The Role of MMP8 in Cancer: A Systematic Review
Abstract
:1. Introduction
2. Results
2.1. The Potential Use of MMP8 for Evaluating Cancer Prognosis
2.1.1. Analysis of Tumoral MMP8 on Protein and mRNA Level
2.1.1.1. No Clear Evidence for the Use of MMP8 Protein as a Prognostic Factor in Breast Cancer
2.1.1.2. The Prognostic Value of Tumoral MMP8 Protein Levels in Skin Cancer Depends on the Subtype
2.1.1.3. Tumoral MMP8 Protein Level is an Applicable Biomarker Only in Tongue SCC among All Head and Neck SCCs
2.1.1.4. Tumoral MMP8 Protein Level Associated with Malignancy in Ovarian and Liver Cancer and Variates in Colorectal and Gastric Cancer
2.1.1.5. MMP8 mRNA Expression is Rarely Detected in Patient Samples
2.1.2. MMP8 Levels in the Serum or Plasma
2.1.2.1. MMP8 Levels Increase with Malignancy in HNSCC Patients
2.1.2.2. High Serum MMP8 Level in Digestive System Cancers Predict Worse Prognosis
2.1.2.3. The Prognostic Value of Circulating MMP8 Levels in Other Cancers Requires More Studies
2.1.3. Genetics of MMP8 in Cancer
2.1.3.1. The SNP rs1122539 Protects from Breast and Bladder Cancer but Increases the Risk of Melanoma and Ovarian Cancer
2.1.3.2. Fluctuating Findings on the Effect of SNP rs1940475
2.1.3.3. Other MMP8 SNPs Also Decrease Cancer Risks
2.1.3.4. Studies on Somatic and Epigenetic Changes Strengthen the View of Active MMP8 as a Tumor-Suppressive Factor
2.2. In Vitro Experimental Evidence and In Vivo Mouse Studies Elucidate the Molecular Mechanisms of MMP8 in Cancers
2.2.1. Studies in Skin Cancer Paved the Way for the Idea of Tumor-Suppressive MMP8
2.2.2. MMP8 Has Fluctuating Expression Profiles in Breast Cancer Cells In Vitro, but Rather Consistent Tumor-Protective Effects In Vivo
2.2.3. Tumor-Protective Molecular Mechanisms of MMP8
2.2.4. Tumor-Promoting Molecular Mechanisms of MMP8
2.2.5. MMP8 Expression Is Not Detected at All in Some Cancer Cell Lines
2.3. The Potential of MMP8 in Cancer Treatment
2.3.1. Using MMP8 as a Pharmaceutical Adjuvant Shows Promising Results
2.3.2. Cancer Treatments Affect MMP8 Levels in Tumors
2.3.3. High MMP8 Levels Can Guide Treatment Choices and Indicate Harmful Post-Operative Reactions in Some Patients
2.3.4. MMP8 as an Anti-Target for MMP Inhibitors
3. Discussion
4. Materials and Methods
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
Abbreviations
DFS | Disease-free survival |
ECM | Extracellular matrix |
EMT | Epithelial-mesenchymal transition |
HNSCC | Head and neck squamous cell carcinoma |
MMP | Matrix metalloproteinase |
MMP8 | Matrix metalloproteinase 8 |
MMPI | Matrix metalloproteinase inhibitor |
OS | Overall survival |
OSCC | Oral squamous cell carcinoma |
OTSCC | Oral tongue squamous cell carcinoma |
PMN | Polymorphonuclear neutrophils |
RFS | Recurrence- or relapse-free survival |
SCC | Squamous cell carcinoma |
SNP | Single nucleotide polymorphism |
TGF-β1 | Transforming growth factor β1 |
TIMP-1 | Metalloproteinase inhibitor 1 |
VEGF-C | Vascular endothelial growth factor C |
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Cancer | Focus | Method | Study Size (Patients + Healthy Controls) | Expression and Prognosis (p-Value) | Authors |
---|---|---|---|---|---|
Bladder | mRNA | RT-PCR | 113 + 20 | Positively correlates with tumor grade (p < 0.001). | Wallard et al. 2006 [22] |
