- Open Access
Regulation of MMP-3 expression and secretion by the chemokine eotaxin-1 in human chondrocytes
Journal of Biomedical Science volume 18, Article number: 86 (2011)
Osteoarthritis (OA) is characterized by the degradation of articular cartilage, marked by the breakdown of matrix proteins. Studies demonstrated the involvement of chemokines in this process, and some may potentially serve as diagnostic markers and therapeutic targets; however, the underlying signal transductions are not well understood.
We investigated the effects of the CC chemokine eotaxin-1 (CCL11) on the matrix metalloproteinase (MMP) expression and secretion in the human chondrocyte cell line SW1353 and primary chondrocytes.
Eotaxin-1 significantly induced MMP-3 mRNA expression in a dose-dependent manner. Inhibitors of extracellular signal-regulated kinase (ERK) and p38 kinase were able to repress eotaxin-1-induced MMP-3 expression. On the contrary, Rp-adenosine-3',5'-cyclic monophosphorothioate (Rp-cAMPs), a competitive cAMP antagonist for cAMP receptors, and H-89, a protein kinase A (PKA) inhibitor, markedly enhanced eotaxin-1-induced MMP-3 expression. These results suggest that MMP-3 expression is specifically mediated by the G protein-coupled eotaxin-1 receptor activities. Interestingly, little amount of MMP-3 protein was detected in the cell lysates of eotaxin-1-treated SW1353 cells, and most of MMP-3 protein was in the culture media. Furthermore we found that the eotaxin-1-dependent MMP-3 protein secretion was regulated by phospholipase C (PLC)-protein kinase C (PKC) cascade and c-Jun N-terminal kinase (JNK)/mitogen-activated protein (MAP) kinase pathways. These data indicate a specific regulation of MMP-3 secretion also by eotaxin-1 receptor activities.
Eotaxin-1 not only induces MMP-3 gene expression but also promotes MMP-3 protein secretion through G protein-coupled eotaxin-1 receptor activities. Chemokines, such as eotaxin-1, could be a potential candidate in the diagnosis and treatment of arthritis.
Osteoarthritis (OA) is a chronic degenerative joint disease characterized by degradation of articular cartilage and inflammation of the synovium [1, 2]. Cartilage degradation is mediated by matrix metalloproteinases (MMPs), such as MMP-3 (stromelysin 1), which specifically cleave matrix proteins [3, 4]. Chondrocytes, the only cells found in cartilage, can produce interleukin (IL)-1β that induces the expression of MMPs, aggrecanases, and other catabolic proteins [5, 6]. Chondrocytes in OA cartilage may continuously be exposed to cytokines, chemokines and other catabolic factors at high local concentrations; however, the underlying effects and mechanisms are not well understood.
Chemokines are a family of small heparin binding cytokines that are primarily involved in the recruitment of leukocytes to the site of inflammation. Studies revealed roles of chemokines and catabolic cytokines in the inflammatory pathogenesis of OA [7, 8]. Referring to the juxtaposition of cysteine residues in the protein's amino terminus, four subfamilies can be distinguished as C, CC, CXC, and CX3C . In arthritic synovial tissue, IL-1β induces the production of the CC chemokines, such as monocyte chemoattractant protein 1 (MCP-1) and regulated upon activation of normal T cell expression and secretion (RANTES), and promotes inflammation [10, 11]. It was also shown that chondrocytes respond to MCP-1 and RANTES by releasing MMP-3 and N-acetyl-β-D-glucosaminidase, thus contributing to cartilage matrix degradation . Previously we demonstrated that MCP-1, RANTES and another chemokine, eotaxin-1 (CCL11), were overproduced in OA joints . The plasma concentrations of these chemokines were higher in OA patients than in normal humans. The production of eotaxin-1 not only induces expression of its own receptors, CCR3 and CCR5, on the cell surface of chondrosarcomas, but also markedly increases the expression of MMP-3 mRNA in chondrocytes. Recent study also demonstrated elevated level of eotaxin-1 in the cells of rheumatoid arthritis (RA) patients before disease onset .
Eotaxin-1 was first isolated from lung lavage fluid of sensitized guinea pigs following allergen exposure . The effects of eotaxin-1 are mediated by its binding to G-protein-coupled CC chemokine receptors (CCRs) [16, 17]. Biochemical routes initiated by Gα subunit may activate the main secondary message signal, adenylyl cyclase-cAMP (AC-cAMP)-protein kinase A (PKA) pathway, and subsequently activate mitogen-activated protein (MAP) kinase pathway [18, 19]. Activated MAP kinase translocates to the nucleus and phosphorylates transcription factors, thereby regulating gene expression [20, 21]. On the other hand, the activated G βγ subunits may directly regulate phospholipase C (PLC)-protein kinase C (PKC) pathway . The effect of G protein activation is mediated by both the AC-PKA and PLC-PKC cascades .
