Topic | Title | Expert | Institute | Link | Year |
NIDDK Resources 2020 | Cindy Roy | NIDDK | Link | 2020 |
Hematopoiesis | |||||
Mouse Hematopoiesis | Unraveling the effects of prenatal inflammation on developmental hematopoiesis | Anna Beaudin, PhD* | University of Utah School of Medicine | Link | 2022 |
Mouse Hematopoiesis | Lineages, clones and function in the hematopoietic system | Fernando Camargo, PhD | Harvard/Boston Childrens | Link | 2021 |
Mouse Hematopoiesis | Functional screens in hematopoiesis | Jun Lu, PhD* | Yale School of Medicine | Link | 2021 |
Mouse Hematopoiesis | The single cell characterization and procurement core at CCHMC: a 3D view of the hematopoietic system | Marie-Dominique Filippi, PhD | Cincinnati Childrens Hospital | Link | 2021 |
Xenotransplantation Humanized Mouse | Humanized Mouse Models for the Study of Hematopoiesis in Health and Disease | Stephanie Halene, MD, PhD | Yale School of Medicine | Link | 2022 |
Erythroblastic Island | The role of EKLF/KLF1 in the erythroblastic island niche during mouse development | James Bieker, PhD | Mount Sinai School of Medicine | Link | 2023 |
Stress-stem cells | Hematopoietic stem cell differentiation under stress | Daisuke Nakada, PhD | Baylor College of Medicine | Link | 2023 |
Regeneration | Polarity dependent mechanisms of hematopoietic regeneration | Jose Cancelas Perez, MD, PhD | Cincinnati Childrens Hospital | Link | 2021 |
Mouse Hematopoiesis | Immune development | Anna Beaudin, PhD | University of Utah School of Medicine | Link | 2020 |
Human Erythropoiesis | Normal and Disordered Human Erythropoiesis | Mohandas Narla, MD | New York Blood Center | Link | 2022 |
Human Hematopoiesis | What human genetic variation can teach us about hematopoiesis | Vijay Sankaran, MD, PhD | Harvard/Boston Childrens | Link | 2022 |
Sickle Cell | Macrophage metabolic rewiring improves heme-suppressed efferocytosis and tissue damage in sickle cell disease | Francesca Vinchi, PhD* | New York Blood Center | Link | 2023 |
Erythroid Metabolomics | Metabolomics of the erythrocyte | James Cox, PhD. | University of Utah School of Medicine | Link | |
Hemoglobinopathies | Hemoglobinopathies, challenges and therapeutic approaches | Stefano Rivella, PhD | Childrens Hospital of Philadelphia | Link | 2022 |
Congenital Sideroblastic | Congenital sideroblastic anemia: iron and heme lost in (mitochondrial translation) | Mark D Fleming, MD, Dphil | Boston Children’s Hospital | Link | 2021 |
Transcriptional regulation | Cis-regulatory clues reveal new mechanism promoting cellular regeneration in anemia | Kyle Hewitt, PhD* | University of Nebraska Medical Center | Link | 2023 |
Canine Hematopoiesis | Canine models for hemtopoietic disease and transplantation | Brian Hayes, PhD | Fred Hutchinson Cancer Research Center | Link | 2023 |
Mouse Hematopoiesis | Myeloid lineage specification mechanisms at the top of the hematopoiesis Hierarchy Yoona Kang | Yoona Kang | Washington University in St. Louis | Link | 2024 |
Mouse Hematopoiesis | Transcriptional regulation of mesodermal lineage canalization | Dean Tantin | University of Utah School of Medicine | Link | 2024 |
* CCHE Funded |
Iron Metabolism | |||||
Fe-S clusters | Biogenesis of iron-sulfur proteins in eukaryotes: mitochondria, mitosomes, mechanisms and maladies | Roland Lill, PhD | University of Marburg | Link | 2022 |
Iron homeostasis | The role of prodomains in regulating BMP2, BMP6 and Bmp2/6 ligand activity to maintain iron homeostasis | Jan Christian, PhD* | University of Utah School of Medicine | Link | 2021 |
Iron homeostasis | New insights into hepcidin regulation and systemic iron homeostasis | Jodie Babitt, MD* | Harvard/Mass General Hosp | Link | 2022 |
Ion Channel | A role of mechanosensitive ion channel PIEZO1 in iron metabolism | Shang Ma, PhD | Scripps Institute | Link | 2021 |
ZIP14 | ZIP14 (SLC39A14) as a potential therapeutic target in the treatment of iron overload | Mitch Knutson, PhD | University of Florida | Link | 2021 |
