Investigating mechanisms of de novo gene birth in Saccharomyces cerevisiae
Investigating mechanisms of de novo gene birth in Saccharomyces cerevisiae
批准号:
10000118
负责人:
S. Branden Van Oss
金额:
$6.53万
依托单位国家:
美国
项目类别:
财政年份:
2018
资助国家:
美国
项目状态:
已结题
起止时间:
2018-09-01 至 2021-08-31
关键词:
AddressAffectAntifungal AgentsAreaBioinformaticsBiological ModelsBirthCell physiologyCellsCellular biologyCloningCognitionDNA sequencingDataData SetDiseaseEnvironmentEventEvolutionGene ExpressionGenesGeneticGenetic TranscriptionGenetic VariationGenomeGoalsHumanKnowledgeLeadLibrariesLifeMalignant NeoplasmsMass Spectrum AnalysisMedicalMetabolicMethionineMethodsModelingMolecularMutationNatureOpen Reading FramesOrphanOxidative StressPathway interactionsPeptidesPhysiologicalPlayProcessProteomeRNA analysisRegulationRoleSaccharomyces cerevisiaeSaccharomycetalesStressStructureSystemTechnologyTranscriptional RegulationTranslatingTranslationsUntranslated RNAWestern BlottingYeastsbiological adaptation to stressfitnessgenetic elementgenome-widehigh throughput screeningin silicoin vivoinnovationinsightmRNA Expressionnoveloverexpressionpredictive modelingpromoterribosome profilingscreeningtraittranscription factortranscriptome sequencing
中文摘要
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英文摘要
Project Summary/Abstract
Genetic diversity amongst species is due in part to the de novo emergence of new genes from
noncoding regions of the genome. New genes that have emerged de novo have been found in
every species thus far examined, including hundreds that have been identified in humans, and
many disease-associated mutations are found in human-specific genes. “Proto-genes,” which
display features intermediate between genic and non-genic sequences, may represent the pool
from which de novo gene birth takes place, but very little is known about the extent,
regulation, and physiological consequences of proto-gene expression. The goal of this
proposal is to explore proto-gene expression in the budding yeast Saccharomyces cerevisiae
through an integration of in silico and in vivo approaches. Proto-gene transcription will be
assessed through a re-analysis of RNA-sequencing datasets, which will lead to predictions
about the factors that govern proto-gene expression. Proto-gene translation will also be
examined by both a re-analysis of mass spectrometry datasets and by high-throughput
cloning followed by western blotting, and the structural features of proto-gene translation
products will be examined computationally. Finally, by screening a proto-gene overexpression
library for effects on fitness under various stress conditions, the adaptive potential of proto-
gene expression will be examined. The studies proposed here will enhance our understanding
both of the mechanisms that underpin de novo gene birth as well as the cellular function(s) of
these proto-genes.
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