PLC is a key point of the pathway that regulates protein secretion. PLC has two major types including phosphatidylinositol specific phospholipase C (PI-PLC), and Phosphatidylcholine specific phospholipase C (PC-PLC). PI-PLC digests glycosyl-phosphatidylinositol-anchored protein on the pancreatic zymogen granule membrane to release the protein . Acetylcholine activates insulin granules in pancreatic β-cells through PC-PLC pathway . Furthermore, the effects on aldosterone secretion are initiated by an increase in Ca2+ influx through hormone-operated Ca2+ channels and G-protein- and PLC-dependent hydrolysis of phosphoinositides, leading to the generation of inositol 1,4,5 triphosphate (IP3) and diacylglycerol (DAG) that induces intracellular Ca2+ release and PKC activation . Ca2+ influx and activation of PKC have been known for many years to be key signals of granule exocytosis and protein secretion. MMP-2 secretion from human ciliary muscle cells is regulated by PKC-dependent pathway . PKC also stimulates the release of MMP-9 and tissue inhibitor of MMP1 in human decidual cells .
Mitogen-activated protein (MAP) kinase pathways regulate cell growth, differentiation, gene expression, protein synthesis and secretion. Three MAP kinase pathways have been studied in detail: extracellular signal-regulated kinase (ERK) 1/2, c-Jun N-terminal kinase (JNK), and p38 pathways. ERK 1/2 pathway is activated by growth factors, G-protein coupled receptors and phorbol esters, while the JNK and p38 MAP kinase pathways respond to environmental factors and inflammatory cytokines . MAP kinases are involved in MMP mRNA production, and activated via different pathways with different inducers in different tissues . IL-1 induces collagenase 3 (MMP-13) mRNA expression through p38 and JNK pathways in chondrocytes ; however, in osteoblastic cells, MMP-13 mRNA expression is activated via ERK pathway .
In our previous study, we found that eotaxin-1 at a high concentration induces MMP-3 mRNA production in the chondrocytes. We now show that eotaxin-1-induced MMP-3 expression is through cAMP/PKA and MAP kinase pathways. Eotaxin-1 at a low concentration is able to promote the MMP-3 release into the culture media. The induction of MMP-3 secretion by eotaxin-1 is regulated by PLC/PKC and MAP kinase pathways.
Materials and methods
Eotaxin-1 and IL-1β were purchased from R&D systems (Minneapolis, MN, USA). Inhibitors to ERK (PD98059), MAPK-ERK-kinase (MEK) (U0126), p38 (SB203580), JNK (SP600125), PI-PLC (U73122), PKA (KT5720), calcium (BAPTA-AM), and PKC (chelery chloride) were purchased from Tocris Bioscience (Bristol, UK). Inhibitors to AC (2',5'-dideoxyadenosine), PKA (H-89) and cAMP (Rp-cAMP) were purchased from Biomol International (Plymouth Meeting, PA, USA). Polyclonal antibody against MMP-3 was purchased from Oncogene Science (Cambridge, MA, USA), and antibody of glyceraldehyde 3-phosphate dehydrogenase (GAPDH) was from Zymed Laboratories (S. San Francisco, CA, USA). Materials from human subjects were obtained and processed under the regulation of TMU-Joint Institutional Review Board.
Human SW1353 chondrosarcoma cells were purchased from ATCC (Manassas, VA, USA). Cells were seeded at a high density in Dulbecco's modified Eagle's medium (DMEM) containing 10% fetal bovine serum (FBS) (Gibco BRL), 100 U/ml penicillin and streptomycin, and incubated with 5% CO2 at 37°C. Osteoarthritis knee cartilage was obtained from patients undergoing total joint replacement surgery, and primary chondrocytes were prepared as described previously [32, 33]. Cartilage slices were cut into pieces (2~3 mm3), and chondrocytes were released from articular cartilage by sequential enzymatic digestion with 1 mg/ml hyaluronidase (Sigma Chemical, St. Louis, MO, USA) for 15 min, 0.25% pronase (Sigma Chemical, St. Louis, MO, USA) for 30 min, then 2 mg/ml type II collagenase (Sigma) for 12 h in DMEM containing antibiotics (100 U/ml penicillin, 100 U/ml streptomycin, and 2.5 mg/ml amphotericin B) at 37°C. After filtration through a 100-meshnylon mesh and centrifugation, chondrocyte residues were washed and seeded at a high density in DMEM supplemented with 10% FBS and antibiotics, and incubated with 5% CO2 at 37°C.
