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1 We introduced gangliosides expressed on vascular, vascular-associated and inflammatory cells, and their relevance to vascular diseases. And, we introduced functional roles of endogenous or exogenous gangliosides in vascular and vascular-associated cells.
Norihiko Sasaki
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Sasaki, N.; Toyoda, M. Gangliosides in Vascular. Encyclopedia. Available online: https://encyclopedia.pub/entry/193 (accessed on 24 April 2024).
Sasaki N, Toyoda M. Gangliosides in Vascular. Encyclopedia. Available at: https://encyclopedia.pub/entry/193. Accessed April 24, 2024.
Sasaki, Norihiko, Masashi Toyoda. "Gangliosides in Vascular" Encyclopedia, https://encyclopedia.pub/entry/193 (accessed April 24, 2024).
Sasaki, N., & Toyoda, M. (2019, December 30). Gangliosides in Vascular. In Encyclopedia. https://encyclopedia.pub/entry/193
Sasaki, Norihiko and Masashi Toyoda. "Gangliosides in Vascular." Encyclopedia. Web. 30 December, 2019.
Gangliosides in Vascular
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This entry is adapted from the peer-reviewed paper 10.3390/ijms20246362

Vascular diseases, such as myocardial infarction and cerebral infarction, are most commonly caused by atherosclerosis, one of the leading causes of death worldwide. Several types of cells, such as vascular (endothelial cell), vascular-associated (smooth muscle cell and fibroblast) and inflammatory cells, are involved in plaque formation, plaque rupture and thrombus formation, which result in atherosclerosis. Gangliosides, a group of glycosphingolipids, are expressed on the surface of vascular, vascular-associated and inflammatory cells, where they play functional roles. Here we introduce gangliosides expressed on those cells and their relevance to vascular diseases.

ganglioside, vascular diseases

1. Introduction

Blood vessel-constituting cells (ECs, VSMCs, fibroblasts) can be involved in atherosclerosis, leading to vascular diseases. Gangliosides are expressed on these cells (see Table 1) and their relevance to vascular diseases is detailed below.

Table 1. Functional roles of endogenous or exogenous gangliosides in vascular and vascular-associated cells.

Cell Type

Sources

Types of Gangliosides

Functional Roles

References

GM 7373 cells (ECs)

Bovine

GM1

Coreceptor of bFGF

[1]

BAECs

Bovine

GM2, GM1

Inhibition of proliferation

[2]

 

 

GM3

Promotion of proliferation

[2]

HUVECs

Human

GD1a

Enhancement of VEGF-induced signaling, proliferation and migration

[3]

 

 

GM3

Inhibition of VEGF signaling, angiogenesis and adhesion molecules

[4][5]

HAECs

Human

GM1

Association with aging and Inhibition of insulin signaling

[6][7]

VSMCs

Human

GD3

Modulation of proliferation and apoptosis

[8]

VSMCs

Mouse

GD3

Inhibition of PDGF-induced ERK pathway and proliferation

[9]

 

 

GD3

Inhibition of TNFα-induced MMP9 expression

[9]

VSMCs

Rat

GM2, GM1

Activation of ERK pathway and promotion of proliferation

[10]

Fibroblasts (dermal)

 

Human

GM3, GD1a

Promotion of EGF or bFGF stimulated proliferation

[11][12]

 

 

GD3

Activation of autophagic process

[13]

Fibroblasts (embryonic)

Mouse

GM3

Attenuation of FBS stimulated MAPK pathway

[14]

Fibroblasts (heart)

Rat

GM1

Protection from apoptosis caused from protein kinase C inhibition

[15]

Neutrophils

Human

GM1

Association with maturation

[16][17]

 

 

GM1

Decrease at early stage of apoptosis

[18]

HMC-1 (mast cell line)

Human

GM3, GM2, GM1, GD1a

Association with maturation

[19]

Mast cells

Mouse

GM3

Inhibition of IL-3 stimulated proliferation

[20]

RBL-2H3 (mast cell line)

Rat

GD1b

Activation and induction of inflammatory cytokines

[21]

HL-60, U937 (monocyte)

Human

GM3

Induction of cell differentiation

[22]

Raw264.7 (macrophage)

Mouse

GM1

Induction of arginase-1 and MCP-1

[23]

T cells

Human

GM3, GM1

Association with activation

[24]

