Upload
others
View
0
Download
0
Embed Size (px)
Citation preview
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer based on gene set enrichment analysis and meta analysis
Q.Y. Ning1, J.Z. Wu1, N. Zang2, J. Liang3, Y.L. Hu2 and Z.N. Mo4
1Department of Infection, The First Affiliated Hospital of Guangxi Medical University, Nanning, Guangxi Zhuang Autonomous Region, China2The Medical Scientific Research Centre, Guangxi Medical University, Nanning, Guangxi Zhuang Autonomous Region, China3Department of Biology Technology, Guilin Medical University,Guilin, Guangxi Zhuang Autonomous Region, China4Department of Urology, the First Affiliated Hospital of Guangxi Medical University, Nanning, Guangxi Zhuang Autonomous Region, China
Corresponding authors: Y.L. Hu / Z.N. MoE-mail: [email protected] / [email protected]
Genet. Mol. Res. 10 (4): 3856-3887 (2011)Received June 7, 2011Accepted October 14, 2011Published December 14, 2011DOI http://dx.doi.org/10.4238/2011.December.14.10
ABSTRACT. Prostate cancer is one of the most common male malignant neoplasms; however, its causes are not completely understood. A few recent studies have used gene expression profiling of prostate cancer to identify differentially expressed genes and possible relevant pathways. However, few studies have examined the genetic mechanics of prostate cancer at the pathway level to search for such pathways. We used gene set enrichment analysis and a meta-analysis of six independent studies after standardized microarray preprocessing, which increased concordance between these gene datasets. Based on gene set enrichment analysis, there were 12 down- and 25 up-regulated mixing pathways in more than two tissue datasets, while there were two down- and two up-regulated mixing pathways in three cell datasets. Based on the meta-analysis, there were 46 and nine common pathways in the tissue and cell datasets, respectively. Three up- and 10 down-regulated crossing pathways were
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3856
detected with combined gene set enrichment analysis and meta-analysis. We found that genes with small changes are difficult to detect by classic univariate statistics; they can more easily be identified by pathway analysis. After standardized microarray preprocessing, we applied gene set enrichment analysis and a meta-analysis to increase the concordance in identifying biological mechanisms involved in prostate cancer. The gene pathways that we identified could provide insight concerning the development of prostate cancer.
Key words: Prostate cancer; Gene set enrichment analysis;Meta-analysis
INTRODUCTION
Prostate cancer (PC) is one of the most common male malignant neoplasms in the world, and its incidence has increased year by year in China (Liang et al., 2007). Although large-scaled studies have been involved in prostate cancer, the mechanism involved still re-mained completely unclear until now. In order to reveal this mystery, a few recently reported studies have been developed using gene expression profiling of PC to identify differentially expressed genes from several to hundreds (Endo et al., 2009; Nadiminty et al., 2010), but these studies only focused on the individual gene. Prostate cancer is a complex disease and involves a number of gene interactions. Singling out and explaining individual genes on a list with a thousand important genes is still very difficult.
The major challenge for genome-wide RNA expression analysis is not to obtain gene expression profiles, but to extract a biological insight from the results (Subramanian et al., 2005). Of course, genome-wide expression analysis with DNA microarray have been used to identify predefined biological pathways associated with the phenotypic variations for many researches (Nanni et al., 2006; Chandran et al., 2007; Wallace et al., 2008). However, the con-firmed biological pathways from these methods only represent a very small part of the entire range of pathways involved in prostate cancer.
To resolve this conflict, Mootha et al. (2003) described a method-Gene Set Enrich-ment Analysis (GSEA) which has been recognized as the most well-known and effective ap-proach to gene set analysis. These authors have used it to identify predefined gene sets which showed significant differences in expression between normal and patient’s samples. Subse-quently, Subramanian et al. (2005) improved the methodology and specifically introduced the method of how to use GSEA.
GSEA which is based on the predefined sets of genes that usually derived from func-tional annotation or from results of prior experiments, can identify more subtle changes of gene expression, because the biggest advantage of GSEA is that the statistical results are ob-tained from groups or pathways rather than individual gene. Over the years, GSEA had been gradually applied to some areas (Suarez-Farinas et al., 2010 ). In addition, meta-analysis as a standard statistical method has become more widespread and has been applied in many fields. In this study, after a standardized microarray preprocessing for all the expression datasets, GSEA and a meta analysis were used to find the mixing pathways which provided a systematic insight into the pathways that changed during the mechanism of PC.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3857
MATERIAL AND METHODS
Datasets
The gene expression profiling studies about prostate cancer were searched from GEO (http://www.ncbi.nlm.nih.gov/geo/), and ArrayExpress (http://www.ebi.ac.uk/ arrayexpress/). Any data that met the following conditions was selected for inclusion: 1) the data was about genome-wide RNA expression; 2) the complete microarray raw or normalized data was effec-tive; 3) the data provided a comparison between prostate cancer patients and controls; 4) Three or more samples were contained in the data.
Finally, we found five gene expression datasets which met the above criteria. In da-taset GSE3868, two samples were removed because they were human prostate hyperplasia primary samples, and the other twenty-eight samples were all included in the processing. In dataset GSE6919 with U95 Version 2, 25 patients with metastatic prostate tumor samples in paratracheal lymph node and 63 patients with normal prostate tissue adjacent to the tumor were not included in the research. We summarized all the detailed information about the data-sets, such as the first author or contributor, microarray platform, sample type, sample size, and they are shown in Table 1.
First author or contributor Chip GEO Experimental Classification Probs Number of accession design samples
Disease Normal
Yegnasubramanian S U133 A GSE12348 unpaired, cells prostate cancer 22K 6 3 (Yegnasubramanian et al., 2008)Wallace TA U133A 2.0 GSE6956 unpaired, tissues prostate cancer 22K 69 20 (Wallace et al., 2008)Nanni S (Nanni et al., 2006) U133A GSE3868 unpaired, cells prostate cancer 22K 23 5Chandran UR (Yu et al., 2004; U95 Version 2 GSE6919 unpaired tissues Prostate tumor 12K 65 18 Chandran et al., 2007)Vellaichamy A U133 Plus 2.0 GSE17044 unpaired, cells prostate cancer cells 54K 3 3 (Vellaichamy et al., 2009)
Paried = compare prostate cancer to normal controls from the same patients with prostate cancer; Unparied = compare prostate cancer from men with prostate cancer to normal controls from men without prostate cancer; cells = human prostate cancer cells samples.
Table 1. Characteristics of datasets selected in the studies.
Data processing of standardized microarray preprocessing
Software packages developed in version 2.10.1 of Bioconductor (Mootha et al., 2003) were applied for data preprocessing. The Robust Multichip Averaging (RMA) algorithm in the affy conductor package was used for each affymetrix raw dataset to calculate background adjusted, normalized and log2 probe-set intensities. The affy U133A normalizations shown in GSE3868 was also retained for further analysis. We selected genes which could be mapped to any explicit KEGG pathway for the further analysis of GSEA and meta-analysis. The measure of variability was within the interquartile range (IQR) and a cut-off was set up to remove IQR values under 0.5 for all the remaining genes. If one gene was targeted for multiple probe sets, we retained the probe set with the largest variability. Pathway analysis of each dataset was performed independently.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3858
Data processing of GSEA
GSEA performed using the Category version 2.10.1 package (Mootha et al., 2003). The gene sets represented by more than 10 genes were retained. The Student’s-t-test statistical score was implemented in each pathway and the mean of the genes was calculated. A permuta-tion test with 1000 times was used to identify the significantly changed pathways and p-value was less than or equaled to 0.05.