Macrophages in adipose tissue | Macrophages as ferrostats in adipose tissue | Alyssa Hasty, PhD | Vanderbilt University | Link | 2021 |
Lysosomes and Iron | Understanding how cells cope with lysosome-mediated iron deficiency | Adam Hughes, PhD* | University of Utah School of Medicine | Link | 2022 |
Iron deficiency COPD | Iron deficiency in the alveolar epithelium: implications for chronic respiratory disease | Suzanne Cloonan, PhD | Trinity College | Link | 2022 |
Parasite Iron homeostasis | Fifty shades of iron: adaptive organelle metabolism in malaria parasites | Paul Sigala, PhD* | University of Utah School of Medicine | Link | 2022 |
Metabolic insights | Metabolic insights into iron homeostasis | Yatrik Shah, PhD | University of Michigan | Link | 2023 |
Fe-S biogenesis in Parasites | Divergent Acyl carrier protein mediates mitochondrial Fe-S cluster biosynthesis in malaria parasites | Seyi Falekun, graduate student | University of Utah School of Medicine | Link | 2021 |
Cytosolic Iron Chaperone | Mischief Managed: chaperoning iron in the cytosol | Caroline Philpott, MD | NIDDK, Genetics and Metabolism Section | Link | 2020 |
Kidney Iron | Iron, Cystitis, Pyelonephritis | Jonathan Barasch, MD | Columbia University | Link | 2020 |
Erythroferrone | Erythropoiesis regulates hepcidin | Tomas Ganz, MD | UCLA | Link | 2020 |
Diabetes | Diabetes and iron: Can’t live with it, can’t live without it | Don McClain, MD, PhD | Wake Forest University | Link | 2020 |
Pregnancy and Iron | Iron pathobiology in pregnancy | Ella Nemeth, PhD | UCLA | Link | 2020 |
Mouse Hematopoiesis | Role of iron sulfur proteins in mammalian cells and viral infections | Tracey Rouault | NICHD, NIH | Link | 2024 |
* CCHE Funded |
Heme metabolism | |||||
Porphyria | Murine models for studies of porphyrias and hepatic heme homeostatic mechanisms | Makiko Yasuda, MD, PhD* | Mount Sinai School of Medicine | 2022 | |
Erythroid protoporphyria | Factors modifying the severity of erythroid protoporphyria | Sarah Ducamp, PhD* | Boston Children’s Hospital | Link | 2022 |
Iron and Heme | Iron and Heme core update | Hector Bergonia, MS | University of Utah School of Medicine | Link | 2021 |
Heme trafficking | Illuminating heme trafficking and signaling in health and disease | Amit Reddi, PhD* | Georgia Tech | Link | 2022 |
Heme biosynthesis | Heme biosynthesis and distribution: complexity and intersections | Amy Medlock, PhD* | University of Georgia | Link | 2022 |
Iron and Heme Core | Iron and Heme Core facilitates research into heme biosynthesis and iron metabolism | Laurie Jackson, PhD | University of Utah School of Medicine | Link | 2021 |
Iron and Heme Core | Iron and Heme Core facilitates research into heme biosynthesis and iron metabolism | Laurie Jackson, PhD | University of Utah School of Medicine | Link | 2020 |
Mitochondrial heme | Regulation of mitochondrial heme metabolism in erythroid cells | Yvette Yien, PhD | University of Delaware/Pittsburg | Link | 2021 |
Heme Trafficking | Heme trafficking, use and toxicity during red cell differentiation | Jan Abkowitz, MD | University of Washington | Link | 2021 |
Heme trafficking | Identification of an intracellular heme trafficking protein | Caiyong Chen, PhD | Zhejiang University | Link | 2023 |
* CCHE Funded |
Mutagenesis | |||||
CRISPR in mice | Advanced services for the rapid and precise generation of genetically modified mice using CRISPR technology | Crystal Davey, PhD | University of Utah School of Medicine | Link | 2023 |
Mutation Generation Detection | Mutation Generation and Detection Core Services | Crystal Davey, PhD | University of Utah School of Medicine | Link | 2020 |
Microscopy | |||||
Foundations of Microscopy | Optical foundations of taking high quality images with your microscope | Joerg Bewersdorf, PhD | Yale School of Medicine | Link | 2022 |
Intravital Microscopy | Intravital Microscopy | Kenn Dunn, PhD | Indiana University School of Medicine | Link | 2022 |
Confocal Microscopy | Introduction to Confocal Microscopy | Joerg Bewersdorf, PhD | Yale School of Medicine | Link | 2022 |