CD8+ T cells

Human

GM1

Increase with IL-2 stimulation

[25]

CD4+ T cells

Human

GM3, GM1

Downregulation of CD4 expression

[26]

Platelets

Human

GD3

Association with activation

[27][28]

 

 

GM3, GM1

Induction of activation with Ca2+ mobilization and shape change

[29]

 

 

GD2

Induction of apoptosis

[30]

3T3-L1 (adipocyte)

Mouse

GM3

Inhibition of insulin signaling

[31]

2. ECs and Gangliosides

To date, several gangliosides have been reported to be expressed on ECs. In bovine aortic endothelial cells (BAECs), GM3 and GM1 are endogenously expressed[32]. Endogenous cell surface GM1 functions as a coreceptor for basic fibroblast growth factor (bFGF) in transformed fetal bovine aortic endothelial GM 7373 cells [26]. Exogenous addition of GM1 or GM2 inhibits bFGF-induced proliferation of BAECs, whereas GM3 enhances bFGF-induced proliferation[33]. In human umbilical vein endothelial cells (HUVECs), exogenous addition of GD1a enhances vascular endothelial growth factor (VEGF)-induced signaling, involved in proliferation and migration[3]. In contrast, exogenous addition of GM3 inhibits angiogenesis via inhibition of the binding of VEGF to VEGF receptor (VEGFR)-2 and induction of VEGFR dimerization[34]. In addition, Kim et al. reported that exogenous addition of GM3 inhibits VEGF-induced intracellular adhesion molecule-1 (ICAM-1) and vascular cell adhesion molecule-1 expression, leading to reduced monocyte adhesion to HUVECs[35] Furthermore, they showed that pre-injection of GM3 in mice inhibits VEGF- and VEGF/tumor necrosis factor alpha (TNFα)-induced expression of adhesion molecules in vein tissues[35]. In human aortic endothelial cells (HAECs), a-series gangliosides GM1 and GD1a and b-series gangliosides are expressed on the cell surface[36]. To identify the specific gangliosides contributing to EC dysfunction in aging, we investigated the effects of changes in individual cell surface gangliosides in HAECs. We found that GM1 expression increases with cellular senescence on the cell surface of HAECs. Increased GM1 levels do not affect the induction of cellular senescence. On the other hand, they lead to a decrease in insulin signaling related to reduced nitric oxide (NO) production. In addition, GM1 expression is high in HAECs derived from elderly people, suggesting its involvement not only in cellular senescence, but also in the decrease in endothelial function that accompanies aging. These results show that GM1 is involved in endothelial function during cellular senescence and aging and is closely linked to vascular disease[37][36].

Vascular insulin resistance induced by inflammatory cytokines is associated with the initiation and development of vascular diseases. In humans, circulating TNFα levels increase with aging[38], suggesting a correlation between vascular insulin resistance and plasma TNFα levels. We showed in HAECs stimulated with TNFα that GM1 expression levels on cell membranes change depending on time of exposure and concentration of TNFα and are associated with the regulation of the insulin signaling cascade[39]. These results suggest that cell surface GM1 is a key player in the induction of vascular insulin resistance mediated by TNFα during inflammation. Thus, GM1 has great potential as an EC extracellular target for prevention and cure of vascular diseases[37].

Numerous studies have demonstrated that ECs are capable of undergoing EndMT, a newly recognized type of cellular trans-differentiation[40][41]. EndMT-derived cells have typical mesenchymal morphology and functions, such as acquisition of movement ability and contractile properties. EndMT is considered to participate in the pathogenesis of several cardiovascular diseases. However, to date, no report is available on the involvement of gangliosides in EndMT. Epithelial cells can undergo a process called epithelial-mesenchymal transition (EMT), which is similar to EndMT. In the human epithelial lens cell line HLE-B3, TGF-β1, one of the EMT up-regulators induces higher expression of GM3. In turn, interaction of GM3 with the TGF-β−receptor promotes EMT[42]. Among breast cancer stem cells, a small portion of cells exhibits co-expression of ganglioside GD2 and CD44high/CD24low. GD2 expression is associated with EMT induction[43]. Based on these findings, the contribution of gangliosides to EndMT could be at least speculated. Future studies are needed to clarify the relationship between gangliosides and EndMT and thus, aid the development of novel prevention and therapeutic strategies for vascular diseases.