Data processing of meta-analysis
To obtain the common gene sets for the datasets regarding prostate tissues or cells independently from the above remaining genes of each dataset, we then calculated the chi-square value of each gene based on the formula according to Brown (1975):
and a cut-off was also set up to remove chi-square values under 0.05 for all the surplus genes which were used to obtain the pathways of the KEGG from DAVID Bioinformatics Resources 6.7 (http://david.abcc.ncifcrf.gov/). K is the number of datasets.
RESULTS
Re-analyzing each dataset to produce differentially expressed pathways
The five inclusion datasets contain 166 prostate cancer cases and 49 controls. All the datasets were implemented with a common GSEA method. For each separate analysis, the sig-nificant pathways and the genes were also obtained with GSEA and the detailed information about the analysis results are shown in Table 2.
In our studies, experimental design of 2 datasets (Chandran et al., 2007; Wallace, 2008) was related to prostate cancer tissues, while the other three datasets (Nanni et al., 2006; Yegnasubramanian et al., 2008; Vellaichamy et al., 2009) were related to prostate cancer cells. Finally, we found that the consistent pathways were separate in tissue and cell from GSEA and the meta-analysis result.
Studies Number of Number of Number of genes Number of pathways Up-regulated Down-regulated patients controls after pre-processing have genes >10 pathways pathways
GSE17044 3 3 2421 219 0 0GSE12348 6 3 2184 217 38 30GSE3868 23 5 3814 216 6 17GSE6956 69 20 2214 214 93 10GSE6919 U95 Version 2 65 18 1810 213 72 1
Table 2. Summary of each dataset used in the re-analysis and the number of differentially expressed pathways in gene set enrichment analysis (GSEA).
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3859
Common significant pathways obtained from two prostate cancer tissue datasets by GSEA
There were 1 up and 53 down-regulated pathways that existed in 2 prostate cancer tissues datasets, the details can be seen in Additional Table 1. The up-regulated pathway con-cerned genetic information processing and translation. Most of the representative pathways in down-regulated pathways were associated with metabolism, biosynthesis, signal transduction, cell communication and organismal systems.
Common significant pathways obtained from three prostate cancer cell datasets by GSEA
Except for prostate cancer tissues, datasets regarding prostate cancer cells were also added to our studies. For single datasets analysis, there was no up or down-regulated pathway detected in GSE17044. The reason may be that there was only a limited number of samples available. There were 38 up- and 30 down-regulatory pathways in GSE12348, and 6 and 17 in GSE3868. Also, there were four mixing pathways including 2 up and 2 down-regulated pathways from these 2 datasets. The details are shown in Additional Table 2.
Common significant pathways obtained from these prostate cancer datasets by meta-analysis
To further identify the results, we obtained common significant pathways and genes from these datasets by meta-analysis. In total, there were 1905 significant genes and 39 com-mon pathways in two tissues datasets. Most of these pathways concernedCancers, Cardiovas-cular Diseases, Cell Communication, Signal Transduction, Cellular Processes, Environmental Information Processing, Human Diseases and Organismal Systems. The details are shown in Additional Table 3. Otherwise, 131 significant genes and 9 common pathways were identified in the three cell datasets. The main pathways concerned Lipid Metabolism and Amino Acid Metabolism. The results are shown in Additional Table 4.
Common crossing significant pathways between the results of GSEA andmeta-analysis
To search the intersection pathways, a comparative analysis was made independently between the common significant pathways of GSEA and meta-analysis in cancer tissues or cells. Finally, 15 consistent pathways were obtained in tissue datasets and the details are shown in Additional Table 5. In this table, the pathways were primarily concerned metabolism, en-vironmental information processing, signal transduction, signaling molecules and interaction, human diseases, cancers. However, no consistent pathways were detected in cell datasets.
mRNA expression in human prostate cancers tissue
In order to improve the above results, we searched for a dataset which was able to show the experience according to prostate carcinoma vs normal tissue using the publically
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3860
available ONCOMINE cancer gene expression microarray database (Singh et al., 2002). The platform for this dataset is U95Av2 arrays (Affymetrix). The sample included 50 normal and 52 tumor prostate tissues. The raw data was downloaded from (http://www.broadinstitute.org/cgi-bin/cancer/publications/pub_paper.cgi?mode=view&paper_id=75). We also used the same GSEA program to enrich the pathways. Finally, we enriched 27 up-regulated and 66 down-regulated pathways. The results are shown in Additional Table 6. Except for two path-ways, which is glycolysis/gluconeogenesis, starch and sucrose metabolism, the other 13 path-ways as shown in Additional Table 5 were included in these enriched pathways.
DISCUSSION
PC is one of the most serious diseases and its mechanism still remains completely unclear. No single theory can provide a perfect definition for all the different cases of prostate cancer. The genome-wide microarrays can locate gene families and pathways which show a consistent alteration in a disease state. Pathway analysis is a valid method to reduce a major deviation and can obtain interesting common genes and pathways by mixing differently ex-pressed genes from different datasets. Therefore, we can apply the pathway analysis to search for genes which are difficult to detect by univariate statistical analysis because of their subtle change. Gene set enrichment analysis and a meta-analysis were applied to five datasets to extract biological insights involved in prostate cancer. Our findings suggest that most of the pathways and genes that affect prostate cancer were accordant. In our study, according to functional classification, we discussed several differentially expressed pathways and genes among crossing pathways as shown in Additional Table 5 and which suggest the role of these pathways and genes in prostate cancer.
Environmental information processing
Environmental information processing includes membrane transport, signal transduc-tion, signaling molecules and interaction etc. In our findings, signal transduction, signaling molecules and interaction are common functions in positive pathways. Signal transduction is related to cell proliferation, differentiation and apoptosis. Because most of the signaling molecules and interaction are involved in the processing of signal transduction, signaling mol-ecules and interaction connect closely with signal transduction and may play an important role in the course of prostate cancer. Currently, numerous studies have been applied to explore signal transduction to understand the biological mechanism of prostate cancer (Skvortsova et al., 2008; Aalinkeel et al., 2010). The mitogen-activated protein kinase (MAPK) signal-ing pathway in our studies which belongs to signal transduction is related to various cellular functions. The MAPK cascade is a highly conserved module that is involved in various cel-lular functions, including cell proliferation, differentiation and migration (Takeda and Ichijo, 2002). A number of genes expression in this pathway have been reported to be related with prostate cancer i.e. CD14(+) cells exhibiting reduced expression of HLA-DR molecules in PCa patients. These cells suppress immune cell function in vitro and, therefore, immuno-therapy protocols for PCa patients must be factored into the design (Vuk-Pavlovic et al., 2010). MYC oncogene overexpression induces prostatic intraepithelial neoplasia and loss of Nkx3.1 in mouse luminal epithelial cells (Iwata et al., 2010). Overexpression of NF-kappaB2/p52
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3861
enhances androgen-sensitive LNCaP human prostate cancer cell growth and clonogenic abil-ity in androgen-deprived condition in vitro. NF-kappaB2/p52 induced androgen-independent growth occurs via protecting LNCaP cells from apoptotic cell death and cell cycle arrest in-duced by androgen-deprivation. Adenoviral mediated NF-kappaB2/p52 expression in LNCaP cells enhances tumor growth in intact male nude mice and induces tumor growth in castrated male nude mice, suggesting that overexpression of NF-kappaB2/p52 induces androgen-inde-pendent growth of androgen-sensitive LNCaP cells (Nadiminty et al., 2008). CD44+ cells pos-sess stem cell characteristics and highly expressed genes known to be important in stem cell maintenance. In addition, they have shown a strong tumorigenic potential in the clonogenic assay and soft agar colony formation assay (Lee et al., 2011).
