grant

The molecular mechanisms and functional significance of gene positioning

Organization NORTHWESTERN UNIVERSITYLocation Chicago, UNITED STATESPosted 1 Aug 2020Deadline 31 Jul 2026
NIHUS FederalResearch GrantFY2024AgingAnimalsBasal Transcription FactorBasal transcription factor genesBiologic ModelsBiological ModelsBudding YeastCell BodyCell Communication and SignalingCell NucleusCell SignalingCellsChromatin StructureChromosomesComplexEndomycetalesEnvironmentFutureGene ArrangementGene ExpressionGene OrderGene PositionGene TranscriptionGeneral Transcription Factor GeneGeneral Transcription FactorsGenesGenetic TranscriptionGenomeGoalsHumanIntracellular Communication and SignalingLife StyleLifestyleMediatingModel SystemModern ManMolecularNPCNuclear Pore ComplexNucleusPhysiologyRNA ExpressionSaccharomycetalesSignal TransductionSignal Transduction SystemsSignalingTranscriptionTranscription Factor Proto-OncogeneTranscription RegulationTranscription factor genesTranscriptional ControlTranscriptional RegulationWorkbiological signal transductiongene interactionresponsetranscription factoryeast genome
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Full Description

Project Summary
Understanding the molecular control of transcriptional responses of cells to environmental signals is

essential to understand how environment, aging and lifestyle impact physiology. My lab has discovered

that the position of genes is actively controlled by cells and that this impacts transcription in several

ways. Although we study this phenomenon in the simple budding yeast, it is conserved to more complex

animals, including humans. We recently showed that a majority of transcription factors control the

interaction of genes with the Nuclear Pore Complex (NPC), impacting the spatial arrangement of genes

and the interaction of chromosomes. Furthermore, we have shown that this interaction with the NPC can

either promote stronger transcription and alter chromatin structure to poise genes for future expression.

Thus, transcription factor-mediated targeting to the NPC likely has broad effects on both the spatial

organization of the genome and gene expression. The goals of this work are to determine the molecular

mechanisms by which transcription factors and NPCs spatially arrange the yeast genome and to

understand how these interactions impact gene expression and chromatin structure.

Grant Number: 5R35GM136419-05
NIH Institute/Center: NIH

Principal Investigator: Jason Brickner

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