Exploiting metabolism to alter the epigenome of Cyclin E-altered ovarian cancer
Exploiting metabolism to alter the epigenome of Cyclin E-altered ovarian cancer
批准号:
9760441
负责人:
Erika S Dahl
金额:
$3.16万
依托单位国家:
美国
项目类别:
财政年份:
2019
资助国家:
美国
项目状态:
已结题
起止时间:
2019-03-01 至 2022-02-28
关键词:
AccountingAddressAffectBindingBiological AssayCCNE1 geneCancer PatientCarcinomaCell Cycle ArrestCell Cycle ProgressionCitric Acid CycleClinicClinicalComet AssayDNA DamageDataDecarboxylationDevelopmentDrug TargetingEnvironmentEnzymesEpigenetic ProcessEpithelial ovarian cancerExhibitsFamilyFamily memberFutureGenesGenetic TranscriptionGoalsGreater sac of peritoneumHealthcareHistonesIsocitrate DehydrogenaseIsocitratesKnowledgeLeadLuciferasesMalignant Epithelial CellMalignant Female Reproductive System NeoplasmMalignant NeoplasmsMalignant neoplasm of ovaryMammalian OviductsMedicineMentorsMetabolicMetabolismModelingNational Research Service AwardsOmentumPathway interactionsPatientsPennsylvaniaPharmacologyPhasePhosphorylationPlayProteinsPublishingResearchResearch PersonnelResourcesRoleSeedsSerousSiteStressTechniquesTestingTherapeuticTrainingTraining SupportTumor BurdenUniversitiesUp-RegulationXenograft procedurealpha ketoglutarateataxia telangiectasia mutated proteinbasecancer cellcareerchromatin immunoprecipitationcofactorcollegecombatdemethylationepigenomehistone demethylasehistone methylationin vivoknock-downmouse modelmutantnovelnovel therapeuticsoverexpressionpromoterresponsesenescenceskillstumor
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Project Summary
The goals of this F31 NRSA are to request support for training to develop expertise in the progression of high-
grad serous epithelial ovarian cancer while addressing a fundamental gap in knowledge that has the potential to
significantly impact healthcare options for ovarian cancer patients. F31 Ruth L. Kirschstein NRSA support will
highly impact this integral phase of my current scientific career and my future aspirations of becoming an
independent academic researcher. The training plan described will utilize all relevant resources available at
Penn State College of Medicine; as well as resources provided by my dynamic mentoring committee at Drexel
University and University of Pennsylvania.
The scientific portion of this proposal focuses on experimentally and mechanistically determining the role of
metabolism and epigenetic modulation in cyclin E-altered high-grade serous carcinoma (HGSC) and whether
this pathway can be targeted as a pro-senescent therapy in the clinic. The proposed studies are based on my
robust preliminary data suggesting that TCA cycle enzyme, IDH1, is upregulated in epithelial ovarian cancer
when compared to the fallopian tube, the potential site of HGSC origin. Additional preliminary data suggests that
IDH1 is upregulated in order to increase transcription of DNA damage response gene, ataxia telangiectasia
mutated (ATM) through histone methylation status, a topic of which I have previously published a review.
Interestingly, my strong preliminary data also indicates that knockdown of IDH1 induces senescence.
Therefore, in continuation of these robust preliminary data I will explore three scientific aims: 1) to determine the
mechanism by which cyclin E upregulates IDH1 expression; 2) to investigate the role of IDH1 in the DNA damage
response; and 3) to develop inhibition of IDH1 as a novel therapeutic strategy in cyclin E-altered HGSC. The
completion of the proposed scientific aims will develop my research skills utilizing HGSC as a model in addition
to increasing my independence as a scientific researcher. Conclusions drawn from the proposed studies may
develop rationale for targeting IDH1 in cyclin E-altered HGSC clinically.
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