Cellular processes and cell communication
Except for signal transduction and signaling molecules and interaction, cellular pro-cesses and cell communication are also a way of obtaining information transmission between cells. Many junctions among cells are the structural characteristics of smooth muscle and become a channel connected cytoplasm in order to transmit cellular information. Numerous recent studies suggest that the disruption of cell-cell adhesion may be a key mechanism as-sociated with calcitonin (CT)-stimulated prostate cancer progression and metastasis (Shah et al., 2008). Gap junction has been considered to be an important part of junctional com-munication in the prostate morphogenesis and oncogenesis (Mitra et al., 2006) and may also play a pivotal role in invasion and migration of prostate cancer cells (Tate et al., 2006). The idea that focal adhesion is related to cell movement suggests focal adhesion which may be involved in the development and metastasis of tumors. Recent studies have tested the hypoth-esis (Franzen et al., 2009). Epithelial tight junctions are composed of at least three types of transmembrane protein. The transmembrane proteins mediate cell adhesion and are thought to constitute the intramembrane and paracellular diffusion barriers (Balda and Matter, 2003). Cell growth, reproduction, differentiation and apoptosis are involved in signal transduction of cell transmembrane. Therefore, the factors which affect signal transduction of cell transmem-brane will possibly interrupt the function of normal cells. The actin cytoskeleton participates in many fundamental processes including the regulation of cell shape, motility, and adhesion. The remodeling of the actin cytoskeleton is dependent on actin binding proteins, which or-ganize actin filaments into specific structures that allow them to perform various specialized functions (Revenu et al., 2004). Therefore, cell communication may be a possible significant factor for an insight into the biological mechanism of prostate cancer.
Metabolism pathways
The metabolism pathways in our study were mainly focused on lipid metabolism, amino acid metabolism and xenobiotics biodegradation and metabolism. It has been recently confirmed that genes and proteins involved in cellular metabolism play a crucial part in the development and progression of PC (Pettazzoni et al., 2011; Ouyang et al., 2011). Glycoly-sis/Gluconeogenesis pathway belongs to the lipid metabolism. Glycolysis is the process of converting glucose into pyruvate and generating small amounts of adenosine-5’-triphosphate (energy) and nicotinamide adenine dinucleotide. It can produce important precursor metabo-
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3862
lites. The gene PGK1 in this pathway has been reported to be significantly differentially ex-pressed between laser microdissected malignant versus benign clinical samples of prostate tissue (Romanuik et al., 2009). Uridine diphosphate (UDP)-glucose dehydrogenase (UGDH) in the amino acid metabolism pathway was found to be significantly differentially expressed in our analysis, and can also catalyze the oxidation of UDP-glucose to yield UDP-glucuronic acid which is a precursor for synthesis of glycosaminoglycans and proteoglycans that promote aggressive PC progression (Huang et al., 2010). Drug metabolism - cytochromes P450 was also observed in our search for pathways. The cytochromes P450 (CYPs) are key enzymes in cancer formation and cancer treatment. They mediate the metabolic activation of numerous precarcinogens and participate in the inactivation and activation of anticancer drugs. There-fore, this pathway may have a relationship with the mechanism of resistance to chemotherapy drugs in prostate cancer. In the finding genes of this pathway, CYP3A4 and CYP3A5 expres-sion is related to androgen metabolism (Rebbeck et al., 2008). Meta-analysis studies show that measurement of GSTP1 promoter methylation in plasma, serum, or urine samples may complement PSA screening for prostate cancer diagnosis (Wu et al., 2011).
Endocrine system
The insulin signaling pathway in our study belongs to both the organismal and en-docrine systems. Most of the positive genes in this pathway have been reported to be related to prostate cancer. Insulin binding to its receptor results in the tyrosine phosphorylation of insulin receptor substrates (IRS) by the insulin receptor tyrosine kinase. Signal transduction proteins interact with IRS including GRB2. GRB2 is part of the cascade including SOS, RAS, RAF, and MEK that lead to activation of MAPK and mitogenic response in the form of gene transcription. FASN can act as a prostate cancer oncogene in the presence of AR and then FASN exerts its oncogenic effect by inhibiting the intrinsic pathway of apoptosis (Migita e t al., 2009). Expression of p66(Shc) protein correlates with proliferation of human prostate cancer cells (Veeramani et al., 2005). Increasing mTOR activity and protein synthesis did not translate into enhanced cell proliferation rates. However, the lack of TSC2 resulted in a sur-vival advantage when cells were exposed to hypoxia. Protection against hypoxia-induced cell death due to TSC2 deficiency is rapamycin-resistant, suggesting that TSC2 affects an apop-totic pathway. Tumors derived from TSC2 wild-type cells exhibited a growth delay compared with TSC2-deficient tumors, indicating that enhancing mTOR activity is advantageous in the initial phase of tumor growth (Kaper et al., 2006).
Other pathways and genes
As shown in Additional Table 3, except for the above pathways, the remaining path-ways all belong to the classification of human diseases and cancers. Most of genes in these pathways can be enriched in the above pathways. Smad3 in chronic myeloid leukemia path-way is an important gene for prostate cancer and this has widely been reported in the litera-ture. Smad3 has been shown to be the essential mediator of most Smad-dependent TGF-beta responses, including control of gene expression, cell growth, apoptosis, and tumor suppression (Yang et al., 2009). Deregulated/enhanced expression and activation of AR in prostate carci-nomas may intercept the tumor suppressor function of TGF-β through transcriptional suppres-
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3863
sion of Smad3 (Song et al., 2010).
CONCLUSION
The pathogenesis of PC is quite complicated. We were able to gain an insight into the mechanisms by focusing on gene sets or pathways rather than on individual genes. In our research, many consistent biological mechanisms involved in PC were identified by GSEA and meta-analysis after a standardized microarray preprocessing, which were original in terms of their connection to PC (as obtained from the current literature). In addition, the enriched pathways can be improved by a tissue dataset from the Oncomine database. Further studies about the specific role and interactions of the genes included in related pathways are needed to improve the understanding of prostate cancer.
ACKNOWLEDGMENTS
In this research, we had a great amount of help. During writing and running the pro-gram, Zhao Hongbo, Zhang Jiange, etc., provided substantial assistance. Research supported by the National Natural Science Foundation of China (grant #81060213), Guangxi Natural Science Foundation (Grant #2011GXNSFB018100).
REFERENCES
Aalinkeel R, Hu Z, Nair BB, Sykes DE, et al. (2010). Genomic Analysis Highlights the Role of the JAK-STAT Signaling in the Anti-proliferative Effects of Dietary Flavonoid-“Ashwagandha” in Prostate Cancer Cells. Evid. Based Complement. Alternat. Med. 7: 177-187.
Balda MS and Matter K (2003). Epithelial cell adhesion and the regulation of gene expression. Trends Cell Biol. 13: 310-318.Brown BM (1975). A Method for combining non-independent, one-sided tests of significance. Biometrics 31: 987-992.Chandran UR, Ma C, Dhir R, Bisceglia M, et al. (2007). Gene expression profiles of prostate cancer reveal involvement of
multiple molecular pathways in the metastatic process. BMC Cancer 7: 64.Endo T, Uzawa K, Suzuki H, Tanzawa H, et al. (2009). Characteristic gene expression profiles of benign prostatic
hypertrophy and prostate cancer. Int. J. Oncol. 35: 499-509.Franzen CA, Amargo E, Todorovic V, Desai BV, et al. (2009). The chemopreventive bioflavonoid apigenin inhibits prostate
cancer cell motility through the focal adhesion kinase/Src signaling mechanism. Cancer Prev. Res. 2: 830-841. Huang D, Casale GP, Tian J, Lele SM, et al. (2010). Udp-glucose dehydrogenase as a novel field-specific candidate
biomarker of prostate cancer. Int. J. Cancer 126: 315-327.Iwata T, Schultz D, Hicks J, Hubbard GK, et al. (2010). MYC overexpression induces prostatic intraepithelial neoplasia
and loss of Nkx3.1 in mouse luminal epithelial cells. PLoS One 5: e9427.Kaper F, Dornhoefer N and Giaccia AJ (2006). Mutations in the PI3K/PTEN/TSC2 pathway contribute to mammalian
target of rapamycin activity and increased translation under hypoxic conditions. Cancer Res. 66: 1561-1569.Lee EK, Cho H and Kim CW (2011). Proteomic analysis of cancer stem cells in human prostate cancer cells. Biochem.