Bone | Protein | IHC | 25 + 0 | 5/10 resection samples and 11/22 biopsies but 0/3 metastases show MMP8 staining. | Korpi et al. 2011 [23] |
mRNA | RT-PCR | 29 + 0 | 5/29 chondrosarcoma tumors show expression. | Scully et al. 1999 [24] | |
Breast | mRNA | RT-PCR | 39 + 16 | Trend to positive correlation with tumor grade (ns). | Benson et al. 2013 [25] |
Protein, mRNA | RT-PCR, WB, IHC | 20 + 5 | No difference in mRNA. Protein correlates with stage (p ≤ 0.05). | Köhrmann et al. 2009 [26] | |
Protein, mRNA | IHC, RT-PCR | 280 IHC, 250 RT-PCR + 10 | mRNA expression negatively correlates with LN involvement (p = 0.006). Better survival of patients without adjuvant therapy (p = 0.009). | Gutierrez-Fernandez et al. 2008 [27] | |
mRNA | Microarray | 295 + 0 | No correlation to clinicopathological features. | McGowan & Duffy 2008 [28] | |
Luminal A; mRNA | RT-PCR | 25 + 0 | No correlation to clinicopathological features. | Decock et al. 2007 [29] | |
Protein | ELISA | 55 + 0 | No correlation to tumor size or LN metastasis. | Duffy et al. 1995 [30] | |
Colorectal | Protein | IHC | 548 + 0 | No correlation with clinicopathological features or prognosis. | Koskensalo et al. 2012 [31] |
Protein | IHC | 5 + 0 | Very little staining (0.1–5%) in cancer cells. | Väyrynen et al. 2012 [32] | |
Protein | ELISA | 100 + 0 | Correlation with malignancy (p = NR). | Verspaget et al. 1999 [33] | |
Protein | IHC | 121 + 0 | No expression in cancer cells. | Takeha et al. 1997 [34] | |
Gastric | Protein | IHC | 276 + 0 | Negative staining associates with stage I cancer (p = 0.022), T1 tumor (p = 0.005), diffuse type (p < 0.001), no LN metastasis (p = 0.016) and age under 67 (p = 0.007). Better prognosis for women with negative staining (p = 0.026). | Laitinen et al. 2018 [35] |
mRNA | RT-PCR | 34 + 34 | Lower mRNA expression in cancer tissue compared to paired healthy tissue. | Lin et al. 2017 [36] | |
mRNA | RT-PCR | 17 + 22 | No difference between patients and controls and no correlation to clinicopathological features. | de la Pena et al. 2014 [37] | |
Protein | ELISA | 81 + 0 | Expression higher (p ≤ 0.001) esp. in well-differentiated (p ≤ 0.002) tumors. No correlation to survival. | Kubben et al. 2006 [38] | |
Head and neck | OTSCC; protein | IHC | 57 + 0 | High VEGF-C (p = 0.001) and low MMP8 level (p = 0.01) correlate with shorter CSS, combined VEGF-C+/MMP8- status correlate with poor CSS (p < 0.001). No correlation to clinicopathological variables. | Åström et al. 2017 [39] |
OSCC, CSCC; protein | IHC | 36 OSCC, 25 CSCC + 0 | No correlation to clinicopathological features or overall survival. | Ahmed Haji Omar et al. 2015 [40] | |
OSCC; protein | IHC | 25 + 0 | 5/25 tumors showed moderate levels. | Lawal et al. 2015 [41] | |
OTSCC: protein | IHC | 70 + 0 | No correlation to clinicopathological features. | Mäkinen et al. 2012 [42] | |
Larynx; protein | AG array | 7 + 5 | Levels higher compared to normal mucosa (p = NR). | Korampalli et al. 2011 [43] | |
OTSCC; protein | IHC | 90 + 0 | Correlation to better prognosis and lower-case fatality (p < 0.05). | Korpi et al. 2008 [44] | |
SL, SCC; protein, mRNA | IHC, RT-PCR | 32 + 32 | <20% tumors showed expression (mRNA/protein). | Xie et al. 2004 [45] | |
SG; protein | EIA | 23 + 23 | No differences to normal tissue. | Kayano et al. 2004 [46] | |
