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The deficiency of galectin-3 in stromal cells leads to enhanced tumor growth and bone marrow metastasis

  • Jonathas Xavier Pereira1,
  • Maria Carolina Braga Azeredo2,
  • Felipe Sá Martins3,
  • Roger Chammas4,
  • Felipe Leite Oliveira5,
  • Sofia Nascimento Santos6,
  • Emerson Soares Bernardes6 and
  • Márcia Cury El-Cheikh5, 7Email author
Contributed equally
BMC Cancer201616:636

Received: 27 May 2016

Accepted: 5 August 2016

Published: 15 August 2016



Galectin-3 is a multifunctional β-galactoside-binding lectin that once synthesized, is expressed in the nucleus, cytoplasm, cell surface and in the extracellular environment. Because of its unique structure, galectin-3 can oligomerize forming lattice upon binding to multivalent oligossacharides and influence several pathologic events such as tumorigenesis, invasion and metastasis.


In our study, balb/c Lgals3+/+ and Lgals3−/− female mice were inoculated in the fourth mammary fat pad with 4T1 breast cancer cell line. The primary tumor, inguinal lymph nodes and iliac bone marrow were evaluated 15, 21 and 28 days post-injection. The primary tumor growth was evaluated by measuring the external diameter, internal growth by ultrasound and weight of the excised tumor. The presence of cancer cells in the draining lymph nodes and iliac crest bone marrow were performed by immunohistochemistry, PCR and clonogenic metastatic assay.


In this study we demonstrated that the deletion of galectin-3 in the host affected drastically the in vivo growth rate of 4T1 tumors. The primary tumors in Lgals3−/− mice displayed a higher proliferative rate (p < 0,05), an increased necrotic area (p < 0,01) and new blood vessels with a wider lumen in comparison with tumors from Lgals3+/+ mice (P < 0,05). Moreover, we detected a higher number of 4T1-derived metastatic colonies in the lymph nodes and the bone marrow of Lgals3−/− mice (p < 0,05). Additionally, healthy Lgals3−/− control mice presented an altered spatial distribution of CXCL12 in the bone marrow, which may explain at least in part the initial colonization of this organ in Lgals3−/− injected with 4T1 cells.


Taken together, our results demonstrate for the first time that the absence of galectin-3 in the host microenvironment favors the growth of the primary tumors, the metastatic spread to the inguinal lymph nodes and bone marrow colonization by metastatic 4T1 tumor cells.


4T1 breast carcinomaGalectin-3Bone marrow metastasisCXCR4/CXCL12 axis


Galectin-3, a glycan-binding protein, is one the most studied galectins due to its peculiar structure presenting an N-terminal non lectin domain and a C-terminal carbohydrate recognition domain with affinity for β-galactosides (CRD), that facilitates its dimerization and formation of a bridge or lattice between cells and extracellular compartment [14]. Once synthesized, galectin-3 shuttles between cytoplasm and nucleus, and also is secreted to the cell surface and into the biological fluids [2]. Thus, galectin-3 can act as an adhesion molecule controlling crucial cellular events as migration, cell proliferation, differentiation and apoptosis [4].

Galectin-3 plays an important role in processes that fuel the tumor growth and metastasis [36]. Exogenous galectin-3 enhances the endothelial cell mobility in vitro and promotes new capillaries formation in vivo [5]. In several tumors, it is highly expressed and its concentrations are markedly increased in the patient’s serum [6]. Galectin-3 and its glycoconjugate ligands prolong the tumor cell survival in the circulation by promoting tumor cell homotypic aggregation, thus facilitating their dissemination and preventing anoikis [6, 7].

However, galectin-3 is generated not only by tumor, but also by peri tumoral inflammatory and stromal cells [8], indicating that the tumor behavior could be influenced by both: tumor and microenvironment [9, 10]. The role of galectin-3 in the host tissue modulating the tumor biology is not completely understood [11, 12]. Although the deletion of galectin-3 [13] does not cause any developmental defect, it affects the inflammatory response by modifying the cell mobilization, differentiation and the fibrotic tissue reactions in several pathological conditions [1416]. In addition, the galectin-3-deficient mice produce lower levels of inflammatory cytokines in draining lymph nodes and, present structural and functional differences in the bone marrow and lymph nodes, that could be relevant in the dissemination of the tumor cells [17, 18].

