The Immunomodulatory Potential of Wharton’s Jelly Mesenchymal Stem/Stromal Cells

Vieira Paladino, Fernanda; de Moraes Rodrigues, Juliana; da Silva, Aline; Goldberg, Anna Carla

doi:https://doi.org/10.1155/2019/3548917

Stem Cells International

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Improving the Therapeutic Ability of Mesenchymal Stem/Stromal Cells for the Treatment of Conditions Influenced by Immune Cells

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Review Article | Open Access

Volume 2019 | Article ID 3548917 | https://doi.org/10.1155/2019/3548917

The Immunomodulatory Potential of Wharton’s Jelly Mesenchymal Stem/Stromal Cells

Fernanda Vieira Paladino,^1,2Juliana de Moraes Rodrigues,¹Aline da Silva,¹and Anna Carla Goldberg^1,2,3

Guest Editor: Melissa Medeiros Markoski

Received17 Jan 2019

Revised01 Apr 2019

Accepted22 May 2019

Published11 Jun 2019

Abstract

The benefits attributed to mesenchymal stem/stromal cells (MSC) in cell therapy applications are mainly attributed to the secretion of factors, which exhibit immunomodulatory and anti-inflammatory effects and stimulate angiogenesis. Despite the desirable features such as high proliferation levels, multipotency, and immune response regulation, there are important variables that must be considered. Although presenting similar morphological aspects, MSC collected from different tissues can form heterogeneous cellular populations and, therefore, manifest functional differences. Thus, the source of MSC should be a factor to be considered in the development of novel therapies. The following text presents an updated review of recent research outcomes related to Wharton’s jelly mesenchymal stem/stromal cells (WJ-MSC), harvested from umbilical cords and considered novel and potential candidates for the development of cell-based approaches. This text highlights information on how WJ-MSC affect immune responses in comparison with other sources of MSC.

1. Introduction

Mesenchymal stem/stromal cells (MSC) are increasingly viewed as sources of cell therapy applications due to their known immunomodulatory and anti-inflammatory effects and capacity to stimulate angiogenesis. Despite the desirable features such as high proliferation levels, multipotency, and immune response regulation, there are important variables that must be considered. Although presenting similar morphological aspects, MSC collected from different tissues can form heterogeneous cellular populations and also manifest tissue-specific functional differences. Thus, the source of MSC should be a factor to be considered in the development of novel therapies. The following text presents an updated review of recent research outcomes related to Wharton’s jelly mesenchymal stem/stromal cells (WJ-MSC), harvested from umbilical cords and considered novel and potential candidates for the development of cell-based therapies. This text highlights information on how WJ-MSC affect immune responses in comparison with other sources of MSC. Some of the challenges to be addressed in order to overcome hurdles associated with the therapeutic application of these cells are also included.

2. The Umbilical Cord Is the Source of Wharton’s Jelly

Wharton’s jelly (WJ) can be generally described as the mucoid connective tissue that encloses the three umbilical vessels, one vein and 2 arteries, being surrounded by a single layer of amniotic epithelial cells, which constitute the human umbilical cord [1]. Recently, the ongoing interest in umbilical cords as a useful source of MSC encouraged further investigation on these tissue structures. WJ is currently divided into three main zones based on their histological appearance: (a) the subamnion with a sparse population of fibroblast-like cells; (b) the intervascular region, a matrix of connective tissue predominantly made from collagen I, which concentrates the greatest proportion of WJ-MSC; and (c) the perivascular layer that surrounds the umbilical vessels (Figure 1) [2, 3]. WJ-MSC derived from different parts of the same umbilical cord are equally valuable sources for use in cell therapy [4]. Of note, WJ-MSC are different from the hematopoietic stem cells found in the umbilical cord blood [5]. Moreover, as other authors already described [3], WJ is seeded by distinct sources of mesenchymal/stromal cells during the embryological development. These cell subsets express not only relevant markers that characterize both WJ-MSC and perivascular cells but possibly also the main source of progenitor cells that populate the WJ [6].