SCC; protein, mRNA | IHC, ISH | 19 + 0 | Low mRNA expression and protein levels in all samples. | Moilanen et al. 2002 [47] | |
Liver | Protein | IHC | 73 + 0 | Co-overexpression with TGF-β1 predicts poor prognosis in HCC patients (p < 0.025). Correlation to cancer stage (p = 0.038) and metastasis (p = 0.049). | Qin et al. 2016 [48] |
Lung | Protein | FACS | 22 SCC, 19 AC + 0 | Higher in tumor (p = 0.0084) and SCC vs AC (p = 0.0023). Trend towards positive correlation with recurrence (ns). | Shah et al. 2010 [49] |
Ovarian | Protein | IHC | 302 + 0 | Correlation to tumor stage (p ≤ 0.01), grade (p ≤ 0.01) and poor prognosis (p = 0.019). | Stadlmann et al. 2003 [50] |
Protein | NR | NR | High MMP8 levels in ovarian cyst fluid are associated with malignancy (p = NR). | Stenman et al. 2003 [51] | |
Pancreas | Protein | LC-MS | 9 SS, 10 LS + 0 | MMP8 upregulated in SS group (p < 0.05). | Hu et al. 2018 [52] |
Protein, mRNA | IHC, RT-PCR | 45 + 10 | Expression higher (p = 0.04) in tumor versus healthy tissue. No correlation to clinicopathological features or survival. No mRNA found. | Jones et al. 2004 [53] | |
Skin | nBCC; protein, mRNA | RT-PCR, WB | 22 + 22 | Higher levels in nBCC tumors (p < 0.0001), but no differences in mRNA expression. | Ciążyńska et al. 2018 [54] |
SCC; protein | IHC | 31 KA, 15 SCC + 0 | More frequent levels in keratoacanthomas compared to SCCs (ns) | Kuivanen et al. 2006 [55] | |
SCC; protein | IHC | 9 SCC, 31 leg ulcers + 0 | Cannot distinguish between non-malignant leg ulcers and SCC. | Impola et al. 2005 [56] | |
Melanoma; protein | IHC | 10 + 0 | Correlates with invasiveness (p = NR). | Giambernardi et al. 2001 [57] | |
BCC; protein | IHC | 54 +16 | No correlation to collagenolytic activity. | Varani et al. 2000 [58] | |
Soft tissue | Protein | ICC | 39 + 0 | 6/39 tumors have MMP8 staining. | Roebuck et al. 2005 [59] |
Thyroid | mRNA | cDNA array | 131 + 0 | Higher expression in malignant neoplasms compared to benign. | Kebebew et al. 2005 [60] |
Uterine | Protein | EIA, IHC | 53 + 30 | Higher expression (p < 0.05) in patients. No correlation to clinicopathological features. | Ueno et al. 1999 [61] |
Cancer. | Plasma/Serum | Method | Study Size (Patients + Healthy Controls) | Expression and Prognosis | Authors |
---|---|---|---|---|---|
Breast | Serum | Microarray | 11 + 10 | Higher in patients (p = 0.001). | Li et al. 2017 [72] |
Plasma | ELISA | 208 + 42 | Higher in patients with non-inflammatory breast cancer (p = 0.007). Associated with premenopausal status (p = 0.06), NPI (p = 0.04) and lymph node involvement (pN1-2 p = 0.001). Lower levels in patients with risk of distant metastasis (pN3, p = 0.003). | Decock et al. 2008 [73] | |
Colorectal | Serum | IFMA | 335 + 47 | Higher in patients with advanced disease (Dukes classification p < 0.001, T status p = 0.004), distant metastasis (p < 0.001), tumor in right side of colon (p = 0.038). Correlation to worse overall survival (p = 0.005) | Böckelman et al. 2018 [74] |
Serum | IFMA | 271 + 0 | Higher is patients with high mGPS (p < 0.001). Negative correlation with tumor-infiltrating mast cells in invasive margin (p = 0.005) and tumor centre (p = 0.010). Correlation with poor cancer-specific survival (p = 0.009). | Sirniö et al. 2018 [75] | |