Although galectin-3 modulates important functions in immunocompetent and inflammatory cells [1719], its role in tissues involved with tumor dissemination as lymph nodes and hematopoietic bone marrow is poorly explored. Previous studies using intravenous injection of B16F1 melanoma cells in Lgals3−/− mice, have demonstrated an attenuation of metastatic spread in lung of these mice compared with those without deletion of galectin-3 [19]. In our study, we used an orthotopic 4T1 breast cancer model established in Lgals3−/− mice as a suitable experimental animal model to study the role of host galectin-3 in primary tumor growth and metastatic spread. Our results demonstrate that the absence of host galectin-3 confers a selective growth advantage to tumor cells, facilitating the metastatic spread of cancer cells to the lymph nodes and bone marrow. In addition, we also found a differential distribution pattern of CXCL12 in the bone marrow of healthy Lgals3−/− control mice, which may contribute for preparing a much more favorable pre-metastatic niche for further metastasis.



Eight- to 12-week-old female Lgals3+/+ or Lgals3−/− Balb/c mice [20] were obtained from the animal facilities of the Medical School of the University of São Paulo (USP) and used in all experiments. All animal experiments were in compliance with the relevant laws and were approved by the Ethics Committee of Animal Use of the Federal University of Rio de Janeiro (registration number: DAHEICB069).

Breast cancer cell line

Balb/c mouse breast cancer cell line 4T1 was a donation from Dra. Adriana Bonomo (Oswaldo Cruz Institute - FIOCRUZ), Rio de Janeiro, Brazil and maintained in RPMI supplemented with 10 % of FBS. Cells were routinely maintained in under confluence monolayers every 3 days and not kept in culture for more than five passages.

Experimental assay for primary tumor growth and spontaneous metastasis

Balb/c Lgals3+/+ and Lgals3−/− female mice were inoculated in the fourth mammary fat pad with 105 cells in 100 μl [21]. The tumor size was evaluated macroscopically, by measuring the external diameter and weight of the excised tumor. The maximum diameter of the primary tumors was obtained by ultrasound measurement as described by Suzuki et al. [22].

Histological analysis of primary tumor, draining lymph nodes and iliac crest bone marrow

After 21 and 28 days post orthotopic 4T1 injections the primary tumor and draining lymph nodes, were collected, cleaved and fixed in 4 % PFA. The paraffin-embedded tissues were staining for H&E and proliferative cells were stained using Ki-67. Angiogenesis in the tumor section was evaluated by the immunohistochemistry using the monoclonal antibody anti-CD31 and analyzed in five random fields per tumors and in three primary tumors per group. The lumen was measured using the software Axioplan®. and their lumen’s area was quantified by the software Axioplan®, through the mathematical deconvolution method. The necrotic area was measured using the same software Axioplan®. The iliac crest bone marrow was collected, fixed in paraformaldehyde 4 % buffered solution for 1 day and decalcified in EDTA 20 % for additional 14 days and then embedded in paraffin. Slices of 5 μm were obtained and were stained with H&E, and the immunohistochemistry for CK-19 and Ki-67 antibodies.

Clonogenic metastatic assay

The draining nodes and iliac crest bones were harvested after 21 and 28 days post-injection of tumors cells and dissociated physically. The cells suspensions were cultured in serial dilution in DMEM medium at FBS 10 % in the presence of 6-thioguanine at concentration of 1 μg/mL. After 14 days in culture, the metastatic cells in LNs and iliac bone marrow of Lgals 3+/+ and Lgals3−/− female mice were stained with methylene blue and quantified by their selection based on the resistance to 6-thioguanine [23].

RNA extraction, reverse transcription and quantitative PCR

Total RNA from tissue was isolated using the Tri-Reagent (Sigma) according to the manufacturer’s instructions. Complementary DNA (cDNA) was synthesized from 1 μg of total RNA using the High capacity cDNA RT kit (Applied Biosystems), according to the manufacturer’s protocols. Quantitative PCR analysis was performed in triplicate using Power SYBR Green Master Mix (Applied Biosystems). Relative quantification was done using the Ct method normalizing to β-actin gene expression.


Forward 5’ – 3’

Reverse 5’ – 3’







Statistical analyses

Statistical analyses were performed using GraphPad Prism 6.0 software (GraphPad Software, Inc.). Results are shown as means ± standard deviation (S.D.). To determine statistically significant differences between groups, normal distribution was assumed and unpaired Student’s t-test or one-way analysis of variance (ANOVA) were used. For xenograft studies, the growth rates were calculated by non-linear regression (exponential growth model). P < 0.05 was considered as statistically significant.


