grant

RNA localization in neural crest migratory protrusions

Organization UNIVERSITY OF MINNESOTALocation MINNEAPOLIS, UNITED STATESPosted 16 Sept 2024Deadline 31 Aug 2026
NIHUS FederalResearch GrantFY202422q11 Chromosomal Microdeletion Syndrome22q11 Deletion Syndrome22q11.2 deletion syndrome22q11.2DS22q11DS3' Untranslated Regions3'UTRActin-Activated ATPaseActinsAganglionic MegacolonAutosomal dominant Opitz G/BBB syndromeBehaviorBerry syndromeBerry-Treacher Collins syndromeBindingBirth DefectsBrachydanio rerioCRISPR approachCRISPR based approachCRISPR methodCRISPR methodologyCRISPR techniqueCRISPR technologyCRISPR toolsCRISPR-CAS-9CRISPR-based methodCRISPR-based techniqueCRISPR-based technologyCRISPR-based toolCRISPR/CAS approachCRISPR/Cas methodCRISPR/Cas technologyCRISPR/Cas9CRISPR/Cas9 technologyCandidate Disease GeneCandidate GeneCartilageCartilaginous TissueCas nuclease technologyCausalityCayler cardiofacial syndromeCell BodyCell Communication and SignalingCell FunctionCell LocomotionCell MigrationCell MovementCell PhysiologyCell ProcessCell SignalingCell divisionCell modelCellsCellular FunctionCellular MigrationCellular MotilityCellular PhysiologyCellular ProcessCellular modelChromosome 22q11.2 deletion syndromeClustered Regularly Interspaced Short Palindromic Repeats approachClustered Regularly Interspaced Short Palindromic Repeats methodClustered Regularly Interspaced Short Palindromic Repeats methodologyClustered Regularly Interspaced Short Palindromic Repeats techniqueClustered Regularly Interspaced Short Palindromic Repeats technologyCongenital AbnormalityCongenital Anatomical AbnormalityCongenital DefectsCongenital DeformityCongenital MalformationCongenital MegacolonCuesDanio rerioDataDefectDeletion of DNA SequencesDevelopmentDevelopmental BiologyDevelopmental ProcessDi George syndromeDiGeorge SyndromeDiGeorge anomalyDiGeorge sequenceDiseaseDisorderDorsalElementsEtiologyFoundationsFranceschetti syndromeFranceschetti-Zwahlen syndromeFranceschetti-Zwahlen-Klein syndromeGliaGlial CellsGoalsHirschsprung DiseaseHumanImageIn VitroIntracellular Communication and SignalingKnowledgeKolliker's reticulumMalignant CellMandibulofacial DysostosisMembraneMessenger RNAMetastasisMetastasizeMetastatic LesionMetastatic MassMetastatic NeoplasmMetastatic TumorMiceMice MammalsMissionModelingModern ManMolecularMolecular InteractionMurineMusMutateMyosin ATPaseMyosin Adenosine TriphosphataseMyosin AdenosinetriphosphataseMyosinsNational Institutes of HealthNatureNeoplasm MetastasisNerve CellsNerve UnitNeural CellNeural CrestNeural Crest CellNeural tubeNeurocyteNeurogliaNeuroglial CellsNeuronsNon-Polyadenylated RNANon-neuronal cellNonneuronal cellNucleic Acid Regulator RegionsNucleic Acid Regulatory SequencesPeripheral Nervous SystemPigmentsProteinsProteomePublic HealthRNARNA Gene ProductsRegulatory RegionsResearchRibonucleic AcidRibosomal RNASecondary NeoplasmSecondary TumorSedlackova syndromeSequence DeletionShprintzen syndromeSignal TransductionSignal Transduction SystemsSignalingSiteSubcellular ProcessSyndromeTestingTherapeuticThomson complexTimeTranslatingTranslationsTreacher Collins SyndromeTreacher Collins-Franceschetti syndromeUTRsUnited States National Institutes of HealthUntranslated RegionsWorkZebra DanioZebra FishZebrafishZwahlen syndromeaganglionosisbilateral facial agenesisbiological signal transductioncancer cellcancer metastasiscausationcell imagingcell motilitycell typecellular imagingconotruncal anomaly face syndromecraniofacialcraniofaciesdesigndesigningdevelopmentaldisabilitydisease causationdysostosis mandibulofacialisepithelial to mesenchymal transitionexperimentexperimental researchexperimental studyexperimentsfamilial third and fourth pharyngeal pouch syndromegenetic regulatory elementgenomic deletionglobal gene expressionglobal transcription profilehiPSChuman iPShuman iPSChuman induced pluripotent cellhuman induced pluripotent stem cellshuman inducible stem cellsiPSiPSCiPSCsimagingin vivoinduced human pluripotent stem cellsinduced pluripotent cellinduced pluripotent stem cellinducible pluripotent stem cellinnovateinnovationinnovativeinsightmRNAmRNA Expressionmandibulofacial syndromemembrane structuremigrationnerve cementneural imagingneural mechanismneural plateneuro-imagingneuroimagingneurological imagingneuromechanismneuronalpelvirectal achalasiapharyngeal pouch syndromepigmentpolarized cellprotein expressionrRNAthird and fourth pharyngeal pouch syndromethymic and parathyroid agenesis syndrometraffickingtranscriptometranslationtumor cell metastasisvelo-cardio-facial syndromevelocardiofacial syndromevelofacial hypoplasia
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Full Description

SUMMARY
A fundamental question in developmental biology is how migratory cells initiate migration, move in a

directed fashion towards their target, terminate migration and differentiate. Neural crest cells (NCCs) are an

excellent example of these developmental processes, initially forming at the neural plate border/dorsal neural

tube, undergoing an epithelial to mesenchymal transition, and migrating before differentiating. This represents

an important problem, because defects in neural crest development underlie many human congenital birth

defects including Treacher-Collins syndrome, DiGeorge syndrome, and Hirschsprungs disease. We have

determined that NCCs extend cell projections that are enriched in specific RNAs. From these data, we

hypothesize that localization of specific migratory mRNAs to NCC protrusions by zipcodes are

required for directed migration. The rationale for the proposed studies is that an in-depth understanding of

the cellular mechanisms of normal NCC migration will provide insights into the etiology of both neural crest-

associated birth defects, including numerous syndromes, and cancer cell metastasis. We will test this

hypothesis in the following specific aims: 1) Test the hypothesis that specific mRNAs are enriched in NCC

protrusions and are required for NCC migratory behavior. In Aim 1, we will determine the transcriptome

and proteome of NCC projections and test their function. 2) Test the hypothesis that zipcode sequences in

NCC protrusion localized mRNAs are required for localization and NCC migration. In Aim 2, we will

examine the localization and function of UTR regulatory sequences. Together, these studies will reveal the

cellular and molecular mechanisms by which specific RNAs and proteins enriched in NCC projections promote

NCC migration. The results of this proposal have the potential to reveal important new insights into NCC

migration in normal development and disease and will provide a foundation for the design of therapeutic

strategies for neural crest associated birth defects.

Grant Number: 1R21DE033800-01A1
NIH Institute/Center: NIH

Principal Investigator: Kristin Artinger

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