Biophys. Res. Commun. 412: 279-285.Liang CH, Liu Q, Zhou FJ, Gao X, et al. (2007). Etiologic correlations of prostate cancer in Guangdong, China to family
history of cancers, and sexual and marital factors-a case-control study. Ai Zheng 26: 484-488.Migita T, Ruiz S, Fornari A, Fiorentino M, et al. (2009). Fatty acid synthase: a metabolic enzyme and candidate oncogene
in prostate cancer. J. Natl. Cancer Inst. 101: 519-532.Mitra S, Annamalai L, Chakraborty S, Johnson K, et al. (2006). Androgen-regulated formation and degradation of gap
junctions in androgen-responsive human prostate cancer cells. Mol. Biol. Cell 17: 5400-5416.Mootha VK, Lindgren CM, Eriksson KF, Subramanian A, et al. (2003). PGC-1alpha-responsive genes involved in
oxidative phosphorylation are coordinately downregulated in human diabetes. Nat. Genet. 34: 267-273.Nadiminty N, Chun JY, Lou W, Lin X, et al. (2008). NF-kappaB2/p52 enhances androgen-independent growth of human
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3864
LNCaP cells via protection from apoptotic cell death and cell cycle arrest induced by androgen-deprivation. Prostate 68: 1725-1733.
Nadiminty N, Dutt S, Tepper C and Gao AC (2010). Microarray analysis reveals potential target genes of NF-kappaB2/p52 in LNCaP prostate cancer cells. Prostate 70: 276-287.
Nanni S, Priolo C, Grasselli A, D’Eletto M, et al. (2006). Epithelial-restricted gene profile of primary cultures from human prostate tumors: a molecular approach to predict clinical behavior of prostate cancer. Mol. Cancer Res. 4: 79-92.
Ouyang DY, Ji YH, Saltis M, Xu LH, et al. (2011). Valproic acid synergistically enhances the cytotoxicity of gossypol in DU145 prostate cancer cells: an iTRTAQ-based quantitative proteomic analysis. J. Proteomics 74: 2180-2193.
Pettazzoni P, Ciamporcero E, Medana C, Pizzimenti S, et al. (2011). Nuclear factor erythroid 2-related factor-2 activity controls 4-hydroxynonenal metabolism and activity in prostate cancer cells. Free Radic. Biol. Med. 51: 1610-1618.
Rebbeck TR, Rennert H, Walker AH, Panossian S, et al. (2008). Joint effects of inflammation and androgen metabolism on prostate cancer severity. Int. J. Cancer 123: 1385-1389.
Revenu C, Athman R, Robine S and Louvard D (2004). The co-workers of actin filaments: from cell structures to signals. Nat. Rev. Mol. Cell Biol. 5: 635-646.
Romanuik TL, Ueda T, Le N, Haile S, et al. (2009). Novel biomarkers for prostate cancer including noncoding transcripts. Am. J. Pathol. 175: 2264-2276.
Shah GV, Thomas S, Muralidharan A, Liu Y, et al. (2008). Calcitonin promotes in vivo metastasis of prostate cancer cells by altering cell signaling, adhesion, and inflammatory pathways. Endocr. Relat. Cancer 15: 953-964.
Singh D, Febbo PG, Ross K, Jackson DG, et al. (2002). Gene expression correlates of clinical prostate cancer behavior. Cancer Cell 1: 203-209.
Skvortsova I, Skvortsov S, Stasyk T, Raju U, et al. (2008). Intracellular signaling pathways regulating radioresistance of human prostate carcinoma cells. Proteomics 8: 4521-4533.
Song K, Wang H, Krebs TL, Wang B, et al. (2010). DHT selectively reverses Smad3-mediated/TGF-beta-induced responses through transcriptional down-regulation of Smad3 in prostate epithelial cells. Mol. Endocrinol. 24: 2019-2029.
Suarez-Farinas M, Lowes MA, Zaba LC and Krueger JG (2010). Evaluation of the psoriasis transcriptome across different studies by gene set enrichment analysis (GSEA). PLoS One 5: e10247.
Subramanian A, Tamayo P, Mootha VK, Mukherjee S, et al. (2005). Gene set enrichment analysis: a knowledge-based approach for interpreting genome-wide expression profiles. Proc. Natl. Acad. Sci. U. S. A. 102: 15545-15550.
Takeda K and Ichijo H (2002). Neuronal p38 MAPK signalling: an emerging regulator of cell fate and function in the nervous system. Genes Cells 7: 1099-1111.
Tate AW, Lung T, Radhakrishnan A, Lim SD, et al. (2006). Changes in gap junctional connexin isoforms during prostate cancer progression. Prostate 66: 19-31.
Veeramani S, Igawa T, Yuan TC, Lin FF, et al. (2005). Expression of p66(Shc) protein correlates with proliferation of human prostate cancer cells. Oncogene 24: 7203-7212.
Vellaichamy A, Sreekumar A, Strahler JR, Rajendiran T, et al. (2009). Proteomic interrogation of androgen action in prostate cancer cells reveals roles of aminoacyl tRNA synthetases. PLoS One 4: e7075.
Vuk-Pavlovic S, Bulur PA, Lin Y, Qin R, et al. (2010). Immunosuppressive CD14+HLA-DRlow/- monocytes in prostate cancer. Prostate 70: 443-455.
Wallace TA, Prueitt RL, Yi M, Howe TM, et al. (2008). Tumor immunobiological differences in prostate cancer between African-American and European-American men. Cancer Res. 68: 927-936.
Wu T, Giovannucci E, Welge J, Mallick P, et al. (2011). Measurement of GSTP1 promoter methylation in body fluids may complement PSA screening: a meta-analysis. Br. J. Cancer 105: 65-73.
Yang J, Wahdan-Alaswad R and Danielpour D (2009). Critical role of Smad2 in tumor suppression and transforming growth factor-beta-induced apoptosis of prostate epithelial cells. Cancer Res. 69: 2185-2190.
Yegnasubramanian S, Haffner MC, Zhang Y, Gurel B, et al. (2008). DNA hypomethylation arises later in prostate cancer progression than CpG island hypermethylation and contributes to metastatic tumor heterogeneity. Cancer Res. 68: 8954-8967.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3865
SUPPLEMENTARY MATERIAL
Pathway Pathway names Classification P value Number of genes Included genes expressed in the pathways
03010 Ribosome Genetic information 0.01 36 RPL23P6, RPL27A, RPL29P11, RPL29P12, processing and RPL29P26, RPL29P9, RPL31P17, RPL31P49, translation RPL38, RPL5P1, RPL5P34, RPS11P5, RPS19P3, RPS28, RPS28P6, RPS28P9, RPS2P11, RPS2P12, RPS2P17, RPS2P20, RPS2P5, RPS2P51, RPS2P55, RPS2P8, RPl27, RPl14, RPl23, RPl28, RPl29, RPl31, RPl5, RPS11, RPS 19, RPS 2, RPS 20, RPS 21
Additional Table 1. Common significant pathways obtained from 2 prostate cancer tissue datasets by GSEA up-regulated pathways.