Galectin-3 deficiency provides a more permissive environment for the growth of 4T1 carcinoma cells in the mammary fat pad

Initially, we evaluated the susceptibility of Lgals3+/+ or Lgals3 −/− female mice to 4T1 cells tumor growth. Ten days post orthotopic injection (p.o.i), 4T1-derived tumors were macroscopically detected in both groups (Fig. 1a and b). However, 15 and 20 days p.o.i we observed an increased tumor volume in Lgals3−/− mice in comparison with Lgals3+/+ (Fig. 1c, P < 0.01). We then excised 4T1-derived tumors 21 or 28 days p.o.i. and found that Lgals3−/− derived tumors presented an increased size (Fig. 1d, Additional file 1: Figure S1, Additional file 2) and weight (Fig. 1e, P < 0,05) in comparison with Lgals3+/+ − derived tumors. Using ultrasonography (USG) we were able to find an increased growth of 4T1 tumor cells in Lgals3−/− mice (line’s slope = 99,19) in comparison with Lgals3+/+ mice (line’s slope = 91,74). The tumor area was higher in Lgals3−/− mice after 19 days p.o.i. (Fig. 1f and g, p < 0,05).
Fig. 1

The growth rate of mammary cancer 4T1 is delayed in Lgals3−/− mice. Balb/c Lgals3+/+ and Lgals3−/− females mice were inoculated with 105 4T1 mammary carcinoma cells in the fourth mammary fat pad. Representative image of 4T1 tumor in a (Lgals 3+/+) and b (Lgals3−/−) mice 28 days p.o.i. c Tumor volume of 4T1 tumors in Balb/c Lgals3+/+ and Lgals3−/− mice. d Representative image of 4T1 tumor excised from Balb/c Lgals3+/+ and Lgals3−/− mice 28 days p.o.i. e Tumor weight of 4T1 tumors in Balb/c Lgals3+/+ and Lgals3−/− mice 21 and 28 days p.o.i. f Representative image of 4T1 tumor ultrasonography from Balb/c Lgals3+/+ and Lgals3−/− mice 6 and 27 days p.o.i. g Tumor area of 4T1 tumors in Balb/c Lgals3+/+ and Lgals3−/− mice measured by ultrasonography. Data are the mean ± S.D., n = 4, three animals per group; *p < 0.05, **p < 0.01

We then performed histological analysis of the primary tumor 21 and 28 days p.o.i. and found an increased necrotic area (Fig. 2a, p < 0,01) and percentage of proliferative cells (Fig. 2b, p < 0,05) in 4T1 tumors grown in the absence of galectin-3 (Lgals3−/−). Although no difference could be observed regarding the number of blood vessels in 4T1-derived tumors, we found a significant increase in the vessel lumen area of tumors grown in Lgals3−/− mice (Fig. 2c and 2d, p < 0,05). Altogether, these data demonstrate that the absence of galectin-3 in the host confers a selective growth advantage for tumor in the primary site.
Fig. 2

4T1-derived tumors have increased necrotic area, proliferation and blood vessels in Lgals3−/− mice. Quantification of a the necrotic area and b Ki67 in 4T1 tumors inoculated in Balb/c Lgals3+/+ or Lgals3−/− mice 21 and 28 days p.o.i. c Representative immunohistochemical staining of CD31 and (d) quantification of the vascular lumen area in 4T1 tumor inoculated in Balb/c Lgals3+/+ or Lgals3−/− mice 21 and 28 days p.o.i. Data are the mean ± S.D., n = 4, three animals per group; *p < 0.05, **p < 0.01, ***p < 0.001

Galectin-3 deficiency favors the metastatic spread of 4T1 carcinoma cells to the draining lymph nodes

We next investigated whether galectin-3 could influence the development of metastasis to the lymph node. Therefore, 28 days post orthotopic injection (p.o.i) of 4T1 cells in Lgals3+/+ or Lgals3−/− mice, the lymph nodes were excised and the presence of CK-19 positive cells was analyzed by immunohistochemistry. We observed that 4T1 cells (CK-19+) were predominantly present in the capsule of the draining lymph node in Lgals3+/+ mice (Fig. 3a) whereas in Lgals3−/− mice, CK-19+ cells were organized as “sheets-like” within the lymph node parenchyma and also found in the capsule (Fig. 3b). Moreover, we evaluated the presence of lymph node metastasis in Lgals3+/+ and Lgals3−/− mice using the 6-thioguanine clonogenic assay and found significant fewer metastasis in Lgals3+/+ mice in comparison to Lgals3−/− mice, both 21 and 28 days p.o.i. (Fig. 3c, p < 0,05). Interestingly though, we also found an increased CK-19 mRNA levels in Lgals3−/− mice at an earlier stage (15 days) p.o.i. (Fig. 3d, p < 0,05). These results suggest that Lgals3−/− mice are more permissive for 4T1 tumor cells dissemination to the inguinal lymph nodes.
Fig. 3

The detection of 4T1-derived metastatic colonies in the lymph nodes is increased in Lgals3−/− mice. Representative immunohistochemical staining of CK-19 in the draining lymph nodes of Balb/c a Lgals3+/+ or b Lgals3−/− mice previously inoculated with 105 4T1 mammary carcinoma cells in the fourth mammary fat pad for 28 days. c Number and representative images of clonogenic 4T1 metastatic cells cultured from a total of 105 draining lymph nodes cells 21 and 28 days p.o.i. d CK-19 mRNA levels in draining lymph nodes cells of Balb/c Lgals3+/+ or Lgals3−/− mice 15 days p.o.i. with 4T1 mammary carcinoma cells. Data are the mean ± S.D., n = 4, three animals per group; *p < 0.05