3. Benefits of Using WJ-MSC

MSC are considered a potential tool for cell therapy. The “gold standard” bone marrow-derived MSC (BM-MSC) are the most used in clinical trials but have shown mixed results [7–12]. Furthermore, their use is not always recommended due to the techniques needed to obtain the cell. BM-MSC are isolated from bone marrow aspirate; this is an invasive procedure and painful for the patient and is accompanied by a risk of infection, possibility of donor morbidity, differences in donor age, and still change or loss of in vitro proliferative and differentiation cellular capacity [13, 14].

Alternative sources where isolation is easier, like adipose tissue (AT) and WJ [15], should be and are being considered. AT is an autologous source of cells though some concerns like donor age and risk of infection are the same when compared to bone marrow (BM) [16]. Other alternative sources are, for example, dental pulp [17] and menstrual blood (reviewed in [18]), a well-recognized source of MSC known since 2004. The umbilical cord is usually discarded, mitigating the risks associated with the invasive procedures needed to isolate MSC from BM [16]. With few ethical concerns, WJ is considered an easily accessible source of MSC. WJ-MSC have been compared not only with BM-MSC but also with AT-MSC (adipose tissue-MSC) and MSC derived from menstrual blood [19] and in most cases, show higher proliferative capacity. In addition, WJ-MSC are very young cells derived from a protected neonatal tissue that has suffered less environmental interference, namely, the effects on the tissues resulting from disease history and life style, a fact that helps the acquisition of a more uniform cell cohort, which may favor their therapeutic application. However, the outcome of functional tests in vitro indicates that they too exhibit limited lifespans and variable immune suppression potentials [20–23]. WJ-MSC are less prone to develop defective functions that can accumulate throughout a cells’ lifespan due to aging and the lifetime exposure to environmental factors [24]. It is important to take into account that quality control for these cells should follow specific criteria such as selecting samples from healthy donors of full-term pregnancies, women over 18 years of age, water broken for no longer than 18h, and the expectant mother must have had at least two consultations during pregnancy and should not present fever or infection at time of birth. Maternal serum screening before delivery should include hemoglobin electrophoresis and serology for prevalent viruses and parasites.

Several reports describe MSC as immune privileged or hypoimmunogenic cells, a status likely enhanced by immunologically protected neighbouring sites, the placenta and the foetus itself [25]. In fact, they express low levels of MHC class I and costimulatory CD40, CD80, and CD86. They also lack expression of MHC class II molecules [24, 26, 27], in spite of the observation of an upregulated HLA-DR expression on BM-MSC after treatment with IFN-γ, but not with TNF-α. Nevertheless, differing from BM-MSC HLA-DR expression, the same authors did not detect the effect on WJ-MSC [28]. WJ-MSC exhibit enhanced expression of immune suppression proteins, notably leukocyte antigen G6 (HLA-G6) known to have an important role in avoiding immune-based responses against the embryo, indoleamine-2,3-dioxygenase (IDO), and prostaglandin E2 (PGE2) [29].

An important point for consideration is the fact that therapeutic applications involving MSC require an initial in vitro expansion step prior to their use and generally hundreds of millions of cells are used per treatment. It has been shown that several passages in vitro leads to a decrease in BM-MSC self-renewal capacity measured by telomere length shortening and increase in senescence markers [30]. Studies usually evaluate the immunomodulatory capacity of MSC from different sources only in early passages, and few data in the current literature is available on their behavior after passaging in vitro until enough numbers of cells are obtained for use in cell therapy [31, 32]. One study comparing AD-MSC and BM-MSC from passage 4 to passage 10 showed that they had similar cell morphology, surface marker expression, and immunomodulatory properties, even though gene expression was different [33]. Despite a higher lifetime in vitro, renewal of WJ-MSC ultimately will also lead to cell arrest and replicative senescence and the result will be the loss of stem cell functionality, even though the senescent cells remain alive [34–36]. We previously observed [20] that WJ-MSC from different donors exhibited different lifespans, as measured by senescent phenotype, number of passages, and expansion potential. Moreover, each WJ-MSC sample presented a unique behavior, differing in patterns of cytokine mRNA expression and immunomodulatory properties [37]. Thus, we believe that careful evaluation of senescence markers after repeated passaging plus monitoring of the immunosuppressant potential of each harvested cell must be included in quality control before therapeutic use.