Pathway Pathway names Classification P value Number of genes Included genesentry expressed in the pathways
00260 Glycine, serine and Amino acid 0.008 11 C8orf62; Gamt; MAOA; PHGDH; PSAT1; threonine metabolism metabolism PSPH; PSPHL; SHMT2; dld; gcat; srr04120 Ubiquitin mediated sorting and 0.008 65 ANAPC5; CUL5; CUL7; Fbxo2; Fbxw11; proteolysis degradation HERC2; HUWE1; ITCH; KLHL9; LOC100132973; LOC730429; NEDD4; PIAS1; PIAS2; RBX1; SAE1; SMURF1; SMURF2; STUB1; TCEB1; Tceb2; Trip12; UBA2; UBA6; UBE2A; UBE2C; UBE2D3P; UBE2E1; UBE2G2; UBE2I; UBE2J1; UBE2MP1; UBE2N; UBE3B; UBE3C; UBR5; Uba1; Uba7; Ube2e3; Ube2h; Ube2l6; Ube2m; Ube2q1; Ube2s; Ube3a; Ube4b; WWP1; WWP2; btrc; cul3; cul4a; erc4; keap1; grn1; prpf19; rnf7; trim32; uba3; ube2b; ube2d2; ube2d3; ube2d4; ube2g1; ube2l3; ube4a
Additional Table 2. Common significant pathways obtained from 3 prostate cancer cell datasets by GSEA up-regulated pathways.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3866Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
e ge
nes
entry
expr
esse
d in
the
path
way
s
0451
0 Fo
cal a
dhes
ion
Envi
ronm
enta
l Inf
orm
atio
n 1.
63E-
07
59
TLN
1, P
TEN
, AK
T1, A
CTG
1, C
DC
42, P
AK
3, P
AK
4, IL
K, S
HC
1, Z
YX
,
Pr
oces
sing
; Sig
nal T
rans
duct
ion
PIK
3CG
, RO
CK
2, A
CTN
1, F
LNC
, FLN
A, P
PP1C
A, C
CN
D1,
CC
ND
2, JU
N,
M
APK
3, P
DG
FRA
, MY
L7, C
AV2,
CAV
1, G
RB
2, T
NC
, ITG
B4,
ITG
B3,
IT
GB
1, L
AM
B4,
PTK
2, R
AC
3, IT
GB
8, B
CL2
, SO
S2, C
OL6
A2,
CO
L6A
1,
PIK
3R3,
TH
BS1
, TH
BS3
, FN
1, A
CTB
, CO
L4A
2, F
LT1,
CO
L4A
1, T
NX
A,
M
ET, R
AF1
, HG
F, K
DR
, VW
F, L
AM
A4,
ITG
A6,
ITG
A5,
LA
MA
5, IT
GA
7,
RA
P1A
, CR
K, M
YLK
0522
0 Ch
roni
c m
yelo
id
Chro
nic
mye
loid
leuk
emia
3.
65E-
04
24
PIK
3CG
, CTB
P2, B
CR, G
RB2,
MA
P2K
2, T
GFB
R2, T
GFB
3, S
MA
D3,
RA
F1,
le
ukem
ia
PT
PN11
, AK
T1, C
CND
1, H
DA
C1, S
OS2
, MA
PK3,
MD
M2,
SH
C1, A
BL1,
PI
K3R
3, R
UN
X1,
IKBK
B, C
RK
, MY
C, C
HU
K
0452
0 A
dher
ens j
unct
ion
Cel
lula
r Pro
cess
es; C
ell
5.55
E-04
24
A
CTB
, PTP
RB
, PA
RD
3, P
TPR
F, B
AIA
P2, M
ET, T
GFB
R2,
SM
AD
3, L
EF1,
Com
mun
icat
ion
AC
TN1,
CTN
ND
1, C
DH
1, S
NA
I2, C
TNN
A1,
IQG
AP1
, FA
RP2
, AC
TG1,
C
DC
42, T
JP1,
CSN
K2A
1, R
AC
3, P
VR
L2, M
APK
3, S
SX2I
P
0451
2 EC
M-re
cept
or
Envi
ronm
enta
l Inf
orm
atio
n 8.
63E-
04
25
TNC
, ITG
B4,
ITG
B3,
ITG
B1,
SD
C2,
LA
MB
4, G
P5, C
D44
, ITG
B8,
CO
L6A
2,
inte
ract
ion
Proc
essi
ng; S
igna
ling
CO
L6A
1, S
V2A
, AG
RN
, TH
BS1
, TH
BS3
, FN
1, C
OL4
A2,
CO
L4A
1, T
NX
A,
Mol
ecul
es a
nd In
tera
ctio
n
V
WF,
LA
MA
4, IT
GA
6, IT
GA
5, L
AM
A5,
ITG
A7
0541
2 A
rrhy
thm
ogen
ic
Envi
ronm
enta
l Inf
orm
atio
n 0.
0011
58
23
AC
TB, I
TGB
4, C
AC
NB
1, L
EF1,
AC
TN1,
GJA
1, IT
GB
3, C
TNN
A1,
ITG
B1,
rig
ht v
entri
cula
r Pr
oces
sing
; Sig
nalin
g
JU
P, A
CTG
1, D
ES, S
GC
G, A
TP2A
2, IT
GA
6, IT
GA
5, IT
GB
8, D
MD
, ITG
A7,
ca
rdio
myo
path
y M
olec
ules
and
Inte
ract
ion
DSP
, CA
CN
A1D
, SG
CA
, SG
CB
(A
RVC
)
0304
0 Sp
liceo
som
e Sp
liceo
som
e 0.
0012
38
33
CH
ERP,
U2A
F2, L
SM6,
TR
A2A
, SN
RPB
2, S
R14
0, S
ART
1, H
NR
NPA
3,
TCER
G1,
HN
RN
PK, S
FRS5
, DH
X38
, DD
X23
, HSP
A2,
PR
PF8,
PC
BP1
,
LSM
3, S
NR
NP7
0, A
CIN
1, R
BM
25, P
RPF
40A
, BC
AS2
, SN
RPA
1, S
FRS1
,
DD
X5,
PRP
F4, H
NRN
PA1,
SFR
S3, H
NRN
PU, S
NRP
A, P
UF6
0, S
NRP
G, B
AT1
0521
0 C
olor
ecta
l can
cer
Envi
ronm
enta
l Inf
orm
atio
n 0.
0020
51
24
PIK
3CG
, DV
L3, M
SH3,
GR
B2,
CY
CS,
TG
FBR
2, M
ET, T
GFB
3, S
MA
D3,
Proc
essi
ng; S
igna
ling
Mol
ecul
es
LEF1
, RA
F1, D
VL1
, AK
T1, F
OS,
CC
ND
1, R
AC
3, JU
N, B
CL2
, SO
S2,
and
Inte
ract
ion
MA
PK3,
PD
GFR
A, P
IK3R
3, M
YC
, AX
IN1
0521
3 En
dom
etria
l can
cer
Envi
ronm
enta
l Inf
orm
atio
n 0.
0026
83
17
PIK
3CG
, MA
P2K
2, G
RB
2, L
EF1,
RA
F1, C
DH
1, F
OX
O3,
CTN
NA
1, P
TEN
,
Pr
oces
sing
; Sig
nalin
g M
olec
ules
A
KT1
, CC
ND
1, IL
K, M
APK
3, S
OS2
, PIK
3R3,
MY
C, A
XIN
1
an
d In
tera
ctio
n
0522
1 A
cute
mye
loid
H
uman
Dise
ases
; Can
cers
0.