Reverse-Transcription Polymerase Chain Reaction (RT-PCR)
Total RNA was isolated from cultured cells, and RT-PCR was performed as described previously . In brief, complementary DNA was synthesized in a 25-μl reaction mixture containing 5 μg of total RNA, 2.5 mM of each dNTP, 1 mM of random hexamer primers, and 10 U of M-MLV reverse transcriptase (Epicentre, Madison, WI), by incubation at 37°C for 90 min. The resulting cDNA (2 μl) was subjected to PCR using Taq DNA polymerase (Epicentre) and specific primers for MMP-3 and GAPDH. MMP-3 forward primer: 5'-CCTCTGATGGCCCAGAATTGA-3'; reverse primer: 5'-GAAATTGGCCACTCCCTGGGT-3' and GAPDH forward primer: 5'-CCACCCCATGGCAAATTCCATGGCA-3'; reverse primer 5'-TCTAGACGGCAGGTCAGGTCCACC-3'. For MMP-3, the PCR protocol was 35 cycles at 94°C for 1 min, 56°C for 1 min, and 72°C for 1 min. In each experiment, amplification of cDNA for the housekeeping gene, GAPDH, was used as an internal standard. PCR products were analyzed on 1.5% agarose gels.
Western blot analysis and determination of MMP-3
Proteins were separated in SDS-PAGE according to standard protocol and transferred onto PVDF-nylon membranes (Millipore). The membrane was blocked with 5% non-fat milk in TBST (10 mM Tris-HCl, pH7.5, 150 mM NaCl, and 0.1% Tween-20) at room temperature for 1 h. After a brief wash, the membrane was incubated with primary antibody diluted in TBST for 60-90 min. The membrane was then washed 3 times with TBST and probed with horseradish peroxidase-conjugated secondary antibody (1:3000, Santa Cruz Biotechnology, Santa Cruz, CA) for 30-60 min. After extensive washes, specific signals were visualized by an enhanced chemiluminescence (ECL) system (Pierce, Rockford, IL) according to the manufacture's instruction. Western bands were digitalized and quantified by UN-SCAN-IT gel 6.1 software (Silk Scientific Inc., Orem, UT, USA).
Cells were suspended in the phosphate-buffered saline (PBS), and were incubated with 0.2 volume of ice-cold 20% trichloroacetic acid on ice for 20 min. The protein sediment was precipitated by centrifugation at 2000 × g for 15 min at 4°C, and the supernatant was adjusted with ice-cold 10 M KOH to pH 7.5. The KClO4 sediment was removed by centrifugation at 2000 × g for 15 min at 4°C. The Ins(1,4,5)P3 level in supernatant was determined using Inositol-1,4,5-Trisphosphate [3H] Radioreceptor Assay Kit (Amersham Biosciences).
The mean and standard deviation (SD) were used to illustrate the results from at least three data sets of each experiment. Statistical significance (p < 0.05) was assessed using Student's test or one-way analysis of variance, followed by a post hoc analysis using Dunnett's test when appropriate.
Eotaxin-1 induces MMP-3 gene expression and protein secretion in human chondrocytes
In our previous study, we found that eotaxin-1 is overexpressed in OA patients . Eotaxin-1 induces MMP-3 mRNA expression in human chondrocytes. Similarly in the present study, we demonstrated that MMP-3 expression in SW1353 chondrosarcoma cells and primary chondrocytes was obviously induced by eotaxin-1 at 30 and 10 ng/ml, respectively (Figure 1A and 1B). It is notable that treatment with eotaxin-1 alone was able to induce MMP-3 expression in both primary chondrocytes and a chondrosarcoma cell line. However, we treated cells with IL-1β in addition to eotaxin-1 in most of further experiments to magnify the overall effects.
In order to check the eotaxin-1-induced MMP-3 protein levels in chondrosarcoma cells, we performed Western blotting using cell lysates and culture media. With only IL-1β treatment (1 ng/ml) for 24 h, MMP-3 protein was present in both the cytosol and culture media. Surprisingly, after treating the cells with 100 ng/ml eotaxin-1 along with IL-1β, MMP-3 protein levels were not detected in cell lysates at the time points from 4 h to 24 h, and only found in the culture media (Figure 2A). The levels of MMP-3 protein in culture media increased with time.
To clarify the effect of eotaxin-1 on MMP-3 secretion, we used actinomycin D (ActD) to eliminate the effects from MMP-3 expression. ActD is an inhibitor of transcription, and has been used, at concentrations ranging from 1 to 10 μg/ml, to inhibit gene expression in human chondrocytes [34, 35]. In the presence of ActD (5 μg/ml or 4 μM), IL-1β-induced MMP-3 protein level in culture media was reduced, especially in primary cell cultures, suggesting efficient suppression of MMP-3 gene by ActD (Figure 2B). Indeed, eotaxin-1 at moderate concentrations still significantly promoted the MMP-3 protein level in culture media after the transcription was inhibited. Since the inhibition of transcription of MMP-3 did not block the effect of eotaxin-1 on promoting MMP-3 levels in culture media, the phenomena may be attributed to the eotaxin-1-enhanced secretion of MMP-3 protein. It was noted that primary cells were less responsive to eotaxin-1 than SW1353. Perhaps the primary chondrocytes from OA patients were customized to high eotaxin-1 concentrations.
It is plausible that eotaxin-1 not only induced MMP-3 gene expression but also promoted the protein secretion into culture media from human chondrocytes.