Galectin-3-deficient bone marrow microenvironment supports more efficiently the growth of metastatic 4T1

We have previously described that Lgals3−/− mice presented structural and functional differences in the bone marrow [17]. Likewise, in this study we confirmed differences in terms of cellularity and projections of bone tissue inside the cavity between Balb/c Lgals3+/+ and Lgals3 −/− mice (Fig. 4a and b). 28 days p.o.i of 4T1 cells in Lgals3+/+ or Lgals3−/− mice, we observed that CK-19+ cells were easier visualized in the hematopoietic compartment of the Lgals3−/− female mice compared with the Lgals3+/+ group (Fig. 4c and d, arrow).
Fig. 4

The detection of 4T1-derived metastatic colonies in the bone marrow is increased in Lgals3−/− mice. Representative immunohistochemical staining of hematoxylin and eosin in the bone marrow of Balb/c a Lgals3+/+ or b Lgals3−/− mice. Representative immunohistochemical staining of CK-19 in the bone marrow of Balb/c c Lgals3+/+ or d Lgals3−/− mice previously inoculated with 105 4T1 mammary carcinoma cells in the fourth mammary fat pad for 28 days. e Number and representative images of clonogenic 4T1 metastatic cells cultured from a total of 105 iliac bone cells 21 and 28 days p.o.i. f CK-19 mRNA levels in iliac bone cells of Balb/c Lgals3+/+ or Lgals3−/− mice 15 days p.o.i. with 4T1 mammary carcinoma cells. Data are the mean ± S.D., n = 3, three animals per group; *p < 0.05, **p < 0.01

In contrast to observed in inguinal lymph nodes, in 15 days p.o.i, no differences in CK-19 m RNA levels was detected in bone marrow (Fig. 4f). When we compared the bone marrow metastasis between the groups by the 6-thioguanine clonogenic assay, we found significant fewer metastasis in Lgals3+/+ mice in comparison to Lgals3−/− mice after 21 and 28 days p.o.i of 4T1 cells. (Fig. 4e, p < 0,05). These results indicate that bone marrow compartment of Lgals3−/− mice displays favorable environmental conditions for tumor cell to colonize and survive, after 21 days p.o.i.

The absence of galectin-3 changes the spatial distribution of CXCL12 in the bone marrow

We finally investigated a possible mechanism by which the absence of galectin-3 in the host could favor 4T1 spread to the bone marrow. Since 4T1 cells are CXCR4 positive (Additional file 2, Additional file 3: Figure S2) we next evaluated the protein expression of CXCL12 in the bone marrow of healthy Lgals3+/+ and Lgals3−/− mice by immunohistochemistry. We observed that CXCL12 was predominantly present in the endosteal region of the bone marrow in Lgals3+/+ mice (Fig. 5a). In contrast, CXCL12 was mainly found scattered throughout the bone marrow of Lgals3−/− mice (Fig. 5b). Interestingly, we observed a higher rate of proliferative cells in the bone marrow of Lgals3−/− mice in comparison with Lgals3+/+ mice (Fig. 5c and d) both in control and in 21 days p.o.i of 4T1 cells (Fig. 5e, p < 0,05). In 28 days p.o.i. the rate of proliferative cells was not statistically significant. These results suggest that the differential distribution of CXCL12 found in Lgals3−/− mice may provide a more favorable niche for incoming tumor cells to proliferate in the hematopoietic bone marrow.
Fig. 5

The spatial distribution of CxCl12 is altered in the bone marrow of Lgals3−/− mice. Representative immunohistochemical staining of (a and b) CxCl12 or (c and d) Ki-67 in the bone marrow of Balb/c Lgals3+/+ or Lgals3−/− mice. e Quantification of Ki-67 in the bone marrow of Balb/c Lgals3+/+ or Lgals3−/− mice. Data are the mean ± S.D., n = 4, three animals per group; *p < 0.05


In the past few decades considerable progresses have been made to understand the molecular basis of metastasis. However, the underlying events of tumor metastasis are still not well understood. In this study we demonstrated that tumors derived from Lgals3−/− mice orthotopically injected with 4T1 cells displayed: (1) a higher proliferative rate, an increased necrotic area and new blood vessels with a wider lumen; (2) higher metastatic colonies in the lymph nodes and the bone marrow. (3) Moreover, we found a different spatial distribution of CXCL12 in the bone marrow of Lgals3−/− mice, which could contribute for the increase colonization of 4T1 cells to this organ.