CODEX Microscopy | CODEX multiplexed tissue cytometry | Kenn Dunn, PhD | Indiana University School of Medicine | Link | |
Super Resolution Microscopy | Super-resolution microscopy and its biomedical application | Joerg Bewersdorf, PhD | Yale School of Medicine | Link | 2022 |
Cell Cycle Microscopy | Reading live cell cycle speed by fluorescence microscopy | Shangqin Guo, PhD* | Yale School of Medicine | Link | 2022 |
Imaging – Hematopoiesis | Applying Codex technology for the examination of architectural relationships in the hematopoietic niche | Edward Srour, PhD | Indiana University School of Medicine | Link | 2021 |
3D Visualization – Imaris | An introduction into 3D visualization with Imaris software package | Marie-Dominique Filippi, PhD | Cincinnati Childrens Hospital | Link | 2023 |
Long term imaging | Long term live cell imaging | Shangqin Guo, PhD* | Yale School of Medicine | Link | 2023 |
Vanessa Scanlon, PhD | UConn Health School of Dental Medicine | ||||
Light Sheet Microscopy | Light Sheet microscopy | Kenn Dunn, PhD | Indiana University School of Medicine | Link | 2023 |
Bone marrow imaging | Bone marrow imagine and hematopoietic cell mapping | Daniel Lucas, PhD | Cincinnati Childrens Hospital | Link | 2023 |
* CCHE Funded |
Flow Cytometry | |||||
Basics | Flow cytometry basics and applications | Pratibha Singh, PhD | Indiana University School of Medicine | Link | 2023 |
Panel Design | The art of Flow cytometry panel design and compensation | Pratibha Singh, PhD | Indiana University School of Medicine | Link | 2023 |
Sample Prep | Flow cytometry sample preparation and staining | Pratibha Singh, PhD | Indiana University School of Medicine | Link | 2023 |
Flow in Hematology | Multiparameter Flow Cytometry in hematology and immunology | Annie Song, PhD | Cincinnati Childrens Hospital | Link | 2023 |
Acquisition and Analysis | Flow cytometry sample acquisition and data analysis | Pratibha Singh, PhD | Indiana University School of Medicine | Link | 2023 |
Flow staining and sorting | Enriching Rare Populations of Human CD34 Cells by FACS | Vanessa Scanlon, PhD | Uconn/Yale School of Medicine | Link | 2023 |
Metabolism | |||||
Protein Metabolite Interactions | MIDAS core update | Kevin Hicks, PhD | University of Utah School of Medicine | Link | 2021 |
Metabolomics | Metabolomics core update | James Cox, PhD | University of Utah School of Medicine | Link | 2021 |
Protein Metabolite Updates | Technological innovations of the protein-metabolite discovery core: membrane protein targeting and endogenous metabolome screening | Kevin Hicks, PhD | University of Utah School of Medicine | Link | 2023 |
Metabolomics | Metabolomics at the University of Utah | James Cox, PhD | University of Utah School of Medicine | Link | 2022 |
Lipidomics | Lipidomics at the University of Utah | James Cox, PhD | University of Utah School of Medicine | Link | 2022 |
Data analysis | |||||
Large Data set analysis | ToppCell: A versatile data portal for exploring single cell datasets and the genomic biology of cells and tissues | Bruce Aronow, PhD | Cincinnati Childrens Hospital | Link | 2021 |
Enrichment | |||||
Enrichment Education | Enriching the future | Beverly Torok-Storb, PhD | Fred Hutchinson Cancer Research Center | Link | 2022 |
Honoring Hal Broxmeyer | Honoring Hal Broxmeyer: His past, present and future contributions to the field of experimental hematology | Maegan Capitano, PhD | Indiana University School of Medicine | Link | 2022 |
Single Cell Data Analysis | |||||
Part 1 | Analysis and Interpretation of single cells sequencing data – part 1 Introduction and alignment | Toma Tebaldi PhD | Yale School of Medicine | Link | |
Part 2 | Analysis and Interpretation of single cells sequencing data – part 2 | Toma Tebaldi PhD | Yale School of Medicine | Link | |
Part 3 | Analysis and Interpretation of single cells sequencing data – part 3 Key Analysis Steps | Toma Tebaldi PhD | Yale School of Medicine | Link | |
Part 4 | Analysis and Interpretation of single cells sequencing data – part 4 Multiple Test Correction | Toma Tebaldi PhD | Yale School of Medicine | Link |