3. VSMCs and Gangliosides

VSMC proliferation is associated with the development and progression of cardiovascular diseases. GD3 has a dual role in modulating proliferation and apoptosis of VSMCs[8], and increased levels of GD3 are known to be associated with atherosclerosis [61]. Overexpression of GD3 attenuates platelet-derived growth factor (PDGF)-induced activation of the extracellular signal-regulated kinase (ERK) pathway and suppresses the proliferation of mouse VSMCs[9]. Furthermore, overexpression of GD3 leads to inhibition of TNFα-induced MMP-9, which is implicated in the progression of atherosclerotic lesions[44]. In addition, several studies have shown the accumulation of GM3 in atherosclerotic lesions[45]. A study carried in mouse VSMCs has shown that TNFα-induced proliferation and induction of MMP-9 are inhibited upon GM3 overexpression. In this study, treatment with anti-GM3 antibodies reversed the inhibitory effects of GM3, indicating that GM3 controls VSMC proliferation and migration during the formation of atherosclerotic lesions [64]. In contrast, in rat aortic VSMCs, exogenous addition of GM1 and GM2, but not GM3, induces activation of the ERK pathway and promotes VSMC proliferation[10].

VSMCs are not terminally differentiated and can change their phenotype in response to environmental cues, such as growth factors/inhibitors, mechanical influences, cell–cell and cell–matrix interactions, extracellular lipids and lipoproteins, and various inflammatory mediators present in the injured artery wall[46]. Dedifferentiation of VSMCs into macrophage-like cells can be promoted by activation of Krüppel-like factor 4, which is one of the pluripotency transcription factors controlled by PDGF-BB signaling[47][48]. In the neuroblastoma cell line SH-SY5Y, exogenous addition of GM1, GM2, GD1a or GT1b inhibits phosphorylation of the PDGF receptor (PDGFR), resulting in suppressed cell growth, whereas growth inhibition mediated by exogenous GM3 acts downstream of PDGF signal transduction[49]. In Swiss 3T3 cells, overexpression of GM1 by transfection of β4GalNAcT1 and β3GalT4 inhibits PDGF-BB-stimulated growth due to PDGFR dispersion from lipid rafts[50]. Furthermore, exogenous addition of GM1 promotes the osteogenic differentiation of human tendon stem cells via reduction of PDGFR phosphorylation[51]. On the other hand, the contribution of gangliosides to PDGF-BB signaling in VSMCs still has to be clarified, but it could be speculated from the reports cited above that gangliosides are involved in PDGF-BB signaling-mediated dedifferentiation of VSMCs.

4. Fibroblasts and Gangliosides

In human fibroblasts derived from fetal lung, GM3 and GD3 are the most commonly expressed gangliosides and their expression decreases in long-term cultures, in which cells undergo senescence[52]. Exogenous GM3 and GD1a promote epithelial growth factor (EGF)- or bFGF-stimulated proliferation of normal human dermal fibroblasts[11]. Additionally, GM3 synthase-deficient skin-derived human fibroblasts exhibit reduction of EGF-stimulated proliferation and migration[12]. In contrast, embryonic fibroblasts derived from GM3 synthase knock-out mice exhibited higher growth potential than wild-type cells due to suppression of the MAPK pathway[14]. GD3 is a structural component of the autophagosome and exogenous administration of GD3 activates autophagy in normal human skin-derived fibroblasts[13]. In rat heart fibroblasts, exogenous GM1 protects from apoptosis through induction of the synthesis of sphingosine 1-phosphate[15]. Despite the functional role of gangliosides in fibroblasts has been demonstrated, the specific type of gangliosides and organs from which fibroblasts originate need to be taken into account. In fact, different organ-derived fibroblasts, such as skin- and oral-derived fibroblasts, exhibit different levels of hyaluronic acid and different growth responses upon TGF-β1 stimulation[53]. Therefore, further functional investigation of gangliosides (particularly in heart-derived fibroblasts) is required to clarify their contribution to cardiovascular diseases.

