The Center for Learning Health System Sciences is offering a wayfinding service to help researchers navigate the UMN's vast multi-omic ecosystem. The cutting edge technology and methods of modern systems biology and bioinformatics allow researchers an unprecedented opportunity to address complex patient disease and quality of life issues. Our wayfinding service is offered to democratize the ability of researchers to access the tools available at the UMN.

We help researchers obtain services, access technology, and recieve training, across these 8 core facilities and research hubs (and others) that power multi-omic research across the University of Minnesota.

 

Evaluates and acquires emerging genomic technologies, providing fee-for-service high-throughput sequencing, single-cell analysis, and spatial genomic workflows.

10x Visium, Curio Seeker, NGS

Visit UMGC

 

Shared imaging facilities providing equipment and expert service for light/electron microscopy, high-plex spatial profiling, and slide scanning.

Bruker GeoMx, Bruker CosMx, Lunaphore COMET

Visit UIC

High-performance computing infrastructure and expert research informatics support for cell segmentation, spatial analysis, and multi-omic data integration.

Bioinformatics, HPC Computing, Image Analysis

Visit MSI

Specialized biological mass spectrometry core delivering quantitative proteomics, discovery metabolomics, and targeted molecular characterization.

Proteomics, Metabolomics, Mass Spectrometry

Visit CMSP

Certified histotechnicians providing FFPE processing, OCT embedding, sectioning, IHC/IF staining, TMA construction, and slide preparation.

Sample Prep, Histology, Digital Imaging

Visit CTSI Histology

High-dimensional, multiparameter flow cytometry and cell sorting services for isolating single-cell populations prior to genomic profiling.

Cell Sorting, Spectral Cytometry, Immune Profiling

Visit UFCR

Virtual consortium connecting histology, imaging, genomics, and bioinformatics expertise across UMN to streamline complex multi-modal workflows.

Cross-Disciplinary, Spatial Genomics, Workflow Advice

Visit Spatialomics

Integrated informatics, cancer genomics, proteogenomics, and biostatistical support for translational and clinical precision-medicine research.

Cancer Genomics, Proteogenomics, Clinical Analytics

Visit UIC

Submit your request below to connect with our wayfinding service team. We will review your research needs and guide you to the appropriate UMN core facilities, technologies, and collaborators.

See how a hypothetical UMN oncology study successfully stitches together numerous UMN core facilities to execute a comprehensive spatial multi-omics pipeline—from raw clinical tissue to integrated bioinformatic discovery.

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The research team began by submitting fresh frozen and FFPE solid tumor biopsies to the CTSI Histology core, where certified histotechnicians performed cryosectioning for fresh frozen samples, microtomy for FFPE blocks, and H&E staining for region-of-interest selection.

  • Assisted with IRB approval documentation, which is required before finalizing the Tissue Procurement Agreement (TPA).
  • Coordinated directly with clinical teams, such as pathology and surgery, to seamlessly manage tissue collection workflows and logistics.
  • Ensured that required surgical pathology and research orders were properly entered into EPIC prior to the procedure.

A subset of fresh tumor tissue was enzymatically dissociated and passed through UFCR’s spectral cell sorters. Researchers isolated rare immune cell populations (T-cells and macrophages) while filtering out dead cells and debris to ensure high-viability inputs for sequencing.

  • Assisted the study team with submitting required UFCR intake forms and compliance documentation.
  • Managed the complex scheduling logistics to ensure immediate transition from fresh tissue dissociation to instrument time on the spectral sorters.
  • Scheduled required training sessions on the instruments for lab personnel.

The sorted single cells were run on the 10x Genomics Chromium platform for single-cell RNA sequencing. Simultaneously, the corresponding tissue blocks from Step 1 were cryosectioned directly onto 10x Visium capture slides and were processed using the 10x Visium platform to capture spatially resolved transcriptomes across the tumor boundary.

  • Facilitated early project consultation with the UMGC to determine which spatial technology best met the study's experimental goals.
  • Assisted the research team in completing and submitting the comprehensive Spatialomics Project Intake Form.

To validate the genomic findings at the protein level, consecutive tissue slices were analyzed at the UIC using the Lunaphore COMET platform, allowing the team to perform 40-plex immunofluorescence on a single slide to pinpoint structural immune checkpoints.

  • Coordinated with UIC leadership to arrange instrument training for independent operation, while exploring options for full-service imaging.
  • Helped researchers plan for adaptable panel development by utilizing readily available, off-the-shelf primary antibodies for the COMET system.

Finally, terabytes of sequencing data, spatial coordinates, and high-resolution images were routed to MSI. Using custom cell-segmentation and deconvolution pipelines, biostatisticians mapped the single-cell data back onto the physical tissue space to discover novel cell-to-cell interactions.

  • Connected researchers with MSI biostatisticians early in the process to assist with experimental design and grant support.
  • Assisted the lab in securing the extensive free computing and software resources required to store and process terabytes of spatial data.
  • Identified and connected the team with collaborators in the MSI Research Informatics group for spatially-aware bioinformatics analysis, including cell-type deconvolution and clustering.