RANTES and MCP-1 induce MMP-3 gene expression but not protein secretion
Our earlier results also indicated high plasma concentrations of the other two chemokines, RANTES and MCP-1α in OA patients . Therefore we checked their effects on MMP-3 mRNA expression, and protein levels in cells and media. As shown in Figure 3, both RANTES and MCP-1 at moderate concentrations increased the level of MMP-3 mRNA (Figure 3A and 3B, upper panels). Similar to eotaxin-1 and consistent with the previous report, RANTES and MCP-1 are involved in MMP-3 gene regulation. However, greater protein levels of MMP-3 were found in cell lysates than in culture media in both experiments (Figure 3A and 3B, lower panels), suggesting that RANTES and MCP-1 are not involved in regulation of MMP-3 secretion.
MAP kinases are involved in eotaxin-1-induced MMP-3 gene expression and protein secretion
To investigate the pathways that involve eotaxin-1 and MMP-3, we used inhibitors of ERK, p38, and JNK MAP kinases. The eotaxin-1-induced mRNA levels of MMP-3 were apparently decreased by the inhibitors of ERK (PD98059) at 10 μM and p38 (SB203580) at 3 μM, but not JNK (SP600125) at 20 μM (Figure 4A, B and 4C). This suggests the involvement of both ERK and p38 in the regulation of eotaxin-1 signaling through MMP-3 expression in chondrocytes.
The effects of these inhibitors on MMP-3 secretion in the cells were then examined. The ERK and P38 inhibitor concentrations that are higher than those effective in reducing MMP-3 gene expression did not inhibit eotaxin-1-induced MMP-3 protein secretion (Figure 4D). In contrast, a low concentration of JNK inhibitor significantly reduced MMP-3 protein secretion which was induced by eotaxin-1 in a dose-dependent manner. This indicates a role for JNK in the pathway of eotaxin-1-induced MMP-3 protein secretion in chondrocytes.
AC/PKA is inhibitory in eotaxin-1-induced MMP-3 gene expression
Rp-cAMP inhibits cAMP on the activation of downstream proteins, such as PKA. Chondrosarcoma cells were pretreated with Rp-cAMP prior to the treatment with eotaxin-1. Interestingly Rp-cAMP increased the level of eotaxin-1-induced MMP-3 mRNA at moderate concentrations (Figure 5A). Consistent with the finding, PKA inhibitor also increased the level of MMP-3 mRNA at low concentrations. These results indicate that AC/PKA is inhibitory in eotaxin-1 signal transduction by down-regulating MMP-3 expression. Eotaxin-1 may indeed activate MAP kinases by inhibiting AC/PKA activities.
PI-PLC is involved in eotaxin-1-induced MMP-3 protein secretion
IP3 is a catalytic product of PLC, and IP3 level indicates the activity of PI-PLC pathways. As shown in Figure 6A, IP3 levels were increased by eotaxin-1 in a dose-dependent manner. Eotaxin-1 may activate phospholipase C, and increase the production of IP3 at a concentration lower than 100 ng/ml. Cells were further tested by treating with inhibitors of PLC (U73122), calcium (BAPTA-AM), PKC (Chelery chloride), or adenylate cyclase (ACi) prior to the treatment with eotaxin-1 (10 ng/ml). The levels of secreted MMP-3 protein were decreased in a dose-dependent manner by inhibitors of PLC, calcium and PKC, but not adenylate cyclase (Figure 6B). These data indicate that both PLC/PKC pathway and the calcium influx may be involved in eotaxin-1-induced MMP-3 protein secretion.
Chondrocytes are major cells of cartilage in joints, and are implicated in the pathology of OA which is a multifactorial disease. One of the factors is imbalance of MMPs. In our previous study, MMP-3 is highly correlative with OA by increasing collagen degradation in the cartilage matrix . In the plasma and synovial fluid of OA patient, two catabolic cytokines, IL-1β and TNF-α, and several chemokines including eotaxin-1 were highly expressed. The release of MMP-3 from chondrocytes and synoviocytes in response to the stimulations may play a major role in the progressive cartilage disruption in OA patients. In this study, the signal transduction pathways regulating MMP-3 gene expression and protein secretion in response to eotaxin-1 in human chondrocytes were investigated. The results demonstrated that the three examined chemokines (RANTES, MCP-1, and eotaxin-1) were able to induce the expression of MMP-3; however, only eotaxin-1 was able to promote the secretion of MMP-3 from the cells. Further experiments demonstrated that eotaxin-1 may inhibit cAMP/PKA, and activate ERK and p38 MAP kinases to induce MMP-3 expression (Figure 7A). Meanwhile eotaxin-1 signaling may also be mediated by PLC-PKC cascade, and JNK MAP kinase pathway to promote MMP-3 secretion (Figure 7B).