During atheromatous plaque formation, myofibroblasts differentiated from fibroblasts elicit collagen deposition and neointimal expansion in the intima. TGF-β1 signaling is known to regulate myofibroblast differentiation[54]. As described above, GM3 and GD2 contribute to TGF-β1 signaling [59,60]. In addition, raft GM1 is important for TGF-β1-stimulated myofibroblast differentiation in human skin-derived fibroblasts[55]. To date, the direct contribution of gangliosides to myofibroblast differentiation has not been clarified. Therefore, further studies are required, although it can be speculated that gangliosides GM3, GM1 and GD2 are involved in myofibroblast differentiation.

5. Inflammatory Cells and Gangliosides

In human neutrophils, expression of GSLs is heterogeneous and complex ganglioside mixtures, including GM1 and GM3, exist[16]. Mature neutrophils express the highest levels of GM1[16][17]. Furthermore, when cells undergo apoptosis, expression of GM1 at the cell surface is lost at an early stage. Thus, GM1 is considered a marker for detection of aged neutrophils[18].

It is well known that GD3 is the most abundantly expressed ganglioside on the surface of almost all mast cells[56]. It has also been shown that elevated expression levels of GM3, GM2, GM1 and GD1a can be observed during maturation of the human mast cell line HMC-1[19] and that exogenous GM3 inhibits interleukin (IL)-3-stimulated cell proliferation of bone marrow-derived mouse mast cells[20]. In addition, it has been reported that cross-linking of GD1b-derived gangliosides activates RBL-2H3, a rat mast cell line, leading to the release of inflammatory cytokines, such as IL-4, IL-6 and TNFα[21].

Monocytes and macrophages express high levels of GM3 in both humans and mice[57]. Cultured human macrophages yield about seven times the amount of GM3 (per million cells) of peripheral blood monocytes[58]. In the human pre-myeloid leukemia cell line HL-60 and histiocytic lymphoma cell line U937, exogenous GM3 induces monocytic cell differentiation and notably, GM3 increase during macrophage-like cell differentiation[22]. GM3 synthase levels are significantly higher in human monocyte-derived macrophages than in monocytes and GM3 has been considered as a physiological modulator of macrophage differentiation in human atherosclerotic aorta[59]. In bone marrow-derived macrophages, peritoneal macrophages and the Raw264.7 macrophage cell line, exogenous GM1 contributes to the induction of arginase-1, a major M2 macrophage marker, and to the secretion of monocyte chemoattractant protein-1 (MCP-1) through CD206-mediated activation of signal transducer and activator of transcription (STAT) 6[23].

Human T cells express both GM3 and GM1, which are clustered in lipid rafts and considered to be involved in T cell activation[24]. Furthermore, other gangliosides (GD1a, GD1b, GT1b, etc.) have been detected at minor levels in human T cells[60][61]. It has been demonstrated that GM1 expression is upregulated in human CD8+ T cells upon IL-2 stimulation[25]. In human CD4+ T cells, exogenous GM3 and GM1 downregulate the cell surface expression of CD4, inhibiting lymphocyte function-associated antigen-1-dependent adhesion[26]. In murine T cells, GM3, GM1, GD1b and GD3 are expressed similarly to human T cells. Murine CD4+ T cells express higher levels of ST3GAL5 than CD8+ T cells to synthesize a- and b-series gangliosides (GM1 and GD1b). In contrast, murine CD8+ T cells express more B4galnt1, resulting in higher levels of o-series gangliosides[62].

Taken together, these data show that gangliosides in inflammatory cells are prominently involved in atherosclerosis.

6. Other Types of Cells and Gangliosides

In human platelets, GM3 is major ganglioside and GD3 is synthesized after activation[27]. Additionally, exogenous GM3 and GM1 induce the activation of human platelets, resulting in Ca2+ mobilization and shape change[29]. GD3 selectively stimulates human platelet adhesion, spreading and aggregation[28]. Kim et al. showed that exogenous GD2 induces apoptosis in human platelets by cross-linking Siglec-7[30].

In 3T3-L1 mouse adipocytes, increased expression of GM3 upon TNFα stimulation induces insulin resistance through interaction between GM3 and the insulin receptor[31]. Furthermore, GM3 expression is elevated upon inflammatory conditions in primary mouse adipocytes and adipose tissues[63]. Insulin resistance in mouse adipocytes causes the production of MCP-1, which recruits monocytes and activates proinflammatory macrophages[64].

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Subjects: Pathology
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Norihiko Sasaki
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Masashi Toyoda
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