Ferroportin1 is required for normal iron cycling in zebrafish
J. Clin. Invest. Paula G. Fraenkel, et al. 115:1532 doi:10.1172/JCI23780 [
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Figure 2Marrow differentials obtained from the kidneys of adult zebrafish at 1 year of age. From each animal, 1 × 10
5 kidney marrow cells were analyzed by FSC and SSC, according to a previously defined method (
48). Representative flow cytometry plots are shown from an iron-injected WT (
A) and a weh
Tp85c–/– (
B) zebrafish. Four major populations were delineated: erythroid (red ellipse), lymphoid/erythroblast (yellow ellipse), myeloid (lilac ellipse), and the most immature precursor cells (blue ellipse). Shown next to each ellipse is the percentage of kidney marrow cells in each gate. (
C) Mean percentages of kidney marrow cells in each of the major cell populations; n = 3–5 per cohort. *P = 0.006; **P < 0.0001 compared with iron-injected WT zebrafish. (
D) Kidney marrow cytospins stained with Wright-Giemsa for iron-injected WT (left) compared with iron-injected weh
Tp85c–/– zebrafish (right). Open arrows indicate erythrocytes, while black arrow indicates 1 of 5 erythroblasts shown in the weh
Tp85c–/– zebrafish photomicrograph. Magnification, ×100. Scale bar: 10 microns.