4. Therapeutic Uses Based on the Immunomodulatory Effects of MSC: Comparing WJ-MSC with BM-MSC

When a tissue is damaged, inflammation occurs and tissue-resident MSC and even BM-MSC are mobilized to the lesion site [29, 38]. Because of their multipotency, it was believed that recruited MSC differentiated into functional cells to replace the damaged ones. However, this occurrence has eluded researchers. Studies using autologous cells mainly from bone marrow and adipose tissue and/or allogeneic cells from umbilical cord blood have shown that after infusion transdifferentiation of MSC into functional cells in tissues rarely occurs if at all [39]. In turn, it has become increasingly clear that in response to an inflammatory milieu, MSC prepare the microenvironment for tissue repair by producing immunoregulatory molecules that modulate the progression of inflammation, releasing growth factors to produce extracellular matrix [40], stimulating the in situ progenitor cells to differentiate and replace lost cells [41], and promoting angiogenesis [42]. The apparent incongruity between the benefit achieved and the lack of differentiation of the recruited MSC into specialized tissue cells has led to the unraveling of the surprising immunosuppressive capacity of MSC from many different sources [43–48].

By now, it is well known that the most promising benefits of therapy with MSC occur in patients presenting inflammatory or autoimmune diseases [49, 50]. Thus, the MSC immunomodulatory effects may play an important role in the improvement of autoimmune diseases like systemic lupus erythematosus [51, 52], type 1 diabetes mellitus [53], and multiple sclerosis [54, 55]. Ringden and Le Blanc showed that treatment using an allogenic source of MSC from umbilical cord blood (UCB-MSC), not WJ-MSC, was able to reverse partially or totally GVHD in 50% of patients [56]. In addition, the group headed by Krampera et al. [57] and other researchers [45, 58, 59] sought to unveil the immunomodulatory mechanisms of BM-MSC, confirming their effect on proliferation and antigen-specific responses by T lymphocytes.

WJ-MSC also appear to show a robust immunomodulatory potential [22]. A comparative study using MSC derived from whole human umbilical cord (MC-MSC) WJ-MSC and BM-MSC showed that MC-MSC proliferated faster and survive longer in culture than WJ-MSC; however, they have similar immunomodulatory potential [60]. Another study comparing BM-MSC and WJ-MSC demonstrated that inflammation affects the immune properties of MSC sources in different ways. Priming BM-MSC enhanced the suppression of phytohemagglutinin (PHA) mitogen-stimulated T cells only, whereas IFN-γ-primed WJ-MSC were better suppressors of MLR (mixed lymphocyte reaction) [28]. BM-MSC, WJ-MSC, and AT-MSC were all capable of suppressing T cell proliferation [61, 62]. However, high levels of IL-17A were detected in WJ-MSC cocultures, which is one of the key mediators in the treatment of graft-versus-host disease [61]. In a murine experimental autoimmune encephalomyelitis (EAE) model, WJ-MSC treated with IFN-γ increased regulatory T (Treg) cell proliferation and decreased the secretion of inflammatory cytokines in EAE mice, reducing the symptoms of the disease [63].

Of note, human fetal bone marrow (FBM-MSC) and WJ-MSC have biological advantages as compared to adult cells [62]. WJ-MSC have a gene expression pattern similar to AT-MSC but not FBM-MSC. Beyond that, genes associated with cell adhesion, proliferation, and immunomodulatory function are increased in WJ-MSC as revealed by gene ontology. WJ-MSC intrinsically overexpress genes involved in neurotrophic support when compared to BM-MSC, which makes WJ-MSC an interesting candidate for cell therapy in neurodegenerative disorders [64].

5. MSC Exert Comprehensive Effects on Cell-Mediated Immune Responses

MSC can interact with and regulate the activation and function of immune cells, such as T and B lymphocytes [65, 66], dendritic cells (DC) [67], and monocytes/macrophages [68]. The effects of MSC on the immune system are generally anti-inflammatory and are achieved by different, but complementary mechanisms.