0035
4 18
PI
K3C
G, M
AP2
K2,
GR
B2,
PM
L, L
EF1,
RA
F1, S
TAT3
, AK
T1, J
UP,
CC
ND
1,
leuk
emia
SOS2
, MA
PK3,
RA
RA
, RU
NX
1, IK
BK
B, P
IK3R
3, M
YC
, CH
UK
0472
2 N
euro
troph
in
Org
anis
mal
Sys
tem
s;
0.00
3847
31
G
RB
2, F
OX
O3,
MA
GED
1, A
KT1
, CD
C42
, BC
L2, S
OS2
, GA
B1,
SH
C1,
si
gnal
ing
path
way
N
ervo
us S
yste
m
CA
MK
2B, S
H2B
1, C
SK, P
IK3R
3, A
RH
GD
IA, P
IK3C
G, N
TF3,
MA
P2K
2,
RA
F1, P
RK
CD
, IR
S1, P
TPN
11, A
TF4,
RPS
6KA
1, JU
N, M
APK
3, R
AP1
A,
A
BL1
, IK
BK
B, C
RK
, CA
LM1,
NG
F
Add
ition
al T
able
3. C
omm
on si
gnifi
cant
pat
hway
s obt
aine
d fr
om 2
pro
stat
e ca
ncer
tiss
ue d
atas
ets b
y m
eta-
anal
ysis
.
Con
tinue
d on
nex
t pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3867Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
e ge
nes
entry
expr
esse
d in
the
path
way
s
0521
1 Re
nal c
ell c
arci
nom
a En
viro
nmen
tal I
nfor
mat
ion
0.00
5404
20
PI
K3C
G, M
AP2
K2,
GRB
2, M
ET, T
GFB
3, R
AF1
, HG
F, A
RNT,
PTP
N11
, AK
T1,
Proc
essi
ng; S
igna
ling
Mol
ecul
es
CDC4
2, P
AK
3, JU
N, P
AK
4, G
AB1
, SO
S2, M
APK
3, R
AP1
A, P
IK3R
3, C
RK
an
d In
tera
ctio
n
0481
0 R
egul
atio
n of
act
in
Org
anis
mal
Sys
tem
s;
0.00
5587
47
M
YL7
, FG
F7, M
RA
S, IT
GA
E, IT
GB
4, IQ
GA
P2, R
DX
, FG
F12,
ITG
B3,
cy
tosk
elet
on
Dev
elop
men
t
PI
P5K
1A, G
NG
12, I
TGB
1, IQ
GA
P1, A
CTG
1, C
DC
42, P
TK2,
EZR
, ITG
B8,
G
SN, R
AC3
, PA
K3,
PA
K4,
SO
S2, M
SN, P
IK3R
3, C
SK, F
GF2
, FN
1, P
IK3C
G,
A
CTB,
RO
CK2,
MA
P2K
2, B
AIA
P2, R
AF1
, ACT
N1,
MY
H9,
PPP
1CA
, ITG
A6,
IT
GA
5, R
RAS2
, MA
PK3,
ITG
A7,
PD
GFR
A, C
RK, M
YLK
, CD
14, F
2R
0453
0 Ti
ght j
unct
ion
Envi
ronm
enta
l Inf
orm
atio
n 0.
0067
53
32
MY
L7, C
LDN
7, P
AR
D3,
OC
LN, G
NA
I2, C
LDN
4, C
LDN
3, M
RA
S, C
LDN
5,
Pr
oces
sing
; Sig
nalin
g M
olec
ules
CA
SK, P
TEN
, LLG
L2, A
CTG
1, A
KT1
, CD
C42,
CTT
N, C
SNK
2A1,
PPP
2CB,
and
Inte
ract
ion
ACT
B, P
PP2R
1A, S
YM
PK, P
ARD
6B, I
NA
DL,
ACT
N1,
MY
H9,
CSD
A, C
TNN
A1,
PR
KCD
, TJP
1, E
PB41
L1, R
RAS2
, JA
M3
0513
0 Pa
thog
enic
M
etab
olism
; Bio
synt
hesis
of
0.00
7283
17
A
CTB,
ARH
GEF
2, O
CLN
, RO
CK2,
TU
BB2C
, CD
H1,
ITG
B1, A
CTG
1, C
DC4
2,
Esch
eric
hia
coli
Oth
er S
econ
dary
Met
abol
ites
CTTN
, EZR
, KRT
18, T
UBA
3C, T
UBA
4A, T
UBA
1A, A
BL1,
CD
14
infe
ctio
n
0491
0 In
sulin
sign
alin
g H
uman
Dis
ease
s;
0.00
756
32
PHK
A2,
GR
B2,
RH
OQ
, PD
E3B
, AK
T1, P
PP1R
3C, S
OS2
, FA
SN, G
YS1
,
path
way
In
fect
ious
Dis
ease
s
G
YS2
, SH
C1,
PR
KA
A1,
PIK
3R3,
SR
EBF1
, PIK
3CG
, PTP
RF,
PH
KG
1,
MA
P2K
2, P
RK
AB
2, A
CA
CA
, FB
P1, R
AF1
, IR
S1, P
PP1C
A, P
YG
M, P
YG
L,
MA
PK3,
TSC
2, R
HEB
, IK
BK
B, C
RK
, CA
LM1
0522
2 Sm
all c
ell l
ung
Hum
an D
isea
ses;
Can
cers
0.
0097
91
22
PIK
3CG
, CK
S1B
, FH
IT, C
OL4
A2,
CO
L4A
1, C
YC
S, IT
GB
1, P
TEN
, AK
T1,
ca
ncer
LAM
B4, P
TK2,
CCN
D1,
LA
MA
4, IT
GA
6, L
AM
A5,
BCL
2, IK
BKB,
PIK
3R3,
M
YC,
CH
UK
, TRA
F4, F
N1
0520
0 Pa
thw
ays i
n ca
ncer
M
etab
olism
; Met
abol
ism
0.01
1061
65
FG
F7, T
GFB
3, F
GF1
2, N
FKB
2, P
TEN
, AK
T1, C
DC
42, F
OS,
RA
RA
, WN
T6,
of C
ofac
tors
and
Vita
min
s
TP
R, M
YC
, FG
F2, C
HU
K, P
IK3C
G, P
LD1,
CTB
P2, B
CR
, CY
CS,
LEF
1,
CTN
NA
1, D
APK
1, JU
P, C
CN
D1,
JUN
, MA
PK3,
PD
GFR
A, M
DM
2, G
STP1
,
KS1
B, G
RB
2, P
ML,
CD
H1,
ITG
B1,
AR
NT,
LA
MB
4, P
TK2,
RA
C3,
BC
L2,
SO
S2, P
IK3R
3, R
UN
X1,
TR
AF4
, AX
IN1,
FN
1, D
VL3
, CO
L4A
2, C
OL4
A1,
M
SH3,
KLK
3, M
AP2
K2,
MET
, TG
FBR
2, S
MA
D3,
RA
F1, H
GF,
STA
T3,
D
VL1
, LA
MA
4, H
DA
C1,
ITG
A6,
LA
MA
5, IK
BK
B, A
BL1
, CR
K
0541
0 H
yper
troph
ic
Hum
an D
isea
ses;
0.
0112
4 22
A
CTB
, AC
TC1,
PR
KA
B2,
ITG
B4,
TG
FB3,
CA
CN
B1,
ITG
B3,
TPM
2,
card
iom
yopa
thy
Infe
ctio
us D
isea
ses
ITG
B1,
AC
TG1,
DES
, SG
CG
, ATP
2A2,
ITG
A6,
ITG
A5,
ITG
B8,
DM
D,
(H
CM
)
ITG
A7,
PR
KA
A1,
CA
CN
A1D
, SG
CA
, SG
CB
0541
4 D
ilate
d H
uman
Dis
ease
s;
0.01
412
23
AC
TB, A
CTC
1, A
DC
Y6,
ITG
B4,
TG
FB3,
CA
CN
B1,
ITG
B3,
TPM
2, IT
GB
1,
card
iom
yopa
thy
Infe
ctio
us D
isea
ses
ACT
G1,
DES
, SG
CG, A
TP2A
2, IT
GA
6, IT
GA
5, IT
GB8
, PLN
, DM
D, I
TGA
7,
GN
AS,
CA
CNA
1D, S
GCA
, SG
CB
Add
ition
al T
able
3. C
ontin
ued.