The eotaxin-1 receptor CCR3 expressed on SW1353 chondrosarcoma cells belongs to the family of G protein-coupled receptors. The effects of eotaxin-1 were sensitive to pertussis toxin. Eotaxin-1 stimulation results in a rapid decrease of cAMP levels indicating association of the eotaxin-1 receptors with G αi proteins. Addition of cAMP inhibitor (Rp-cAMP) enhanced the effects of eotaxin-1-induced transcription (Figure 5A). This finding supports that cAMP plays a central role in eotaxin-1-induced MMP-3 expression. A key target for cAMP is PKA. The PKA inhibitor also increased the effects of eotaxin-1 by inducing MMP-3 transcription in chondrosarcoma cells (Figure 5B). These results indicate that AC/PKA negatively modulates transcription of MMP-3 in chondrosarcoma cells.
MEK lies at the key point of a signaling network that controls cell proliferation, neoplastic transformation, and differentiation. Many of these effects are transmitted via the MAP kinase pathway. The inhibitors of ERK and p38 MAP kinases decreased the mRNA level of MMP-3 (Figure 4A and 4B). It implicates that these MAP kinases are involved in MMP-3 transcription induced by eotaxin-1. Similar effect by other chemokines in human articular chondrocytes was also reported recently . The cross-talk of PKA and MAP kinase pathways was discussed in previous studies [19, 37]. MAP kinases are regulated by cAMP/PKA pathway, and PKA also cross-talks with Raf-1, indicating that MAPK could control transcription through AP-1 and NF-κ B. These observations conclude direct relevance of eotaxin-1 to MMP-3 expression in osteoarthritis.
Interestingly, the JNK inhibitor, SP600125, did not inhibit eotaxin-1-induced MMP-3 expression at relatively high concentrations (Figure 4C). Similar effects of different stimuli on MAP kinase pathways to MMP expression in chondrocytes were also reported in recent studies. Leptin, produced by joint white adipose tissue, induced MMP-1 and MMP-13 expression in chondrocytes . Inhibitors of ERK and p38 pathways significantly reduced those MMPs expression; however, JNK inhibition had no effect on leptin-induced MMP-13 expression. Mechanical stress-induced MMP-13 was down-regulated by p38 inhibitor SB203580 but not by the ERK inhibitor U0126, or the JNK inhibitor JNK inhibitor II in another report in another report . The JNK seemed to distinguish itself from other MAP kinases in regulating MMP activities in chondrocytes. Indeed, our data suggested an important pathway for eotaxin-1 to stimulate MMP secretion via JNK MAP kinase (Figure 4D and 7B).
Since the Gi protein is one of the subunits composed of eotaxin-1 receptor, CCR3, it is believed that Gi-coupled receptors are primarily mediated by βγ-subunit complex to activate MAP kinase. One mechanism appears to be PI3K dependent. Signaling from PI3K to MAP kinase pathway requires a tyrosine kinase, indicating that the GPCR is involved. It is known that binding of eotaxin-1 to CCR3 activates not only Gα i subunit but also G βγ that potentially related to protein secretion . PLC is the key molecule of regulating protein secretion pathways. Stimulation of chemokine receptors rapidly activates PI-specific PLC, which leads to IP3 formation and a transient rise in the concentration of intracellular free calcium. Our data show that inhibition of PLC by U73122 abolishes eotaxin-1-induced MMP-3 release (Figure 6B). This is evident that PI/PLC is involved in the regulation of MMP-3 secretion pathway induced by eotaxin-1. There were studies showing the involvement of PLC in gene regulation of MMP-3 in fibroblasts  and other MMPs in chondrosarcoma cells . It is possible that PLC is also involved in the eotaxin-1-induced MMP-3 gene expression. Further experiments may be performed in future studies.
Activated PLC has been reported to stimulate IP3, calcium influx, and PKC in a number of cell types. The stimulation of neutrophils by receptor-binding ligands can activate PLC with the formation of IP3 which releases Ca2+ from intracellular storage, and DAG which activates PKC . Indeed our results show that eotaxin-1 stimulation resulted in a rapid increase of IP3 levels, and inhibition of calcium and PKC decreases the MMP-3 protein secretion induced by eotaxin-1 (Figure 6). The MMP-3 protein secretion induced by eotaxin-1 is, thereby, calcium dependent, and associated with G βγ proteins and PLC. Moreover, eotaxin-1-activated PLC not only induced intracellular calcium release but also activated PKC. Activation of PKC by eotaxin-1 suggests a potential role for PKC-induced MMPs in the mechanisms responsible for membrane rupture. Recent studies showed that activation of PKC is involved in the induction of MMP secretion by cytokines in smooth muscle cells . Our data clearly show that PKC inhibitor significantly decreased the secretion of MMP-3 in a dose-dependent manner. PKC is, therefore, involved in eotaxin-1-induced MMP-3 secretion pathway.
Human chondrocytes respond to the stimulation of eotaxin-1 by up-regulating MMP-3 expression and secretion, which may be mediated by G αi and G βγ subunits of G-coupled protein receptor, respectively. High concentrations of eotaxin-1 inactivate cAMP/PKA, and spark ERK and p38 MAP kinases to regulate MMP-3 transcription. Yet, at low concentrations, eotaxin-1 activates PI3K and JNK MAP kinase to stimulate secretion of MMP-3, which plays an important role in OA pathogenesis. Critically, eotaxin-1 not only induces MMP-3 transcription but also enhances MMP-3 secretion. Our results shed light on key roles of eotaxin-1 in cartilage destruction in OA, and suggest a potential diagnostic and therapeutic target for this disease.
