grant

Developing new computational tools for spatial transcriptomics data

Organization UNIVERSITY OF CHICAGOLocation CHICAGO, UNITED STATESPosted 16 Sept 2021Deadline 30 Jun 2026
NIHUS FederalResearch GrantFY2024AchievementAchievement AttainmentAddressArchitectureAwarenessBiologicalBody TissuesBreast Cancer PatientBreast Tumor PatientCancersCase-Base StudiesCase-Comparison StudiesCase-Compeer StudiesCase-Referent StudiesCase-Referrent StudiesCase/Control StudiesCell Culture TechniquesClinical ResearchClinical StudyCollectionCommunitiesComputational toolkitComputer Software ToolsComputer softwareDataData AnalysesData AnalysisData SetData SourcesDegenerative Neurologic DisordersDetectionDevelopmentDimensionsDiseaseDisorderEngineering / ArchitectureEventFoundationsGene ExpressionGenesGenomicsGoalsHealthHeterogeneityHumanImageImmune responseImmunological responseInvestigationJointsLinkLocationMalignant NeoplasmsMalignant TumorMapsMeasurementMethodologyMethodsModern ManNervous System Degenerative DiseasesNeural Degenerative DiseasesNeural degenerative DisordersNeurodegenerative DiseasesNeurodegenerative DisordersNeurologic Degenerative ConditionsPatternPerformancePhenotypePropertyResearchResolutionSample SizeSamplingSlideSoftwareSoftware ToolsStructureTechnologyTissue SampleTissuesTrainingTreatment outcomeValidationVariantVariationWorkbio-informatics infrastructurebioinformatics infrastructurebiologiccase-controlled studiescell culturecell culturescohortcomputational toolboxcomputational toolscomputational toolsetcomputerized data processingcomputerized toolsdata interpretationdata processingdeep learningdeep learning based neural networkdeep learning methoddeep learning neural networkdeep learning strategydeep neural netdeep neural networkdegenerative diseases of motor and sensory neuronsdegenerative neurological diseasesdevelopmentaldigitaldimension reductiondimensionality reductionfallsfrontiergenomic datagenomic data-setgenomic datasethistologic imagehistological imagehost responseimagingimmune system responseimmunoresponseinnovateinnovationinnovativemalignancymultiple data sourcesneoplasm/cancerneurodegenerative illnessnew technologynovelnovel technologiesopen sourcephase 2 trialphase II trialrapid detectionreduce data dimensionreduce dimensionalityresolutionsscRNA-seqsimulationsingle cell RNA-seqsingle cell RNAseqsingle cell expression profilingsingle cell transcriptomic profilingsingle-cell RNA sequencingsoftware toolkittechnology platformtechnology systemtissue culturetooltranscriptomicstransfer learningtranslational studyuser friendly computer softwareuser friendly softwareuser-friendlyvalidations
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Full Description

Project Summary
Spatial transcriptomics is a groundbreaking new technology that allows measurement of gene ac-

tivity in a tissue sample while mapping where the activity is occurring. It holds the promise to facilitate

our understanding of spatial heterogeneity underlying essential phenotypes and diseases, such as

neurodegenerative diseases and cancer. However, the development of bioinformatics infrastructures

and computational tools has fallen seriously behind the technological advances. The lack of proper

computational approaches presents current data analysis barriers that significantly hinder biological

investigations. The overarching goal of this proposal is to address some of the most pressing ana-

lytic challenges facing profiling and interpreting spatial transcriptomics data, including 1) lack of robust

identification of genes with spatial expression patterns across a variety of technical platforms, 2) lack

of tools to identify structures, microenvironments as well as developmental trajectory on the tissue,

and 3) lack of tools that can jointly analyze spatial transcriptomic data across multiple samples and

multiple data sources. In the proposal, we will work on the following aims: Aim 1. Develop nonpara-

metric tools for identifying genes with spatial expression patterns. Aim 2. Develop spatially aware

dimension reduction tools for detecting structures and developmental trajectories on the tissue. Aim 3.

Develop integrative association tools for spatial transcriptomic analysis across multiple samples and

datasets. All the methods will be implemented in user-friendly software and disseminated to the sci-

entific community. Successful achievement of all aims will dramatically increase the power of spatial

transcriptomics analysis, and facilitate the application of these cutting-edge technologies to transla-

tional and clinical studies.

Grant Number: 5R01HG011883-04
NIH Institute/Center: NIH

Principal Investigator: Mengjie Chen

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