Con
tinue
d on
nex
t pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3868Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
e ge
nes
entry
expr
esse
d in
the
path
way
s
0454
0 G
ap ju
nctio
n O
rgan
ism
al S
yste
ms;
0.
0188
37
22
GN
AI2
, MA
P2K
2, G
RB
2, A
DC
Y6,
TU
BB
2C, G
JA1,
RA
F1, L
PAR
1, IT
PR3,
Sens
ory
Syst
em
GRM
1, IT
PR1,
ITPR
2, T
JP1,
CSN
K1D
, SO
S2, M
APK
3, P
DG
FRA
, TU
BA3C
,
TUBA
4A, G
NA
S, T
UBA
1A, H
TR2A
0413
0 SN
AR
E in
tera
ctio
ns
Org
anis
mal
Sys
tem
s;
0.01
9212
12
ST
X6,
STX
8, S
TX4,
STX
12, S
TX2,
STX
16, V
AM
P5, G
OSR
2, V
AM
P3,
in
ves
icul
ar tr
ansp
ort
Ner
vous
Sys
tem
G
OSR
1, V
AM
P2, S
NA
P23
0501
2 Pa
rkin
son’
s dis
ease
O
rgan
ism
al S
yste
ms;
0.
0204
99
29
ND
UFB
3, U
QC
RC
1, N
DU
FB6,
ND
UFB
8, C
OX
7B, U
CH
L1, P
INK
1,
N
ervo
us S
yste
m
ND
UFS
7, N
DU
FS5,
ND
UFS
4, A
TP5O
, ND
UFS
2, A
TP5J
, CO
X7A
1,
SLC
25A
4, S
LC25
A6,
ND
UFA
6, C
YC
S, V
DA
C2,
UB
E2L3
, CO
X6C
,
VD
AC
1, S
DH
B, U
BA
1, P
PID
, SD
HD
, ATP
5C1,
SLC
18A
2, U
QC
RB
0402
0 C
alci
um si
gnal
ing
Hum
an D
isea
ses;
Can
cers
0.
0259
32
37
PHK
A2,
ER
BB
4, T
NN
C2,
ER
BB
3, E
DN
RA
, AD
RB
3, A
TP2B
3, A
TP2B
4,
path
way
PDE1
C, P
PP3C
B, P
PP3C
C, C
AM
K2B
, PTG
ER3,
SLC
25A
4, P
HK
G1,
SL
C25
A6,
ITPR
3, V
DA
C2,
GR
M1,
ITPR
1, IT
PR2,
VD
AC
1, P
2RX
4,
AD
RB
2, P
LCE1
, ATP
2A2,
PPI
D, P
LN, P
DG
FRA
, AV
PR1A
, TB
XA
2R,
N
AS,
CA
CN
A1D
, MY
LK, C
ALM
1, H
TR2A
, F2R
0001
0 G
lyco
lysis
/
Met
abol
ism; L
ipid
0.
0266
51
16
ALD
OA
, LD
HB
, LD
HA
, PFK
L, A
LDO
B, P
GA
M1,
AD
H5,
FB
P1, A
LDH
3B2,
G
luco
neog
enes
is
Met
abol
ism
AD
H1B
, AD
H1A
, GPI
, ALD
H1B
1, P
GM
1, P
GK
1, G
APD
H, E
NO
1
0401
2 Er
bB si
gnal
ing
Envi
ronm
enta
l Inf
orm
atio
n 0.
0281
42
21
PIK
3CG
, ER
BB
4, E
RB
B3,
MA
P2K
2, G
RB
2, R
AF1
, AK
T1, P
TK2,
PA
K3,
pa
thw
ay
Proc
essi
ng; S
igna
l Tra
nsdu
ctio
n
JU
N, P
AK
4, G
AB
1, S
OS2
, MA
PK3,
SH
C1,
CA
MK
2B, A
BL1
, NR
G1,
PI
K3R
3, C
RK
, MY
C
0521
5 Pr
osta
te c
ance
r H
uman
Dis
ease
s; C
ance
rs
0.03
5202
21
PI
K3C
G, K
LK3,
MA
P2K
2, G
RB
2, L
EF1,
RA
F1, P
TEN
, AK
T1, A
TF4,
C
CN
D1,
BC
L2, S
OS2
, MA
PK3,
PD
GFR
A, C
REB
3L1,
MD
M2,
SR
D5A
2,
IKB
KB
, PIK
3R3,
CH
UK
, GST
P1
0050
0 St
arch
and
sucr
ose
Met
abol
ism
; Am
ino
Aci
d 0.
0391
95
12
GPI
, GB
E1, P
YG
M, E
NPP
1, P
YG
L, P
GM
1, G
AA
, UG
DH
, GY
S1, G
YS2
,
met
abol
ism
M
etab
olis
m
UG
T2A
1, U
GP2
0407
0 Ph
osph
atid
ylin
osito
l En
viro
nmen
tal I
nfor
mat
ion
0.04
1133
18
PI
K3C
G, I
NPP
1, IN
PPL1
, PI4
KA
, PI4
KB
, PIP
5K1A
, OC
RL,
ITPR
3, C
DS1
,
sign
alin
g sy
stem
Pr
oces
sing
; Sig
nal T
rans
duct
ion
PTEN
, ITP
R1,
ITPR
2, P
LCE1
, DG
KD
, SY
NJ2
, IN
PP4A
, PIK
3R3,
CA
LM1
0466
2 B
cel
l rec
epto
r O
rgan
ism
al S
yste
ms;
0.
0461
24
18
PIK
3CG
, IFI
TM1,
MA
P2K
2, G
RB
2, R
AF1
, AK
T1, F
OS,
RA
C3,
JUN
, SO
S2,
si
gnal
ing
path
way
Im
mun
e Sy
stem
A
PK3,
PPP
3CB
, PPP
3CC
, IK
BK
B, P
IK3R
3, N
FATC
3, C
HU
K, B
LNK
0541
6 V
iral m
yoca
rditi
s H
uman
Dis
ease
s;
0.05
4462
17
A
CTB
, CAV
1, C
YC
S, H
LA-C
, MY
H9,
CX
AD
R, E
IF4G
1, A
CTG
1, C
CN
D1,
Car
diov
ascu
lar D
isea
ses
EIF4
G3,
SG
CG
, RA
C3,
CD
40LG
, DM
D, A
BL1
, SG
CA
, SG
CB
0401
0 M
APK
sign
alin
g En
viro
nmen
tal I
nfor
mat
ion
0.06
3862
50
M
EF2C
, FG
F7, T
GFB
3, F
GF1
2, N
FKB2
, AK
T1, F
OS,
CD
C42,
MY
C, F
GF2
,
path
way
Pr
oces
sing
; Sig
nal T
rans
duct
ion
CHU
K, I
L1A
, FLN
C, F
LNA
, JU
N, R
RAS2
, MA
PK3,
PD
GFR
A, H
SPB1
,
PLA
2G6,
MA
P3K
13, N
GF,
PPP
5C, G
RB2,
MRA
S, C
ACN
B1, G
NG
12,
H
SPA
2, E
LK4,
RA
C3, S
OS2
, JU
ND
, PPP
3CB,
PPP
3CC,
NTF
3, T
AO
K2,
M
AP2
K2,
TG
FBR2
, NF1
, NR4
A1,
RA
F1, A
TF4,
DU
SP3,
DU
SP1,
RPS
6KA
1,
RAP1
A, I
KBK
B, C
RK, C
ACN
A1D
, CD
14
Add
ition
al T
able
3. C
ontin
ued.