Our data demonstrated that the absence of host galectin-3 drastically affected the tumor biology. So far, few studies have addressed the role of host galectin-3 in carcinogenesis and metastasis. A study using B16F1 melanoma cells, a variant of B16 melanoma possessing lower metastatic potential than B16F10 cells, demonstrated that C57/BL6 Lgals3−/− mice were more competent in terms of their anti-tumor immunity when compared to Lgals3+/+ mice and, presented enhanced NK-cell activity and lower metastasis [19, 24]. In contrast, More SK, 2015 [25] found that C57/BL6 Lgals3−/− mice showed similar extent of B16F10 melanoma metastatic colonies in the lung as the Lgals3+/+ mice. Another group described that Lgals3−/− mice facilitated B16F10 lung metastasis as a result of decreased NK cytotoxicity and disturbed serum Th1, Th2 and Th17 cytokines [26]. On the other hand, a study using B16F10 melanoma cell and LLC lung cancer cells in an allograft model and found an increased primary solid tumor growth in C57/BL6 Lgals3−/− mice compared with Lgals3+/+ mice in both B16 and LLC tumors [27]. In our study we orthotopically injected 4T1 tumor cells in Balb/c Lgals3−/− and Lgals3+/+ mice strain. To our best knowledge this is the first study that mimics human breast cancer in a galectin-3 depleted environment model and closely simulate human cancer progression and metastasis.

Our study is not entirely free of galectin-3 since 4T1 tumor cells express galectin-3, which is believed to confer survival advantage to tumor cells during dissemination. Several reports have demonstrated that galectin-3 interaction with its glycoconjugate ligands increased cancer homotypic aggregation to form a tumor micro-emboli and cancer cell heterotypic adhesion to the blood vascular endothelium [2831]. Moreover, the levels of circulating galectin-3 in the bloodstream of patients with metastasis are significantly higher than those of healthy people [6]. In addition, both intra and extracellular galectin-3 suppress apoptosis induced by the loss of cell anchorage (anoikis) [7, 29]. Therefore, in our study, galectin-3 expression by tumor cells may have enhanced the survival of disseminating tumor cells in the circulation.

The host tissue microenvironment plays a key role for tumor cells colonization of secondary organs. Our data indicate that loss of galectin-3 makes the lymph node and the bone marrow a favorable microenvironment for metastatic colonization. Although Lgals3−/− mice are viable and fertile, these animals present multiple disorders associated with inflammation and immune response [3, 14, 26, 20, 3235] and endochondral ossification [31]. Therefore the absence of host galectin-3 may lead to a decreased immune response against the tumor and be an important predisposing factor for tumor growth in the primary site and for the dissemination of tumor cells to the lymph nodes and bone marrow compartment.

We have previously shown that Lgals3−/− mice presented a reduced cell density and diaphyseal disorders with functional differences in the bone marrow cavity in comparison to Lgals3+/+ mice [17]. Here we found differences in terms of cellularity and projections of the bone tissue between both groups that could also explain the increased dissemination of 4T1 cells in Lgals3−/− mice to the bone marrow.

The bone marrow compartment is a dynamic environment constituted by a rich milieu of growth factors, stromal cells and a complex extracellular matrix network necessary to maintain homeostasis of the hematopoietic system. The equilibrium between proliferation and differentiation of the hematopoietic stem cells (HSC) is controlled by endosteal region, a site of HSC niche, maintained mainly by the attractive chemokine (CXCL12) and by a central region, responsible for generation of different hematopoietic progenitor cells [36] Based on these characteristics, the bone marrow microenvironment is a fertile soil not only for HSC and its progenies, but also or the growth of cancer cells. It is well described that the several solid tumors, including breast, ovarian and prostate migrate to bone marrow compartment by the same mechanism used by normal hematopoietic stem cell, the CXCL12-CXCR4 axis. The CXCL12 is an attractive chemokines produced constitutively by stromal cells and its interaction with the ligand controls the cell retention inside the bone marrow [37] The attractive chemokines expressed by the stromal bone marrow cells can also stimulate the survival of malignant cells causing them to growth in the hematopoietic stem cell niches in the endosteal region [38]. In a recent report [39], supported the hypothesis that CXCL12-CXCr4 axis promotes the natural selection of breast cancer cell metastasis with implications for tumor aggressiveness. Moreover, the presence of CXCL12 in a non-canonical region of the bone marrow, could amplify the CXCL12-CXCR4 axis, favoring the proliferation of cancer cells. Since the localization of CXCL12 chemokine is strongly modified by galectin-3 deletion and is detected in the overall area of the bone marrow, it may facilitate the attraction, maintenance and survival of 4T1 cells in Lgals3−/− mice in comparison with a normal microenvironment.


Our data demonstrated that the absence of host galectin-3 drastically affected the tumor biology favoring the metastatic spreading of 4T1 cells to inguinal lymph nodes and bone marrow colonization.