Serum | IFMA | 116 + 83 | Higher in patients (p = 0.0000000015). Correlation with TNM stage (p = 0.00045), T status (p = 0.0035), distant metastasis (p = 0.000054), CLR (p = 0.0057), necrosis (p = 0.0024), high neutrophil and leukocyte cell count (p < 0.05) and peritumoral tumor-destructing inflammatory cell infiltrate (p = 0.041). | Väyrynen et al. 2012 [32] | |
Esophagus | Serum | Microarray | 10 + 10 | Lower expression in patients (p < 0.01). | Tong et al. 2018 [76] |
Gastric | Serum | IFMA | 233 + 0 | Higher expression in patients with intestinal cancer (p = 0.044). Patients with intermediate (31–131 ng/mL) serum MMP8 levels had better prognosis (p = 0.002). | Laitinen et al. 2018 [35] |
Head and neck | Serum | IFMA | 33 SCC, 175 benign + 0 | Higher in tonsillar SCC patients compared to patients with benign tonsillar disease (p = NR). | Ilmarinen et al. 2017 [66] |
Plasma | IFMA | 198 + 0 | Trend towards favorable outcome (ns.). | Nurmenniemi et al. 2012 [77] | |
Plasma | IFMA | 136 + 0 | Does not correlate with survival or lymph node involvement. | Pradhan-Palikhe et al. 2010 [78] | |
Serum | EIA | 59 + 0 | Higher than healthy persons (p < 0.05). Correlation with tumor stage (p = NR). | Kuropkat et al. 2004 [79] | |
Serum | NR | 73 + 74 | Higher than healthy persons, correlation with overall TNM status (p = NR). | Kuropkat et al. 2002 [80] | |
Kidney | Serum | ELISA | 43+ 10 | Surgery lowers MMP-8 levels (p = NR). | Kołomecki et al. 2001 [81] |
Liver | Serum | IFMA | 134 + 0 | Worse overall survival (p = 0.013). Correlation to BCLC criteria (p < 0.0001) and tumor size (p < 0.0001). | Lempinen et al. 2013 [82] |
Melanoma | Serum | IFMA | 117 + 0 | Elevated in vascular-invading (p = 0.001), ulcerating (p = 0.003) and bleeding (p = 0.033) melanomas. Correlation to worse outcome (p = 0.023). | Vihinen et al. 2008 [83] |
Nerves | Plasma | NR | 14 + 0 | Elevated in carotid body cancer patients (p = NR). | Serra et al. 2014 [84] |
Pancreas | Serum | MAP kit | 109 + 40 | Expression higher in cancer patients (p = 0.0001). | Park et al. 2012 [85] |
Thyroid | Plasma | ELISA | 22 + 0 | No correlation with tumor presence (p = NR). | Komorowski et al. 2002 [86] |
Urothelial | Plasma | FACS | 135 + 0 | No correlation to clinical stage or cancer specific mortality in high-grade tumors. | Svatek et al. 2010 [87] |
Cancer | SNPs | Study Size (Patients + Healthy Controls) | Effect on Patient (p-Value) | Authors |
---|---|---|---|---|
Bladder | rs11225395, rs35866072, rs34009635 | 375 + 375 | No effect on bladder cancer risk. | Tsai et al. 2018 [90] |
rs11225395 | 200 + 200 | Reduced risk of bladder cancer (p = 0.006). | Srivastava et al. 2013 [91] | |
rs1940475 | 243 invasive, 315 superficial | Protects from invasive phenotype in former smokers (p = 0.05). | Kader et al. 2007 [92] | |
rs1940475 | 560 + 560 | Trend to increased risk of invasive bladder cancer in never smokers (ns.). | Kader et al. 2006 [93] | |
Breast | rs11225395, rs35866072, rs34009635 | 1232 + 1232 | No effect on breast cancer risk. | Hsiao et al. 2018 [94] |
rs11225395 | 6307 + 0 | Better overall survival (p = 0.021). | Beeghly-Fadiel et al. 2012 [95] | |
rs11225395 | 300 + 300 | Not associated with breast cancer risk. | Dȩbniak et al. 2011 [96] | |
rs1940475, rs1320632, rs11225395, rs17099436, rs10895353, rs7943404, rs1892886, rs2508383, rs1276284 | 4470 + 4560 | rs1892886: Associated with breast cancer (p = 0.0097). | Mavaddat et al. 2009 [97] | |
