grant

Developing ribosome biogenesis inhibitors for the prevention of cancer

Organization UT SOUTHWESTERN MEDICAL CENTERLocation DALLAS, UNITED STATESPosted 21 May 2024Deadline 30 Apr 2027
NIHUS FederalResearch GrantFY2026Anti-Cancer AgentsAntineoplastic AgentsAntineoplastic DrugsAntineoplasticsAssayAttenuatedBackBioassayBiogenesisBiological AssayCancer DrugCancer GenesCancer-Promoting GeneCancersCell BodyCell FunctionCell Growth in NumberCell MultiplicationCell NucleolusCell PhysiologyCell ProcessCell ProliferationCellsCellular FunctionCellular PhysiologyCellular ProcessCellular ProliferationCollectionDNA Polymerase IDNA Polymerase alphaDNA-Dependent DNA Polymerase IDataDevelopmentDiseaseDisorderDorsumDoseDrugsExhibitsFollow-Up StudiesGene TranscriptionGeneralized GrowthGenesGenetic TranscriptionGoalsGrowthHepatic CancerHepatic DisorderHepatic NeoplasmsHepatocarcinomaHepatocarcinoma modelHepatocellular CarcinomaHepatocellular cancerHepatomaHypertrophyIn VitroKlenow FragmentLeadLibrariesLinkLiver Cells CarcinomaLiver diseasesLiver neoplasmsMalignant CellMalignant NeoplasmsMalignant TumorMalignant neoplasm of liverMedicationMethodsMiceMice MammalsMolecular MachinesMurineMusNCI OrganizationNational Cancer InstituteNatural CompoundNatural ProductsNatureNeoplastic Disease Chemotherapeutic AgentsOncogenesOncogenesisOrigin of LifePb elementPharmaceutical PreparationsPhasePlasmosomePlayPol IPositionPositioning AttributePre-Clinical ModelPreclinical ModelsPreventionPrimary carcinoma of the liver cellsProductionProliferatingProtein BiosynthesisProtein Synthesis InhibitionProteinsRNA ExpressionReporterResolutionRibosomal Biogenesis PathwayRibosomal Peptide BiosynthesisRibosomal Protein BiosynthesisRibosomal Protein SynthesisRibosomal RNARibosomesRoleSubcellular ProcessSystemTechnologyTestingTherapeuticTherapeutic IndexTissue GrowthToxicologyTranscriptionTransforming GenesTumor Suppressor Arf Inhibits Ribosomal BiogenesisTumor-Specific Treatment Agentsanti-cancer druganti-cancer researchattenuateattenuatescancer cellcancer initiationcancer preventioncancer progressioncancer researchcell immortalizationcell transformationcellular targetingdevelopmentaldrug/agenteffectiveness testingexperimentexperimental researchexperimental studyexperimentsfollow-up research studyfollow-up surveyheavy metal Pbheavy metal leadhepatic diseasehepatic neoplasiahepatic neoplasmhepatic tumorhepatocellular carcinoma cancer modelhepatocellular carcinoma modelhepatopathyin vivoin vivo Modelinhibitorinnovateinnovationinnovativeinnovative technologiesliver cancerliver cancer modelliver cancer patientliver cancer preventionliver carcinomaliver disorderliver malignancyliver tumormalignancymalignant liver tumormouse modelmurine modelnaturally occurring compoundnaturally occurring productneoplasm progressionneoplasm/cancerneoplastic progressionnew drug treatmentsnew drugsnew pharmacological therapeuticnew therapeuticsnew therapynext generation therapeuticsnovelnovel drug treatmentsnovel drugsnovel pharmaco-therapeuticnovel pharmacological therapeuticnovel therapeuticsnovel therapynucleolusontogenypreventpreventingprotein synthesisrRNAresolutionsscreeningscreeningssmall molecular inhibitorsmall moleculesmall molecule inhibitorsocial rolestudy with follow-uptooltransformed cellstumortumor progressiontumorigenesis
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Full Description

Summary
Tumor formation and cancer cell proliferation depend on enhanced ribosome biogenesis and protein synthesis. Ribosomes are the molecular machines responsible for protein production within cells. Emerging data indicates that inhibition of ribosome formation and function can prevent cancers from forming in certain contexts. For example, liver disease predisposes patients for liver cancer, including hepatocellular carcinoma, and this transition is marked by enhanced ribosome biogenesis. Inhibition of ribosome function prevents liver tumor formation in mouse models. Thus, additional compounds that attenuate ribosome production and activity may be able to prevent the formation of tumors. Unfortunately, previously available methods used to study ribosome biogenesis are laborious and not easily scalable. This has significantly hampered the development of new ribosome biogenesis inhibitors. To overcome this critical barrier, we have developed an innovative platform that we call ribo-SNAP, which allows us to assay the dynamics of ribosome biogenesis at single cell resolution in living cells. Using this platform, we have successfully completed pilot compound screens and identified new genes and small molecules that inhibit the protein synthesis capacity of cancer cells. In parallel, we have also developed a second novel assay called SidBait, which allows us to robustly and rapidly identify compound targets within cells. Using these approaches, we are in a unique position to identify and develop ribosome biogenesis inhibitors as effective anti-cancer agents. We now seek to expand our efforts to the larger NCI natural product library. The proposal is divided into UG3 and UH3 sections. Under Aim 1, we will further optimize the ribo-SNAP platform and conduct a small pilot screen of a subset of fractions from the SOOK natural product library. In Aim 2, we will use Sid Bait to identify the targets of compounds identified in the pilot screen or our ongoing screen of an independent 3SOK compound library. Experiments described under Aim 3 will directly test the extent to which ribosome biogenesis inhibitors can prevent liver tumor formation in mouse models. These three aims have clear milestones and we anticipate that the successful completion of the UG3 phase will allow the project to advance. During the UH3 phase, the large of screening will expand to the entire SOOK library under Aim 4. Sid Bait will be used in Aim 5 to begin to determine the mechanism of action of specific compounds. Finally, under Aim 6, mouse models will be used to test whether lead molecule prevent cancer progression. The successful completion of the entire project described in this proposal will provide an unparalleled collection of ribosome biogenesis inhibitors that can be further developed into novel therapeutics for the prevention of liver cancer.

Grant Number: 5UG3CA290312-03
NIH Institute/Center: NIH

Principal Investigator: Michael Buszczak

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