CC chemokine eotaxin-1
CC chemokine receptors
Dulbecco's modified Eagle's medium
extracellular signal-regulated kinase
fetal bovine serum
inositol 1,4,5 triphosphate
glyceraldehyde 3-phosphate dehydrogenase
c-Jun N-terminal kinase
monocyte chemoattractant protein 1
protein kinase A
protein kinase C
regulated upon activation of normal T cell expression and secretion
reverse-transcription polymerase chain reaction
Yuan GH, Masuko-Hongo K, Kato T, Nishioka K: Immunologic intervention in the pathogenesis of osteoarthritis. Arthritis Rheum. 2003, 48 (3): 602-611. 10.1002/art.10768.
Tsai SH, Sheu MT, Liang YC, Cheng HT, Fang SS, Chen CH: TGF-beta inhibits IL-1beta-activated PAR-2 expression through multiple pathways in human primary synovial cells. J Biomed Sci. 2009, 16: 97-10.1186/1423-0127-16-97.
Mort JS, Billington CJ: Articular cartilage and changes in arthritis: matrix degradation. Arthritis Res. 2001, 3 (6): 337-341. 10.1186/ar325.
Sofat N: Analysing the role of endogenous matrix molecules in the development of osteoarthritis. International Journal of Experimental Pathology. 2009, 90 (5): 463-479. 10.1111/j.1365-2613.2009.00676.x.
Moos V, Fickert S, Muller B, Weber U, Sieper J: Immunohistological analysis of cytokine expression in human osteoarthritic and healthy cartilage. J Rheumatol. 1999, 26 (4): 870-879.
Attur MG, Dave M, Cipolletta C, Kang P, Goldring MB, Patel IR, Abramson SB, Amin AR: Reversal of autocrine and paracrine effects of interleukin 1 (IL-1) in human arthritis by type II IL-1 decoy receptor. Potential for pharmacological intervention. J Biol Chem. 2000, 275 (51): 40307-40315. 10.1074/jbc.M002721200.
Vergunst CE, van de Sande MGH, Lebre MC, Tak PP: The role of chemokines in rheumatoid arthritis and osteoarthritis. Scandinavian Journal of Rheumatology. 2005, 34 (6): 415-425. 10.1080/03009740500439159.
Goldring MB: Osteoarthritis and cartilage: the role of cytokines. Curr Rheumatol Rep. 2000, 2 (6): 459-465. 10.1007/s11926-000-0021-y.
Baggiolini M, Dewald B, Moser B: Human chemokines: an update. Annu Rev Immunol. 1997, 15: 675-705. 10.1146/annurev.immunol.15.1.675.
Koch AE, Kunkel SL, Harlow LA, Johnson B, Evanoff HL, Haines GK, Burdick MD, Pope RM, Strieter RM: Enhanced production of monocyte chemoattractant protein-1 in rheumatoid arthritis. J Clin Invest. 1992, 90 (3): 772-779. 10.1172/JCI115950.
Rathanaswami P, Hachicha M, Sadick M, Schall TJ, McColl SR: Expression of the cytokine RANTES in human rheumatoid synovial fibroblasts. Differential regulation of RANTES and interleukin-8 genes by inflammatory cytokines. J Biol Chem. 1993, 268 (8): 5834-5839.
Alaaeddine N, Olee T, Hashimoto S, Creighton-Achermann L, Lotz M: Production of the chemokine RANTES by articular chondrocytes and role in cartilage degradation. Arthritis Rheum. 2001, 44 (7): 1633-1643. 10.1002/1529-0131(200107)44:7<1633::AID-ART286>3.0.CO;2-Z.
Hsu Y-H, Hsieh M-S, Liang Y-C, Li C-Y, Sheu M-T, Chou D-T, Chen T-F, Chen C-H: Production of the chemokine eotaxin-1 in osteoarthritis and its role in cartilage degradation. Journal of Cellular Biochemistry. 2004, 93 (5): 929-939. 10.1002/jcb.20239.
Kokkonen H, Söderström I, Rocklöv J, Hallmans G, Lejon K, Rantapää Dahlqvist S: Up-regulation of cytokines and chemokines predates the onset of rheumatoid arthritis. Arthritis & Rheumatism. 2010, 62 (2): 383-391.
Jose PJ, Griffiths-Johnson DA, Collins PD, Walsh DT, Moqbel R, Totty NF, Truong O, Hsuan JJ, Williams TJ: Eotaxin: a potent eosinophil chemoattractant cytokine detected in a guinea pig model of allergic airways inflammation. J Exp Med. 1994, 179 (3): 881-887. 10.1084/jem.179.3.881.