Cytokeratin 19


C-terminal Carbohydrate Recognition Domain


Galectin-3 Knockout Mice


Wild Type Mice


Post Orthotopic Injection





Not applicable.


This work was supported by the Research Support Foundation of Rio de Janeiro (FAPERJ), Brazil. Grants n°: E-26/111.316/2011.

Availability of data and materials

The datasets supporting the conclusions of this article are included within the article (and its additional files).

Authors’ contributions

Conceived and designed the experiments: JXP, MCBA, MCEC. Performed the experiments: JXP, MCBA, FSM. Contributed to acquisition, analysis and interpretation of data: JXP, MCBA, FSM, RC, FLO, SNS, ESB, MCEC. Critical revisions of the manuscript: RC, SNS, FLO. Wrote the paper: JXP, MCEC, ESB. All authors read and approved the final manuscript.

Competing interests

The authors declare that they have no competing interests.

Consent for publication

Not applicable.

Ethics approval and consent to participate

All animals and tumor cell line experiments were in compliance with the relevant laws and were approved by the Ethics Committee of Animal Use of the Federal University of Rio de Janeiro (registration number: DAHEICB069).

Open AccessThis article is distributed under the terms of the Creative Commons Attribution 4.0 International License (, which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made. The Creative Commons Public Domain Dedication waiver ( applies to the data made available in this article, unless otherwise stated.

Authors’ Affiliations

Programa de Pós-Graduação em Anatomia Patológica, Hospital Clementino Fraga Filho, UFRJ
Programa de Pós-Graduação em Ciências Morfológicas, ICB, UFRJ
Universidade Federal do Rio de Janeiro
Laboratório de Oncologia Experimental e Instituto do Câncer do Estado de São Paulo, Faculdade de Medicina
Laboratório de Proliferação e Diferenciação Celular, ICB, UFRJ
Centro de Radiofarmácia, Instituto de Pesquisas Energéticas e Nucleares (IPEN)
Cidade Universitária, Ilha do Fundão, Instituto de Ciências Biomédicas, CCS