rs10895353, rs7943404, rs11225395, rs1320632, rs1940475, rs1892886, rs17099436, rs2508383, rs1276284 | 1333 + 0 | rs11225395, rs1940475, rs1892886 and rs1276284: Less metastasis (p = 0.02, p = 0.03, p = 0.03, p = 0.03, respectively).rs11225395: Higher overall (p = 0.02) and disease-specific survival (p = 0.02) and less relapse (p = 0.04) in early stage patients. | Decock et al. 2007 [98] | |
Gastric | rs1940475 | 254 + 0 | Higher risk for recurrence (p = 0.005) and lower overall survival (p = 0.001), recurrence-free survival (p = 0.005) and disease-free survival (p = 0.011). | Lin et al. 2017 [36] |
rs11225395, rs2155052 | 79 + 169 | No correlation to risk or clinicopathological parameters. | Kubben et al. 2006 [99] | |
Head and neck | rs11225395, rs35866072, rs34009635 | 788 + 956 | No effect on oral cancer risk. | Hung et al. 2017 [100] |
rs11225395 | 198 + 0 | No significant effect on overall survival in NPC. | Liu et al. 2013 [101] | |
rs11225395 | 136 + 0 | No correlation to survival or LNM in HNSCC patients. | Pradhan-Palikhe et al. 2010 [78] | |
Leukemia | rs11225395, rs35866072, rs34009635 | 266 + 266 | No effect on childhood leukemia risk. | Pei et al. 2017 [102] |
Liver | rs11225395 | 434 + 480 | Increased risk of HCC in non-HBV-carriers (p = 0.03). | Qiu et al. 2008 [103] |
Lung | rs11225395, rs35866072, rs34009635 | 358 + 716 | No effect on lung cancer risk. | Shen et al. 2017 [104] |
rs2155052 | 501 + 510 | Reduced risk for lung cancer (p = 0.019), especially in males (p = 0.021), ever smokers (p = 0.034) and patients with family history of lung cancer (p = 0.011). Reduced risk for small cell carcinoma (p = 0.023) and squamous cell carcinoma (p = 0.008). | González-Arriaga et al. 2008 [105] | |
Ovarian | rs17099462 | 417 + 417 | Reduced overall survival (p = 0.0257). | Wang et al. 2015 [106] |
rs11225395, rs2155052 | 35 malignant, 51 benign + 37 | rs11225395: Increased risk for ovarian cancer (p = 0.02) and tendency towards worse overall survival (ns.). | Arechavaleta-Velasco et al. 2014 [107] | |
Skin | rs1940475 | 285 SCC, 300 BCC, 218 melanoma + 870 | Reduced risk for BCC (p = 0.04), no effect in SCC or melanoma. | Nan et al. 2008 [108] |
rs11225395 | 300 melanoma + 300 | Increased risk for melanoma (p = 0.017). | Dȩbniak et al. 2011 [96] | |
Thyroid | rs1940475 | 31 PTC, 19 FTC and 9 ATC + 0 | Present in 80.6% of PTC, 73.6% of FTC and 88.8% of ATC tumors. | Murugan et al. 2011 [109] |
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Juurikka, K.; Butler, G.S.; Salo, T.; Nyberg, P.; Åström, P. The Role of MMP8 in Cancer: A Systematic Review. Int. J. Mol. Sci. 2019, 20, 4506. https://doi.org/10.3390/ijms20184506
Juurikka K, Butler GS, Salo T, Nyberg P, Åström P. The Role of MMP8 in Cancer: A Systematic Review. International Journal of Molecular Sciences. 2019; 20(18):4506. https://doi.org/10.3390/ijms20184506
Chicago/Turabian StyleJuurikka, Krista, Georgina S. Butler, Tuula Salo, Pia Nyberg, and Pirjo Åström. 2019. "The Role of MMP8 in Cancer: A Systematic Review" International Journal of Molecular Sciences 20, no. 18: 4506. https://doi.org/10.3390/ijms20184506
APA StyleJuurikka, K., Butler, G. S., Salo, T., Nyberg, P., & Åström, P. (2019). The Role of MMP8 in Cancer: A Systematic Review. International Journal of Molecular Sciences, 20(18), 4506. https://doi.org/10.3390/ijms20184506