Faculty Opinions recommendation of Immobilized chemokine fields and soluble chemokine gradients cooperatively shape migration patterns of dendritic cells.

Author(s):  
Steve Ward
Author(s):  
Meng Feng ◽  
Shuping Zhou ◽  
Yong Yu ◽  
Qinghong Su ◽  
Xiaofan Li ◽  
...  

Dendritic cells (DCs), a class of antigen-presenting cells, are widely present in tissues and apparatuses of the body, and their ability to migrate is key for the initiation of immune activation and tolerogenic immune responses. The importance of DCs migration for their differentiation, phenotypic states, and immunologic functions has attracted widespread attention. In this review, we discussed and compared the chemokines, membrane molecules, and migration patterns of conventional DCs, plasmocytoid DCs, and recently proposed DC subgroups. We also review the promoters and inhibitors that affect DCs migration, including the hypoxia microenvironment, tumor microenvironment, inflammatory factors, and pathogenic microorganisms. Further understanding of the migration mechanisms and regulatory factors of DC subgroups provides new insights for the treatment of diseases, such as infection, tumors, and vaccine preparation.


2005 ◽  
Vol 35 (5) ◽  
pp. 1418-1427 ◽  
Author(s):  
Diane Bimczok ◽  
Eveline N. Sowa ◽  
Heidrun Faber-Zuschratter ◽  
Reinhard Pabst ◽  
Hermann-Josef Rothkötter

1988 ◽  
Vol 167 (2) ◽  
pp. 646-651 ◽  
Author(s):  
J M Austyn ◽  
J W Kupiec-Weglinski ◽  
D F Hankins ◽  
P J Morris

Using quantitative techniques we have shown elsewhere that dendritic cells (DC) migrate from blood into the spleen, under the control of T cells. Here we traced the localization of DC within the spleen and sought to explain the means by which they entered. DC were labeled with a fluorochrome, Hoescht 33342, and injected intravenously. Spleens were removed 3 or 24 h later and DC were visualized within particular areas that were defined by mAbs and FITC anti-Igs. At 3 h most DC were in the red pulp, whereas by 24 h the majority had homed to T-dependent areas of the white pulp and may have become interdigitating cells. Lymphoid DC, isolated from spleen and perhaps normally present in blood, may thus be a migratory stage distinct from the relatively fixed interdigitating cells. We also developed a frozen section assay to investigate the interaction of DC with various lymphoid elements. When DC were incubated on sections of spleen, at 37 degrees C but not at 4 degrees C they attached specifically within the marginal zone and did not bind to T areas; in contrast, macrophages attached only to red pulp and T cells did not bind specifically. However, DC did not bind to sections of mesenteric lymph node, whereas T cells localized in particular regions at 4 degrees C but not at 37 degrees C, probably the high endothelial venules. DC may thus express "homing receptors," similar to those of T cells, for certain endothelia. We propose that T cells can modify the vascular endothelium in certain areas to allow egress of DC from the bloodstream.


Immunity ◽  
2010 ◽  
Vol 32 (5) ◽  
pp. 703-713 ◽  
Author(s):  
Kathrin Schumann ◽  
Tim Lämmermann ◽  
Markus Bruckner ◽  
Daniel F. Legler ◽  
Julien Polleux ◽  
...  

1991 ◽  
Vol 133 (2) ◽  
pp. 390-407 ◽  
Author(s):  
Soji F. Oluwole ◽  
Kris Engelstad ◽  
Carolyn De Rosa ◽  
Theodore S.T. Wang ◽  
Rashid A. Fawwaz ◽  
...  

1988 ◽  
Vol 167 (2) ◽  
pp. 632-645 ◽  
Author(s):  
J W Kupiec-Weglinski ◽  
J M Austyn ◽  
P J Morris

Dendritic cells (DC) are critical accessory cells for primary immune responses and they may be important stimulators of transplantation reactions, but little is known of their traffic into the tissues. We have studied the migration of purified splenic DC and T lymphocytes, labeled with 111Indium-tropolone, in syngeneic and allogeneic mice. First we demonstrate that DC can migrate from the blood into some lymphoid and nonlymphoid tissues. Immediately after intravenous administration, radio-labeled DC were sequestered in the lungs, but they actively migrated into the liver and spleen and reached equilibrium levels between 3 and 24 h after transfer. At least half of the radiolabel accumulated in the liver, but the spleen was the principal site of DC localization in terms of specific activity (radiolabel per weight of tissue). DC were unable to enter Peyer's patches, or mesenteric and other peripheral lymph nodes from the bloodstream. This was also true in splenectomized recipients, where the otherwise spleen-seeking DC were quantitatively diverted to the liver. In contrast, T cells homed readily to the spleen and lymph nodes of normal mice and increased numbers were present in these tissues in splenectomized mice. Thus, unlike T cells, DC cannot recirculate from blood to lymph via the nodes. We then show that migration of DC from the blood into the spleen is dependent on the presence of T cells: DC did not enter the spleens of nude mice, but when they were reconstituted with T cells the numbers entering the spleen resembled those in euthymic mice. In nude mice, as in splenectomized recipients, the DC that would normally enter the spleen were quantitatively diverted to the liver. These findings suggest that there is a spleen-liver equilibrium for DC, that may be akin to that existing between spleen and lymph node for T cells. Finally, we followed the traffic of radiolabeled DC via the afferent lymphatics after subcutaneous footpad inoculation. DC accumulated in the popliteal nodes but did not migrate further to the inguinal nodes. There was no difference between euthymic and nude mice, showing that unlike traffic to the spleen, this route probably does not require T cells. These migration patterns were not affected by major histocompatibility barriers, and were only seen with viable, but not glutaraldehyde-fixed, DC.(ABSTRACT TRUNCATED AT 400 WORDS)


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