Volume 17, Issue 6, Pages (December 2002)

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Volume 17, Issue 6, Pages 823-833 (December 2002) Different Cytokines Induce Surface Lymphotoxin-αβ on IL-7 Receptor-α Cells that Differentially Engender Lymph Nodes and Peyer's Patches  Hisahiro Yoshida, Asuka Naito, Jun-Ichiro Inoue, Mizuho Satoh, Sybil M Santee-Cooper, Carl F Ware, Atsushi Togawa, Satomi Nishikawa, Shin-Ichi Nishikawa  Immunity  Volume 17, Issue 6, Pages 823-833 (December 2002) DOI: 10.1016/S1074-7613(02)00479-X

Figure 1 Visualization of Lymph Node Anlagen Presumptive lymph node regions were detected by whole-mount immunostaining with anti-IL-7Rα antibody. The arrows in (A)–(H) indicate the IL-7Rα+ cells migrated to LN anlagen at mandibular region (A), parathymic region (B), axillary region (C), mesenteric region (D), detected along both inferior and superior mesenteric artery (E), inguinal region (F), and paraaortic region (G). (H) indicates that the position of PP (white arrowheads) and mesenteric LN (arrows) are detectable by the same experiment at once. A schematic picture in the bottom indicates the localization of LN anlagen in relation to the position of major organs and arteries in mouse embryo. Note that the shape and size of the organs, arteries, and LN anlagen are deformed for gaining better orientation. AG, adrenal gland; Ao, aorta; Bl, bladder; Ea, ear bud; FL, fore limb; Ge, genitalia; H, heart; HL, hind limb; In, intestine; Ki, kidney; Li, liver; Lu, lung; Ma, mandible; PP, Peyer's patch; St, stomach; Th, thymus; Ur, ureter; Ut, uterus. Immunity 2002 17, 823-833DOI: (10.1016/S1074-7613(02)00479-X)

Figure 2 Expression of the VCAM-1 in LN Anlagen and Its Absence in LTα−/− Embryos (A) Accumulation of IL-7Rα+ cells in nascent paraaortic LN of a 13.5 dpc embryo. Expression of VCAM-1 (B), CD45 (C), and PECAM-1 (D) in the same region of embryos at 13.5 dpc. Note that VCAM-1 expression was found in the same region where IL-7Rα+ cells accumulated (indicated by white arrows in [A] and [B]). Note that both IL-7Rα+ cells and VCAM-1+ cells are present in the mesenchymal region between the aorta and adjacent large veins. IL-7Rα+ cells migrated into the extravascular region between the artery and vein ([E], arrowheads). (F) IL-7Rα+ cells were also detectable in the paraaortic LN anlagen region of the LTα−/− embryo at 13.5 dpc similar to that of wild-type embryo (A). (G) In LTα−/− embryos, VCAM-1 expression in the region where IL-7Rα+ cells accumulated is not detected (indicated by arrows). The presence of a VCAM-1+ mesenchymal region other than LN anlagen was assessed in (G). AG, adrenal gland; Ao, aorta; Go, gonad; Ki, kidney. Immunity 2002 17, 823-833DOI: (10.1016/S1074-7613(02)00479-X)

Figure 3 IL-7Rα+α4β7+ and VCAM-1+ICAM-1+ Populations in Developing PP and LN Single-cell suspensions were obtained from developing intestine (A and B) or mesentery (C and D) of 17.5 dpc embryos, and the proportion of IL-7Rα+α4β7+ (A and C) and VCAM-1+ICAM-1+ (B and D) populations was measured by flow cytometry. This data is representative of five independent experiments. Immunity 2002 17, 823-833DOI: (10.1016/S1074-7613(02)00479-X)

Figure 4 RANKL and IL-7 Induce LTαβ in IL-7Rα+ Cells IL-7Rα+ cells obtained from the intestine (A) or mesentery (B) of 17.5 dpc wild-type embryos were cultured with IL-6 and SCF for 3 days. By this procedure, LTαβ expression of IL-7Rα+ cells subsided to background levels. The cultured cells were stimulated by various cytokines for 12 hr and LTαβ expression was measured by staining with LTβR-Fc. (C) Expression of RANKL in paraaortic LN anlagen detected by whole-mount immunohistostaining with anti-mouse RANKL. Ki, kidney; AG, adrenal gland; Ao, aorta. Immunity 2002 17, 823-833DOI: (10.1016/S1074-7613(02)00479-X)

