vivo for toxicity studies proved challenging; we explored multiple formulations in an effort to maximize degradation while minimizing formulation-related toxicity. Degradation of CDK2 or CDK5 in all organs except the brain, where dTAG-13 likely did not cross the blood brain barrier, only caused microscopic changes in the testis of CDK2dTAG mice. These findings were corroborated with conditional CDK2 knockout in adult mice. Our results suggest that the dTAG system can provide robust protein degradation in vivo and that loss of CDK2 or CDK5 in adult mice causes no previously unknown phenotypes.

| S-EPMC10306401 | biostudies-literature

Use of the dTAG system in vivo to degrade CDK2 and CDK5 in adult mice and explore potential safety liabilities

Project description:This SuperSeries is composed of the SubSeries listed below.

2023-05-28 | GSE226390 | GEO

Rapid and direct control of target protein levels with VHL-recruiting dTAG molecules

Project description:Chemical biology strategies for directly perturbing protein homeostasis including the degradation tag (dTAG) system provide temporal advantages over genetic approaches and improved selectivity over small molecule inhibitors. We describe dTAGV-1, an exclusively selective VHL-recruiting dTAG molecule, to rapidly degrade FKBP12F36V-tagged proteins. dTAGV-1 overcomes a limitation of previously reported CRBN-recruiting dTAG molecules to degrade recalcitrant oncogenes, supports combination degrader studies and facilitates investigations of protein function in cells and mice

2020-09-21 | PXD018937 | Pride

Rapid and efficient adaptation of the dTAG system in mammalian development reveals stage specific requirements of NELF

Project description:mRNA expression profile of late 2-cell mouse embryos cultured +/- dTAG-13 to degrade NELFB from the zygote stage.

2022-02-19 | GSE185099 | GEO

Cdk5 drives formation of heterogeneous pancreatic neuroendocrine tumors.

Project description:Pancreatic neuroendocrine tumors (PanNETs) are a heterogeneous population of neoplasms that arise from hormone-secreting islet cells of the pancreas and have increased markedly in incidence over the past four decades. Non-functional PanNETs, which occur more frequently than hormone-secreting tumors, are often not diagnosed until later stages of tumor development and have poorer prognoses. Development of successful therapeutics for PanNETs has been slow, partially due to a lack of diverse animal models for pre-clinical testing. Here, we report development of an inducible, conditional mouse model of PanNETs by using a bitransgenic system for regulated expression of the aberrant activator of Cdk5, p25, specifically in b-islet cells. This model produces a heterogeneous population of PanNETs that includes a subgroup of well-differentiated, non-functional tumors. The utility of this model is enhanced by ability to form tumor-derived allografts. Production of these tumors demonstrates the causative potential of aberrantly active Cdk5 for generation of PanNETs. Further, we show that human PanNETs express Cdk5 pathway components, are dependent on Cdk5 for growth, and share genetic and transcriptional overlap with the INS-p25OE model. This new model of PanNETs will facilitate molecular delineation of Cdk5-dependent PanNETs and the development of new targeted therapeutics.

2021-06-10 | GSE176448 | GEO

CDK5-dependent phosphorylation and nuclear translocation of TRIM59 promotes macroH2A1 ubiquitination and tumorigenicity

Project description:Despite the development of adjuvant therapies, glioblastoma (GBM) patients remain incurable and justify the urgent need of new therapies. CDK5 functions a critical role in GBM and is a potential target for GBM. However, the mechanism by which CDK5 promotes GBM tumorigenicity remains largely unknown. Here we identify TRIM59 as a substrate of CDK5. EGFR-activated CDK5 directly binds to and phosphorylates TRIM59, a ubiquitin ligase at serine 308, which recruits PIN1 for cis-trans isomerization of TRIM59, leading to TRIM59 binding to importin a5 and nuclear translocation. Nuclear TRIM59 induces ubiquitination and degradation of the tumor suppressive histone variant macroH2A1, leading to enhanced STAT3 signaling activation and tumorigenicity. These findings are confirmed by inhibition of CDK5-activated TRIM59 activity that results in suppression of intracranial tumor growth. Correlative expressions of the components of this pathway are clinically prognostic. Our findings suggest targeting CDK5/TRIM59 signaling axis as a putative strategy for treating GBM.

2019-08-11 | GSE130949 | GEO

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