Copyright
©The Author(s) 2015.
World J Stem Cells. Sep 26, 2015; 7(8): 1090-1108
Published online Sep 26, 2015. doi: 10.4252/wjsc.v7.i8.1090
Published online Sep 26, 2015. doi: 10.4252/wjsc.v7.i8.1090
Cells expressing C3aR | Function of C3aR | Cells expressing C5aR | Function of C5aR |
Neutrophils[244] | Respiratory burst[26], bone marrow retention in vivo[189] | Neutrophils[245] | Respiratory burst[28], chemotaxis[24], enzyme release[127] |
Eosinophils[30] | Chemotaxis[30], in vitro but not in vivo[25] | Eosinophils[246] | Respiratory burst[27], chemotaxis |
Monocytes/macrophages[31] | Chemotaxis[247], cytokine/chemokine production[164] | Monocytes/macrophages | Chemotaxis[104,248], cytokine/chemokine production[164] |
Mast cell | Mediator release[102], chemokine production[249], chemotaxis [100,101] | Mast cell | Mediator release[102], chemokine production[249], chemotaxis[100,101] |
Small fraction of lymphocytes[250,251] | Complex in vivo functions[252] | Small fraction of lymphocytes[251,253] | Complex in vivo functions |
Osteoblasts[155,173,254] | Chemotaxis, accelerated osteogenesis, improved bone healing in vivo[174] | Osteoblasts[97,173] | Chemotaxis[97], accelerated osteogenesis[175], improved bone healing in vivo[174] |
Chondrocytes[172] | Osteogenic differentiation (?) | Chondrocytes[172] | Osteogenic differentiation (?) |
Tenocytes[46] | Not clear | Tenocytes[46] | Not clear |
Smooth muscle cells[51] | Increased mediator release from mast cells[255] | Smooth muscle cells[44,51] | Not clear |
Endothelial cells[52] | Transient ERK and rho activation[52], cytokine production[53] | Endothelial cells[52] | Chemotaxis[52], increased permeability[52] cytokine production[53], proliferation[128] |
Hepatocytes[88] | Protection from apoptosis[88], liver regeneration in vivo[87,88] | Hepatocytes[44] | Proliferation[58], protection from apoptosis liver regeneration in vivo[87,94] |
Renal epithelial cells[256] | Chemokine production[257], EMT under stress conditions[258] | Renal epithelial cells | EMT under stress conditions[259] |
Neurons[193] | Protection from cell death[193,199] | Neurons[194] | Protection from cell death[193-195] |
Astrocytes[260] | Indirect neuroprotection[198], NGF expression[200] | Astrocytes[261] | Cytokine and NGF expression[200,262] |
MSC[61,90] | Chemotaxis[61], protection from apoptosis[61], production of angiogenic factors[91] | MSC[61,90] | Chemotaxis[61], protection from apoptosis[61], production of angiogenic factors[91] |
HSPC[59] | Enhanced effects of SDF-1[263], improved bone marrow engraftment[60,188] | Not expressed | Indirect: decreased mobilization[192]; indirect: improved bone marrow engraftment[191] |
CSPC[182] | Chemotaxis[182], proliferation[182] | CSPS[182], | Chemotaxis[182], proliferation[182] cardiac dysfunction in C5/C5aR -/- mice[180] |
NSPC[2] | Increased neurogenesis[2], chemotaxis and differentiation[89] | NSPC[2] | Increased neurogenesis[2] |
ESC | Not expressed | ESC | Prevents differentiation[168] |
- Citation: Schraufstatter IU, Khaldoyanidi SK, DiScipio RG. Complement activation in the context of stem cells and tissue repair. World J Stem Cells 2015; 7(8): 1090-1108
- URL: https://www.wjgnet.com/1948-0210/full/v7/i8/1090.htm
- DOI: https://dx.doi.org/10.4252/wjsc.v7.i8.1090