Nicola et al. showed that human BM-MSC are capable of suppressing T cell proliferation in a mixed lymphocyte reaction (MLR) or when T cells are activated by phytohemagglutinin (PHA) [45]. WJ-MSC suppress mitogen-induced T cell responses to a greater extent than either BM-MSC or AT-MSC [28]. Recently, our group showed that different samples of human WJ-MSC were capable of inhibiting mitogen-activated CD3+ T cell proliferation, although to different extents, though the immunomodulatory profile of each WJ-MSC was essentially maintained even after 10 passages [37]. Another mechanism involved in immune suppression is T cell anergy. BM-MSC can induce T cell anergy by suppressing cyclin D2 expression and inhibiting CD4+ and CD8+ T cell proliferation by producing nitric oxide [69, 70]. BM-MSC are also capable of regulating the immune response by the induction of Treg, and it has been reported that they can induce T cell apoptosis via the Fas/FasL pathway. The apoptotic cells will stimulate macrophages to secrete high levels of TGF-β, which in turn will generate Treg cells [71]. Our preliminary results (unpublished data) showed that WJ-MSC were also able to induce Treg cells when cocultured with PBMC and treated with IFN-γ. BM-MSC also affect B cell functions, inhibiting the proliferation of activated B cells, their antibody production, and their chemotactic behavior [72]. BM-MSC have been shown to interfere in differentiation, maturation, and function of DC [67]. For example, in coculture, DC lose their ability to induce T cell activation [73–75]. Likewise, the differentiation of monocytes into mature DCs was inhibited and costimulatory ligand expression was blocked when cultured with WJ-MSC [76]. Taken together, the available literature indicates that WJ-MSC possess immunological features comparable to the better studied BM-MSC and even to MSC from other sources, but further detailing is needed to find the best therapeutic indications for this allogeneic source of cells as a substitute for the autologous BM-MSC and AT-MSC. The fact that WJ-MSC constitute an allogeneic therapy may in fact favor these cells in certain pathologies where the immunosuppressive response is urgent and should encompass cell and humoral responses.

An additional twist in this rationale is the observation that MSC, both in vitro and in vivo, seem capable of adopting a pro- or anti-inflammatory phenotype. Similar to the phenotype-switching phenomenon in macrophages massively explored throughout the literature and reviewed elsewhere [77, 78], MSC are also sensitive to shifts in the local immune milieu. Disruption towards an excessive concentration of proinflammatory cytokines such as IFN-γ and TNF-α activates signalling pathways by way of sensors present on human BM-MSC, causing a shift to the MSC2 phenotype and playing an important role in the downregulation of immune cells and their corresponding proinflammatory mediators [79]. In contrast, to switch to a MSC1-type profile, an anti-inflammatory microenvironment is required and MSC1 will not only express lower levels of immunosuppressive genes including IDO, NO, and PGE2 but will also be a major source of proinflammatory molecules, which will recruit and activate immune cells by secreting IL-6 and producing IL-1α and IL-1β [78]. BM-MSC, under conditions of hypoxia and stimulated with proinflammatory cytokines such as IFN-γ, TNF-α, and IL-1β, increase the expression of Toll-like receptors TLR2, TLR3, and TLR4, rendering these cells more sensitive to the inflammatory medium [80]. Waterman et al. showed that BM-MSC acquired two distinct phenotypes after stimulation with TLR3 and TLR4 ligands and accordingly, resulted in different immunomodulatory effects. Indeed, LPS-stimulated BM-MSC (TLR4 ligand) exhibited a proinflammatory profile (MSC1) in contrast with the polyI:C stimulated BM-MSC (TLR3 ligand) that showed an anti-inflammatory profile (MSC2) [79]. The same group also showed that BM-MSC induced into expressing the MSC1 profile attenuate cancer cell growth while when the same cells exhibit a MSC2 phenotype, they act similarly to conventional MSC in promoting tumor growth and metastases [81].

The bottom-line result of MSC switching to a type 1 profile is ultimately an overall immune modulation opposing the local environment [78]. In an inflammatory milieu, the induction of a type 2 MSC will lead to the regulation of excessive immune responses at the focal point of injury, the desirable scenario to heal damaged tissue, sponsored and facilitated by MSC plasticity.

Conflicts of Interest

The authors declare that they have no conflicts of interest.

Acknowledgments

We would like to acknowledge the contribution of Isis Mozetic who performed the schematic drawing of the umbilical cord. FAPESP and CAPES have financed graduate fellowships. Anna Carla Goldberg is a recipient of personal fellowship from CNPq. We acknowledge the generous support by the Ruhman family.

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Copyright © 2019 Fernanda Vieira Paladino et al. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

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