  1. Birdsall B, Feeney J, Burdett ID, Bawumia S, Barboni EA, Hughes RC. NMR solution studies of hamster galectin-3 and electron microscopic visualization of surface-adsorbed complexes: evidence for interactions between the N- and C-terminal domains. Biochemistry. 2001;40(15):4859–66.View ArticlePubMedGoogle Scholar
  2. Dumic J, Dabelic S, Flogel M. Galectin-3: an open-ended story. Biochim Biophys Acta. 2006;1760(4):616–35.View ArticlePubMedGoogle Scholar
  3. Newlaczyl AU, Yu LG. Galectin-3—a jack-of-all-trades in cancer. Cancer Lett. 2011;313(2):123–8.View ArticlePubMedGoogle Scholar
  4. Liu FT, Rabinovich GA. Galectins as modulators of tumor progression. Nat Rev Cancer. 2005;1:29–41.View ArticleGoogle Scholar
  5. Nangia-Makker P, Honjo Y, Sarvis R, Akahani S, Hogan V, Pienta KJ, Raz A. Galectin-3 induces endothelial cell morphogenesis and angiogenesis. Am J Pathol. 2000;156(3):899–909.View ArticlePubMedPubMed CentralGoogle Scholar
  6. Iurisci I, Tinari N, Natoli C, Angelucci D, Cianchetti E, Iacobelli S. Concentrations of galectin-3 in the sera of normal controls and cancer patients. Clin Cancer Res. 2000;6(4):1389–93.PubMedGoogle Scholar
  7. Zhao Q, Barclay M, Hilkens J, Guo X, Barrow H, Rhodes JM, Yu LG. Interaction between circulating galectin-3 and cancer-associated MUC1 enhances tumour cell homotypic aggregation and prevents anoikis. Mol Cancer. 2010;9:154.View ArticlePubMedPubMed CentralGoogle Scholar
  8. Perillo NL, Marcus ME, Baum LG. Galectins: versatile modulators of cell adhesion, cell proliferation, and cell death. J Mol Med. 1998;76(6):402–12.View ArticlePubMedGoogle Scholar
  9. Machado CM, Andrade LN, Teixeira VR, Costa FF, Melo CM, dos Santos SN, Nonogaki S, Liu FT, Bernardes ES, Camargo AA, Chammas R. Galectin-3 disruption impaired tumoral angiogenesis by reducing VEGF secretion from TGFβ1-induced macrophages. Cancer Med. 2014;3(2):201–14.View ArticlePubMedPubMed CentralGoogle Scholar
  10. Nangia-Makker P, Balan V, Raz A. Regulation of tumor progression by extracellular galectin-3. Cancer Microenviron. 2008;1(1):43–51.View ArticlePubMedPubMed CentralGoogle Scholar
  11. Le Marer N, Hughes RC. Effects of the carbohydrate-binding protein galectin-3 on the invasiveness of human breast carcinoma cells. J Cell Physiol. 1996;168(1):51–8.View ArticlePubMedGoogle Scholar
  12. Thijssen VL, van Beijnum JR, Mayo KH, Griffioen AW. Identification of novel drug targets for angiostatic cancer therapy; it takes two to tango. Curr Pharm Des. 2007;13(35):3576–83.View ArticlePubMedGoogle Scholar
  13. Colnot C, Fowlis D, Ripoche MA, Bouchaert I, Poirier F. Embryonic implantation in galectin 1/galectin 3 double mutant mice. Dev Dyn. 1998;211(4):306–13.View ArticlePubMedGoogle Scholar
  14. Bernardes ES, Silva NM, Ruas LP, Mineo JR, Loyola AM, Hsu DK, Liu FT, Chammas R, Roque-Barreira MC. Toxoplasma gondii infection reveals a novel regulatory role for galectin-3 in the interface of innate and adaptive immunity. Am J Pathol. 2006;168(6):1910–20.View ArticlePubMedPubMed CentralGoogle Scholar
  15. Oliveira FL, Frazao P, Chammas R, Hsu DK, Liu FT, Borojevic R, Takiya CM, El-Cheikh MC. Kinetics of mobilization and differentiation of lymphohematopoietic cells during experimental murine schistosomiasis in galectin-3 −/− mice. J Leukoc Biol. 2007;82(2):300–10.View ArticlePubMedGoogle Scholar
  16. Volarevic V, Milovanovic M, Djekovic A, Petrovic B, Arsenijevic N, Bugarcic ZD. The cytotoxic effects of some selected gold(III) complexes on 4T1 cells and their role in the prevention of breast tumor growth in BALB/c mice. J BUON. 2010;15(4):768–73.PubMedGoogle Scholar
  17. Brand C, Oliveira FL, Ricon L, Fermino ML, Boldrini LC, Hsu DK, Liu FT, Chammas R, Borojevic R, Farina M, El-Cheikh MC. The bone marrow compartment is modified in the absence of galectin-3. Cell Tissue Res. 2011;346(3):427–37.View ArticlePubMedPubMed CentralGoogle Scholar
  18. Mensah-Brown EP, Al Rabesi Z, Shahin A, Al Shamsi M, Arsenijevic N, Hsu DK, Liu FT, Lukic ML. Targeted disruption of the galectin-3 gene results in decreased susceptibility to multiple low dose streptozotocin-induced diabetes in mice. Clin Immunol. 2009;130(1):83–8.View ArticlePubMedGoogle Scholar
  19. Radosavljevic G, Jovanovic I, Majstorovic I, Mitrovic M, Lisnic VJ, Arsenijevic N, Jonjic S, Lukic ML. Deletion of galectin-3 in the host attenuates metastasis of murine melanoma by modulating tumor adhesion and NK cell activity. Clin Exp Metastasis. 2011;28(5):451–62.View ArticlePubMedGoogle Scholar
  20. Hsu DK, Yang RY, Pan Z, Yu L, Salomon DR, Fung-Leung WP, Liu FT. Targeted disruption of the galectin-3 gene results in attenuated peritoneal inflammatory responses. Am J Pathol. 2000;156(3):1073–83.View ArticlePubMedPubMed CentralGoogle Scholar
