Disease Models & MechanismsDevelopmental BiologyPeer-reviewed journal article
Generation of Mouse-Zebrafish Hematopoietic Tissue Chimeric Embryos for Hematopoiesis and Host-Pathogen Interaction Studies
Margarita Parada-Kusz, Anne E. ClatworthyiD, Elliott J. HagedorniD, Cristina PeñarandaiD, Anil V. NairiD, Jonathan E. HenningeriD, Christoph M. ErnstiD, Brian LiiD, Raquel Riquelme, Humberto B. JijoniD, Eduardo J. VillablancaiD, Leonard Ira ZoniD, Deborah Tan HungiD, Miguel L. AllendeiD
Abstract
Xenografts of the hematopoietic system are extremely useful as disease models and for translational research. Zebrafish xenografts have been widely used to monitor blood cancer cell dissemination and homing due to the optical clarity of embryos and larvae, which allow unrestricted in vivo visualization of migratory events. To broaden the scope of xenotransplantation studies in zebrafish, we have developed a technique that transiently generates hematopoietic tissue chimeras by transplanting murine bone marrow cells into zebrafish blastulae. This procedure leads to mammalian cell integration into the fish developmental hematopoietic program. Monitoring zebrafish chimeras at different time points post fertilization using in vivo time-lapse and confocal imaging showed murine cell co-localization with developing primitive and definitive hematopoietic tissues, intravasation into fish circulation, and dynamic hematopoietic cell-vascular endothelial and hematopoietic cell-niche interactions. Immunohistochemistry assays performed in chimeric animals showed that, after engraftment, murine cells expressed antigens related to i) hematopoietic stem and progenitor cells, ii) active cell proliferation, and iii) myeloid cell lineages. Lastly, xenografted zebrafish larvae infected with Klebsiella pneumoniae showed murine immune cells trafficking to bacterial foci and interacting with bacterial cells. Overall, these results show that mammalian bone marrow cells xenografted in zebrafish integrate into the host hematopoietic system revealing highly conserved molecular mechanisms of hematopoiesis between zebrafish and mammals. In addition, this procedure introduces a useful and simple method that improves and broadens the scope of hematopoietic tissue xenotransplantation studies in zebrafish.
- organism: mouse
- organism: zebrafish
- assay: spatial transcriptomics
- research focus: cell type annotation
- research focus: cell-cell communication
- approach: experimental assay
- Citations
- 20
- FWCI
- 2.21
- Field percentile
- top 14%
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