Shared Resources Laboratories for Stem Cell-Based Modeling
CIRM is supporting a network of 11 shared resources laboratories (SRLs) for stem cell-based modeling. CIRM’s SRLs are core labs open to researchers and educators not only at the host institution but across California, providing access to:
- Expertise and resources for stem cell-based modeling
- Core facilities, specialized services, and equipment
- Training in using stem cell-based models
- Educational resources and activities, including formal techniques courses.
Contact ugrieshammer@cirm.ca.gov if you are interested in learning more about these labs and resources.
Photo Credit: City of Hope
Stem Cell-Based Modeling
This approach uses laboratory-grown stem cells to mimic human tissues or organs for the study of human biology and disease.
Research
- Interested in stem cell-based modeling?
- Need support with your stem cell-based models, their analysis?
- Want access to cutting edge instrumentation?
Training and Education
- Interested in stem cell related courses for your students?
- Need to hone your lab skills in a workshop?
- Want to explore course offerings?
Shared Resources Laboratories — Research Offerings
Visit the SRLs’ websites directly for information on training, services, and usage.
SRL Institution and Program Director | Modeling Expertise Offered | Techniques / Assays Offered | Instruments / Equipment |
Cedars-Sinai-CIRM SRL Arun Sharma | Brain (neurons) Gut Heart (cardiomyocytes) hiPSC-derived 2D cultures hiPSC-derived organoids Organ-on-chip cultures | Bulk RNA-seq Single cell RNA-seq Single nucleus RNA-seq Supply of hiPSC lines | Cell culture equipment Electrophysiology (MEA) Automated microscopy / microplate reader Real-time live cell imaging Size/weight/density measurement of spherical biosamples Microgravity cultures Microscopy – confocal Genetic analysis |
COH-CIRM SRL Nadia Carlesso | Coming soon | ||
Gladstone-CIRM SRL Bruce Conklin | Heart (cardiomyocytes) Sensory neurons hPSC-derived 2D cultures | hiPSC maintenance hiPSC reprogramming Clone picking Cell line banking hiPSC line quality control (QC) Supply of hiPSC lines | Cell culture equipment Liquid handlers Microplate readers High throughput imaging Nucleofection In vitro transcription Nanoparticle formulation and characterization |
Humboldt-CIRM SRL Amy Sprowles | Brain (cortical neurons, organoids, neurospheres) | hPSC maintenance & characterization hiPSC reprogramming & validation Extracellular vesicle sizing and dispensing Cell printing Immunofluorescence Immunoblot Immunoprecipitation | Cell Culture Facilities Cryostat Nucleofector Confocal and Fluorescence Microscopy Flow Cytometry/Cell Sorting Bioprinting Microplate Reader Nanoparticle Sizer and Dispenser |
Lundquist-CIRM SRL Denise Al Alam | Coming soon | hiPSC generation hiPSC genome engineering Single cell analysis | qPCR Flow Cytometry/Cell Sorting Fluorescent Microscopy Electroporation System Metabolism (Seahorse) |
Salk-CIRM SRL Fred Gage | Brain (neurons, astrocytes) hiPSC-derived 2D cultures Directly reprogrammed cells Focus: aging | hiPSC culture and maintenance Direct reprogramming hiPSC derivation hiPSC characterization & quality control (QC) CRISPR genome engineering Supply of disease-specific hiPSC lines, hESCs | Cell culture equipment Real-time live cell imaging Microscopy – confocal Metabolism (Seahorse) Electrophysiology (MEA) |
UC Merced-CIRM SRL Kara McCloskey | Vasculature (progenitor cells, endothelial cells) hiPSC-derived 2D cultures Vascular stem cell-derived 2D cultures On-chip modeling (microvasculature) | hiPSC reprogramming Stem cell characterization Small animal imaging | Cell culture equipment MicroCT scanning Optical imaging PET scanning Fluorescence-activated cell sorting Microscopy – confocal, laser scanning Histology |
UCI-CIRM SRL Craig Walsh | Brain (neurons) hiPSC-derived organoids | CRISPR genome editing Flow cytometry/cell sorting Bioengineering/bioprinting High-dimensional and spatial analysis Human iPSC and CRISPR a/i lines coming soon | Cell culture equipment Imaging mass cytometry (Helios, Hyperion) MACSIMA ultrahigh-content imaging system Flow cytometry and Cell Sorting PALA single cell sorter/dispenser PRIMO micropatterning 3D bioprinting Microscopy – confocal, fluorescent High-dimensional and spatial data analysis |
UCLA-CIRM SRL Kathrin Plath | Brain Skeletal muscle Automated hPSC-derived 2D cultures | hiPSC reprogramming CRISPR genome engineering Genomic integrity testing | Automated cell culture Automated imaging |
UCSB-CIRM SRL Dennis Clegg | Embryo models Brain Retina hPSC-derived organoids Focus: neurodevelopment, neurodegenerative diseases, eye diseases, rare diseases | Spatial transcriptomics Supply of hESC and hiPSC lines Supply of disease-specific and modified lines Supply of Allen lines–(56 hiPSC lines with organelle / structural reporters) | Cell culture equipment Microplate reader Microscopy – confocal, fluorescent Transmission electron microscope Long-term timelapse imaging Flow Cytometry Metabolism (Seahorse) |
USC-CIRM SRL Nils Lindstrom | Brain (cortical forebrain, cerebellum) Kidney hiPSC-derived organoids | hiPSC reprogramming hiPSC characterization & quality control (QC) Organoid protocol optimization CRISPR genome engineering Single cell RNA-seq Single cell ATAC-seq Single nucleus RNA-seq Single nucleus ATAC-seq Spatial transciptomics Computational Genomics and Multiomic Analysis (R, Python, and other Machine Learning Workflows) AI-assisted Predictive Modeling and Analytics Supply of hiPSC lines | Cell culture equipment Electrophysiology (MEA) Microscopy – confocal Real-time live cell imaging 3D Light sheet imaging Flow Cytometry Microplate reader Single Cell and Nuclei Multiomics Spatial Transciptomics DNA/RNA extraction and library prep Image Processing and Analysis |