Ogilvie P, Bardi G, Clark-Lewis I, Baggiolini M, Uguccioni M: Eotaxin is a natural antagonist for CCR2 and an agonist for CCR5. Blood. 2001, 97 (7): 1920-1924. 10.1182/blood.V97.7.1920.
Kitaura M, Nakajima T, Imai T, Harada S, Combadiere C, Tiffany HL, Murphy PM, Yoshie O: Molecular Cloning of Human Eotaxin, an Eosinophil-selective CC Chemokine, and Identification of a Specific Eosinophil Eotaxin Receptor, CC Chemokine Receptor 3. Journal of Biological Chemistry. 1996, 271 (13): 7725-7730. 10.1074/jbc.271.13.7725.
Neves SR, Ram PT, Iyengar R: G protein pathways. Science. 2002, 296 (5573): 1636-1639. 10.1126/science.1071550.
Stork PJ, Schmitt JM: Crosstalk between cAMP and MAP kinase signaling in the regulation of cell proliferation. Trends Cell Biol. 2002, 12 (6): 258-266. 10.1016/S0962-8924(02)02294-8.
Kawasaki H, Springett GM, Mochizuki N, Toki S, Nakaya M, Matsuda M, Housman DE, Graybiel AM: A family of cAMP-binding proteins that directly activate Rap1. Science. 1998, 282 (5397): 2275-2279.
Kim CH, Park YG, Noh SH, Kim YK: PGE2 induces the gene expression of bone matrix metalloproteinase-1 in mouse osteoblasts by cAMP-PKA signaling pathway. Int J Biochem Cell Biol. 2005, 37 (2): 375-385. 10.1016/j.biocel.2004.07.013.
Mazzocchi G, Rebuffat P, Ziolkowska A, Rossi GP, Malendowicz LK, Nussdorfer GG: G protein receptors 7 and 8 are expressed in human adrenocortical cells, and their endogenous ligands neuropeptides B and w enhance cortisol secretion by activating adenylate cyclase- and phospholipase C-dependent signaling cascades. J Clin Endocrinol Metab. 2005, 90 (6): 3466-3471. 10.1210/jc.2004-2132.
Hooper NM, Cook S, Laine J, Lebel D: Identification of membrane dipeptidase as a major glycosyl-phosphatidylinositol-anchored protein of the pancreatic zymogen granule membrane, and evidence for its release by phospholipase A. Biochem J. 1997, 324 (Pt 1): 151-157.
Niwa T, Matsukawa Y, Senda T, Nimura Y, Hidaka H, Niki I: Acetylcholine activates intracellular movement of insulin granules in pancreatic beta-cells via inositol trisphosphate-dependent [correction of triphosphate-dependent] mobilization of intracellular Ca2+. Diabetes. 1998, 47 (11): 1699-1706. 10.2337/diabetes.47.11.1699.
Foster RH, MacFarlane CH, Bustamante MO: Recent progress in understanding aldosterone secretion. Gen Pharmacol. 1997, 28 (5): 647-651. 10.1016/S0306-3623(96)00290-X.
Husain S, Jafri F, Crosson CE: Acute effects of PGF2alpha on MMP-2 secretion from human ciliary muscle cells: a PKC- and ERK-dependent process. Invest Ophthalmol Vis Sci. 2005, 46 (5): 1706-1713. 10.1167/iovs.04-0993.
Edwin SS, Romero R, Rathnasabapathy CM, Athaydel N, Armant DR, Subramanian MG: Protein kinase C stimulates release of matrix metalloproteinase-9 and tissue inhibitor of metalloproteinase-1 by human decidual cells. J Matern Fetal Neonatal Med. 2002, 12 (4): 231-236. 10.1080/jmf.220.127.116.11.
Shearer T, Crosson CE: Activation of extracellular signal-regulated kinase in trabecular meshwork cells. Exp Eye Res. 2001, 73 (1): 25-35. 10.1006/exer.2001.1007.
Chakraborti S, Mandal M, Das S, Mandal A, Chakraborti T: Regulation of matrix metalloproteinases: an overview. Mol Cell Biochem. 2003, 253 (1-2): 269-285.
Mengshol JA, Vincenti MP, Coon CI, Barchowsky A, Brinckerhoff CE: Interleukin-1 induction of collagenase 3 (matrix metalloproteinase 13) gene expression in chondrocytes requires p38, c-Jun N-terminal kinase, and nuclear factor kappaB: differential regulation of collagenase 1 and collagenase 3. Arthritis Rheum. 2000, 43 (4): 801-811. 10.1002/1529-0131(200004)43:4<801::AID-ANR10>3.0.CO;2-4.
Yang CM, Chien CS, Yao CC, Hsiao LD, Huang YC, Wu CB: Mechanical strain induces collagenase-3 (MMP-13) expression in MC3T3-E1 osteoblastic cells. J Biol Chem. 2004, 279 (21): 22158-22165. 10.1074/jbc.M401343200.