  21. Pulaski BA, Clements VK, Pipeling MR, Ostrand-Rosenberg S. Immunotherapy with vaccines combining MHC class II/CD80+ tumor cells with interleukin-12 reduces established metastatic disease and stimulates immune effectors and monokine induced by interferon gamma. Cancer Immunol Immunother. 2000;49(1):34–45.View ArticlePubMedGoogle Scholar
  22. Suzuki Y, Ikeno F, Koizumi T, Tio F, Yeung AC, Yock PG, Fitzgerald PJ, Fearon WF. In vivo comparison between optical coherence tomography and intravascular ultrasound for detecting small degrees of in-stent neointima after stent implantation. JACC Cardiovasc Interv. 2008;1(2):168–73.View ArticlePubMedGoogle Scholar
  23. Monteiro AC, Leal AC, Gonçalves-Silva T, Mercadante AC, Kestelman F, Chaves SB, Azevedo RB, Monteiro JP, Bonomo A. T cells induce pre-metastatic osteolytic disease and help bone metastases establishment in a mouse model of metastatic breast cancer. PLoS One. 2013;8(7):e68171.View ArticlePubMedPubMed CentralGoogle Scholar
  24. Abdel Aziz MT, El-Asmar MF, Haidara M, Atta HM, Roshdy NK, Rashed LA, Sabry D, Youssef MA, Abdel Aziz AT, Moustafa M. Effect of bone marrow-derived mesenchymal stem cells on cardiovascular complications in diabetic rats. Med Sci Monit. 2008;14(11):BR249–55.PubMedGoogle Scholar
  25. More SK, Srinivasan N, Budnar S, Bane SM, Upadhya A, Thorat RA, Ingle AD, Chiplunkar SV, Kalraiya RD. N-glycans and metastasis in galectin-3 transgenic mice. Biochem Biophys Res Commun. 2015;460(2):302–7.View ArticlePubMedGoogle Scholar
  26. Chaudhari AD, Gude RP, Kalraiya RD, Chiplunkar SV. Endogenous galectin-3 expression levels modulate immune responses in galectin-3 transgenic mice. Mol Immunol. 2015;68(2 Pt A):300–11.View ArticlePubMedGoogle Scholar
  27. Jia W, Kidoya H, Yamakawa D, Naito H, Takakura N. Galectin-3 accelerates M2 macrophage infiltration and angiogenesis in tumors. Am J Pathol. 2013;182(5):1821–31.View ArticlePubMedGoogle Scholar
  28. Yu LG, Andrews N, Zhao Q, McKean D, Williams JF, Connor LJ, Gerasimenko OV, Hilkens J, Hirabayashi J, Kasai K, Rhodes JM. Galectin-3 interaction with Thomsen-Friedenreich disaccharide on cancer-associated MUC1 causes increased cancer cell endothelial adhesion. J Biol Chem. 2007;282(1):773–81.View ArticlePubMedGoogle Scholar
  29. Kim HR, Lin HM, Biliran H, Raz A. Cell cycle arrest and inhibition of anoikis by galectin-3 in human breast epithelial cells. Cancer Res. 1999;59(16):4148–54.PubMedGoogle Scholar
  30. Zhao Q, Guo X, Nash GB, Stone PC, Hilkens J, Rhodes JM, Yu LG. Circulating galectin-3 promotes metastasis by modifying MUC1 localization on cancer cell surface. Cancer Res. 2009;69(17):6799–806.View ArticlePubMedPubMed CentralGoogle Scholar
  31. Colnot C, Sidhu SS, Balmain N, Poirier F. Uncoupling of chondrocyte death and vascular invasion in mouse galectin 3 null mutant bones. Dev Biol. 2001;229(1):203–14.View ArticlePubMedGoogle Scholar
  32. Fortuna-Costa A, Gomes AM, Kozlowski EO, Stelling MP, Pavao MS. Extracellular galectin-3 in tumor progression and metastasis. Front Oncol. 2014;4:138.View ArticlePubMedPubMed CentralGoogle Scholar
  33. Colnot C, Ripoche MA, Milon G, Montagutelli X, Crocker PR, Poirier F. Maintenance of granulocyte numbers during acute peritonitis is defective in galectin-3-null mutant mice. Immunology. 1998;94(3):290–6.View ArticlePubMedPubMed CentralGoogle Scholar
  34. Sano H, Hsu DK, Yu L, Apgar JR, Kuwabara I, Yamanaka T, Hirashima M, Liu FT. Human galectin-3 is a novel chemoattractant for monocytes and macrophages. J Immunol. 2000;165(4):2156–64.View ArticlePubMedGoogle Scholar
  35. Sato S, Ouellet N, Pelletier I, Simard M, Rancourt A, Bergeron MG. Role of galectin-3 as an adhesion molecule for neutrophil extravasation during streptococcal pneumonia. J Immunol. 2002;168(4):1813–22.View ArticlePubMedGoogle Scholar
  36. Grassinger J, Haylock DN, Williams B, Olsen GH, Nilsson SK. Phenotypically identical hemopoietic stem cells isolated from different regions of bone marrow have different biologic potential. Blood. 2010;116(17):3185–96.View ArticlePubMedGoogle Scholar
  37. Devine SM, Vij R, Rettig M, Todt L, McGlauchlen K, Fisher N, Devine H, Link DC, Calandra G, Bridger G, Westervelt P, Dipersio JF. Rapid mobilization of functional donor hematopoietic cells without G-CSF using AMD3100, an antagonist of the CXCR4/SDF-1 interaction. Blood. 2008;112(4):990–8.View ArticlePubMedGoogle Scholar
  38. Meads MB, Hazlehurst LA, Dalton WS. The bone marrow microenvironment as a tumor sanctuary and contributor to drug resistance. Clin Cancer Res. 2008;14(9):2519–26.View ArticlePubMedGoogle Scholar
  39. Sun Y, Liang F, Cao W, Wang K, He J, Wang H, Wang Y. Prognostic value of poorly differentiated clusters in invasive breast cancer. World J Surg Oncol. 2014;12:310.View ArticlePubMedPubMed CentralGoogle Scholar


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