Figure 5 Absence of VCAM-1 Expression in LN Anlagen of TRAF6−/− Embryos VCAM-1 expression in PP and LN anlagen of control and TRAF6−/− mice was examined. While the appearance of VCAM-1+ regions is detected in PP anlagen of both control (A) and TRAF6−/− (B) embryos (indicated by arrows), VCAM-1+ cell aggregates that are found in control embryos ([C], arrows) cannot be detected in the TRAF6−/− embryos ([D], arrows). Formation of LN anlagen in TRAF6−/− embryos was visualized by the accumulation of IL-7Rα+ cells ([E], arrows). (F) The above histological observations were confirmed by the flow cytometer analysis of the proportion of IL-7Rα+α4+β7+ cells and VCAM-1+ICAM-1+ cells in developing LN and PP. In the 15.5 dpc embryos, IL-7Rα+α4+β7+ cells are found in both the intestine and mesentery of TRAF6−/− embryos as well as control embryos. While the proportion of IL-7Rα+α4+β7+ cells in the intestine of 17.5 dpc embryos does not differ between control and TRAF6−/− embryos, those in the mesentery of the same embryos are reduced in TRAF6−/− embryos. Reduction of VCAM-1+ICAM-1+ population in TRAF6−/− embryos is more striking. Ki, kidney; Ao, aorta; AG, adrenal gland. Immunity 2002 17, 823-833DOI: (10.1016/S1074-7613(02)00479-X)

Figure 6 RANKL-Specific Impairment of LTαβ Expression in IL-7Rα+ Cells from TRAF6−/− Embryos Single-cell suspensions were prepared from either TRAF6−/− or control embryos and analyzed for surface molecules. IL-7Rα+α4β7+ cells were gated, and LTαβ expression of the gated population was measured by LTβR-Fc. LTαβ expression was comparable between control and knockout mouse IL-7Ra+ cells in the intestine (A and B) but was impaired in the cells harvested from the mesentery of TRAF6−/− mice (D) in contrast with that of control mesentery (C). IL-7Rα+ cells were harvested from the intestine (E and F) or mesentery (G and H) of control and TRAF6−/− mice. Cells were rested in culture for 3 days with IL-6 and SCF to downregulate LTαβ expression prior to treatment with IL-7 or RANKL for 12 hr. Immunity 2002 17, 823-833DOI: (10.1016/S1074-7613(02)00479-X)

Figure 7 Restoration of LN Genesis of TRAF6−/− Mouse by Intraembryonic Injection of IL-7. At 13.5–14.5 dpc, 10 U of IL-7 was injected into fetus through the uterine wall. The fetal tissue was harvested at 17.5 dpc, and the development of LN anlagen was examined by means of anti-VCAM-1 whole-mount immunostaining. Nine out of twelve TRAF6−/− mice injected with IL-7 developed LN-like cell aggregates in the embryonic mesentery. We also prepared control TRAF6−/− mice that were injected with PBS, IL-6, and RANKL to restore LN genesis. None of the TRAF6−/− embryos receiving PBS (four mice), IL-6 (two mice), and RANKL (two mice) developed LN-like cell aggregates. Presented result in (A)–(C) is a representative picture of those independent experiments. VCAM-1 is induced by IL-7 injection in the LN anlagen (B) at the level comparable to the LN anlagen of control embryos (A). Discrete cell aggregates are detected histologically in these LN anlagen (C). Ki, kidney; Ao, aorta. Three litters of IL-7-injected embryos were analyzed 10 days after birth. Only three TRAF6−/− mice among three litters that received IL-7 injection survived up to day 10 after birth. LN-like structures developed in all three mice. A VCAM-1+ LN anlagen from one IL-7 injected control or TRAF6−/− mouse was sectioned and HE stained (D)–(O). (D and F–J) Mesenteric LN from control mice and (E and K–O) those from TRAF6−/− mice rescued by the IL-7 injection. HE staining (D and E), B220 expression (F and K), CD3 expression (G and L), MAdCAM-1 expression (H and M), PNAd expression (I and N), and FDC-M1 expression (J and O). Arrows in (D) and (E) indicate the subcapsular space development. Arrowheads in (E) indicate the mesenchymal cells found only in IL-7-rescued mutant LN. AG, adrenal gland; Ao, aorta; Ki, kidney. Immunity 2002 17, 823-833DOI: (10.1016/S1074-7613(02)00479-X)