Wang KC, Lin YF, Qin CH, Chen TL, Chen CH: Bisphenol-A interferes with estradiol-mediated protection in osteoarthritic chondrocytes. Toxicol Lett. 2010, 198 (2): 127-133. 10.1016/j.toxlet.2010.06.007.
Chen TL, Lin YF, Cheng CW, Chen SY, Sheu MT, Leung TK, Qin CH, Chen CH: Anti-Inflammatory mechanisms of the proteinase-activated receptor 2-inhibiting peptide in human synovial cells. J Biomed Sci. 2011, 18: 43-10.1186/1423-0127-18-43.
Zhang Z, Xing X, Hensley G, Chang LW, Liao W, Abu-Amer Y, Sandell LJ: Resistin induces expression of proinflammatory cytokines and chemokines in human articular chondrocytes via transcription and messenger RNA stabilization. Arthritis Rheum. 2010, 62 (7): 1993-2003.
Tew SR, Hardingham TE: Regulation of SOX9 mRNA in human articular chondrocytes involving p38 MAPK activation and mRNA stabilization. J Biol Chem. 2006, 281 (51): 39471-39479. 10.1074/jbc.M604322200.
Berg V, Sveinbjornsson B, Bendiksen S, Brox J, Meknas K, Figenschau Y: Human articular chondrocytes express ChemR23 and chemerin; ChemR23 promotes inflammatory signalling upon binding the ligand chemerin21-157. Arthritis Research & Therapy. 2010, 12 (6): R228-10.1186/ar3215.
Zhang Y, Luo Y, Zhai Q, Ma L, Dorf ME: Negative role of cAMP-dependent protein kinase A in RANTES-mediated transcription of proinflammatory mediators through Raf. FASEB J. 2003, 17 (6): 734-736.
Hui W, Litherland GJ, Elias MS, Kitson GI, Cawston TE, Rowan AD, Young DA: Leptin produced by joint white adipose tissue induces cartilage degradation via upregulation and activation of matrix metalloproteinases. Ann Rheum Dis. 2011
T T, K N, T F, K N, S H, A Y, T S, T O: Regulation of mechanical stress-induced MMP-13 and ADAMTS-5 expression by RUNX-2. Osteoarthritis Cartilage. 2011, 19 (2): 222-32. 10.1016/j.joca.2010.11.004. Epub 2010 Nov 19. (1522-9653 (Electronic)):222-232, 2011
Thelen M: Dancing to the tune of chemokines. Nat Immunol. 2001, 2 (2): 129-134. 10.1038/84224.
Shin SY, Choi HY, Ahn B-H, Min DS, Son SW, Lee YH: Phospholipase Cγ1 stimulates transcriptional activation of the matrix metalloproteinase-3 gene via the protein kinase C/Raf/ERK cascade. Biochemical and Biophysical Research Communications. 2007, 353 (3): 611-616. 10.1016/j.bbrc.2006.12.064.
Chen H-T, Tsou H-K, Tsai C-H, Kuo C-C, Chiang Y-K, Chang C-H, Fong Y-C, Tang C-H: Thrombin enhanced migration and MMPs expression of human chondrosarcoma cells involves PAR receptor signaling pathway. Journal of Cellular Physiology. 2010, 223 (3): 737-745.
Chen LL, Johansson JK, Hodges RR, Zoukhri D, Ghinelli E, Rios JD, Dartt DA: Differential effects of the EGF family of growth factors on protein secretion, MAPK activation, and intracellular calcium concentration in rat lacrimal gland. Exp Eye Res. 2005, 80 (3): 379-389. 10.1016/j.exer.2004.10.006.
Hussain S, Assender JW, Bond M, Wong LF, Murphy D, Newby AC: Activation of protein kinase Czeta is essential for cytokine-induced metalloproteinase-1, -3, and -9 secretion from rabbit smooth muscle cells and inhibits proliferation. J Biol Chem. 2002, 277 (30): 27345-27352. 10.1074/jbc.M111890200.
We thank Dr. Yu-Chih Liang in the School of Medical Laboratory Science and Biotechnology at Taipei Medical University for his suggestions on experiments, and Ms. Chia-Pei Lin for her helps on experiment preparation. This work was supported by Shuang-Ho Hospital, Taiwan (99TMU-SHH-10), Taipei Medical University, Taiwan (TMU99-AE1-B08) and the National Science Council of Taiwan (NSC98-2314-B-038-005-MY3).
The authors declare that they have no competing interests.
PZC designed and performed research. MSH performed research and wrote paper. CWC analyzed data. YFL analyzed data and wrote paper. CHC designed research and wrote paper.
Pin-Zhir Chao, Ming-Shium Hsieh contributed equally to this work.
Authors’ original submitted files for images
Below are the links to the authors’ original submitted files for images.
About this article
Cite this article
Chao, P., Hsieh, M., Cheng, C. et al. Regulation of MMP-3 expression and secretion by the chemokine eotaxin-1 in human chondrocytes. J Biomed Sci 18, 86 (2011). https://doi.org/10.1186/1423-0127-18-86
- cartilage degradation