Con
tinue
d on
nex
t pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3869
Path
way
Pa
thw
ay n
ames
C
lass
ifica
tion
P va
lue
Num
ber o
f gen
es
Incl
ude
gene
sen
try
ex
pres
sed
in th
e
pa
thw
ays
0467
0 Le
ukoc
yte
Org
anis
mal
Sys
tem
s;
0.06
4448
25
C
LDN
7, M
YL7
, OC
LN, C
LDN
4, G
NA
I2, C
LDN
3, C
LDN
5, C
TNN
D1,
tra
nsen
doth
elia
l Im
mun
e Sy
stem
IT
GB
1, A
CTG
1, C
DC
42, P
TK2,
EZR
, CX
CR
4, M
SN, P
IK3R
3, A
CTB
,
mig
ratio
n
PIK
3CG
, RO
CK
2, A
CTN
1, C
TNN
A1,
PTP
N11
, PEC
AM
1, R
AP1
A, J
AM
3
0003
0 Pe
ntos
e ph
osph
ate
Met
abol
ism
; Car
bohy
drat
e 0.
0667
47
8 A
LDO
A, G
PI, P
FKL,
ALD
OB
, PG
M1,
PG
D, F
BP1
, TK
T
path
way
M
etab
olis
m
0098
2 D
rug
met
abol
ism -
M
etab
olism
; Xen
obio
tics
0.06
8111
15
CY
P3A
4, C
YP3
A5,
CY
P3A
7, C
YP2
D6,
AD
H5,
ALD
H3B
2, A
DH
1B, A
DH
1A,
cy
toch
rom
e P4
50
Bio
degr
adat
ion
and
Met
abol
ism
M
GST
3, C
YP2
A13
, FM
O5,
GST
M3,
AO
X1,
UG
T2A
1, G
STO
1, G
STP1
0414
4 En
docy
tosi
s C
ellu
lar P
roce
sses
; 0.
0701
17
36
PAR
D3,
CLT
B, E
RB
B4,
RA
B5B
, RA
B5C
, ER
BB
3, P
IP5K
1A, C
HM
P2B
,
Tr
ansp
ort a
nd C
atab
olis
m
CD
C42
, AD
RB
3, A
P2B
1, H
SPA
2, C
XC
R4,
SH
3GLB
1, R
AB
11A
, NED
D4L
,
AG
AP1
, IQ
SEC
1, S
H3G
L3, P
AR
D6B
, PLD
1, F
LT1,
RA
B4A
, MET
,
TGFB
R2,
PSD
4, H
LA-C
, KD
R, R
AB
31, A
P2A
2, A
DR
B2,
NED
D4,
PD
GFR
A, M
DM
2, D
NM
2, F
2R
0521
4 G
liom
a H
uman
Dis
ease
s; C
ance
rs
0.07
6149
15
PI
K3C
G, M
AP2
K2,
GR
B2,
RA
F1, P
TEN
, AK
T1, C
CN
D1,
MA
PK3,
SO
S2,
PD
GFR
A, M
DM
2, S
HC
1, C
AM
K2B
, PIK
3R3,
CA
LM1
0002
0 C
itrat
e cy
cle
Met
abol
ism
; Car
bohy
drat
e 0.
0787
07
9 SD
HB
, ID
H3G
, SD
HD
, CS,
IDH
2, ID
H3B
, AC
LY, O
GD
H, M
DH
2
(TC
A c
ycle
) M
etab
olis
m
0461
0 C
ompl
emen
t and
O
rgan
ism
al S
yste
ms;
0.
0796
78
16
MB
L2, C
7, C
R1,
MA
SP2,
F13
A1,
F8,
C1R
, F13
B, V
WF,
FG
G, F
5, F
3,
coag
ulat
ion
casc
ades
Im
mun
e Sy
stem
C
D59
, TFP
I, C
FD, F
2R
0521
8 M
elan
oma
Hum
an D
isea
ses;
Can
cers
0.
0971
75
16
PIK
3CG
, FG
F7, M
AP2
K2,
MET
, RA
F1, C
DH
1, F
GF1
2, H
GF,
PTE
N, A
KT1
,
CC
ND
1, M
APK
3, P
DG
FRA
, MD
M2,
PIK
3R3,
FG
F2
Add
ition
al T
able
3. C
ontin
ued.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3870
Pathway Pathway names Classification P value Number of genes Included genesentry expressed in the pathways
00330 Arginine and proline Amino Acid 0.002131 7 ODC1, PYCR1, GOT1, P4HA2, GLUD2, metabolism Metabolism GLUD1, GAMT
00900 Terpenoid backbone Amino Acid 0.005931 4 FDPS, PMVK, ACAT2, ACAT1 biosynthesis Metabolism
00100 Steroid biosynthesis Cancers 0.00854 4 TM7SF2, DHCR24, FDFT1, SC4MOL
00071 Fatty acid metabolism Cell Growth and 0.018304 5 ACADVL, ACAA2, LOC648603, ACAT2, Death ACAT1, DCI
00072 Synthesis and Lipid Metabolism 0.020758 3 BDH2, ACAT2, ACAT1 degradation of ketone bodies
00250 Alanine, aspartate and Lipid Metabolism 0.043597 4 GOT1, GLUD2, GLUD1, ASNS glutamate metabolism
05200 Pathways in cancer Lipid Metabolism 0.074605 14 CKS1B, MET, SMAD3, ITGA3, FZD4, STAT3, FOS, CDKN1A, LAMA3, SLC2A1, KX3-1, FAS, WNT7A, MYC
04115 p53 signaling pathway Metabolism of Other 0.095163 5 CDKN1A, TP53I3, SERPINB5, FAS, Amino Acids ADD45A
00471 D-Glutamine and Metabolism of 0.098434 2 GLUD2, GLUD1 D-glutamate Terpenoids and metabolism Polyketides
Additional Table 4. Common significant pathways obtained from 3 prostate cancer cell datasets by meta-analysis.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3871
Pathway Pathway names Classification Number of genes Included genesentry expressed in the pathways
00010 Glycolysis/ Metabolism; 6 ADH1A, ADH1B, ADH5, ALDH1B1, Gluconeogenesis Lipid Metabolism ALDH3B2, PGK1
00050 Starch and sucrose Metabolism; Amino 5 GAA, PYGL, PYGM, UGDH, UGP2 metabolism Acid Metabolism
00982 Drug metabolism Metabolism; Xenobiotics 11 ADH1A, ADH1B, ADH5, ALDH3B2, AOX1, Biodegradation and CYP3A4, CYP3A5, FMO5, GSTM3, GSTO1, Metabolism GSTP1
04010 MAPK signaling Environmental Information 17 CD14, CHUK, DUSP1, DUSP3, FLNA, FLNC, pathway Processing; Signal FOS, GRB2, JUND, MEF2C, MYC, NF1, NFKB2, Transduction NR4A1, PPP3CC, RRAS2, TGFB3
04510 Focal adhesion Environmental Information 28 BCL2, CAV2, CCND1, CCND2, COL6A1, COL6A2, Processing; Signal FLNA, FLNC, FLT1, GRB2, ILK, ITGA5, ITGA7, Transduction ITGB3, ITGB4, KDR, LAMA5, MET, MYLK, PAK4, PIK3R3, ROCK2, SHC1, SOS2, TLN1, TNC, TNXA, ZYX
04512 ECM-receptor Environmental Information 12 AGRN, CD44, COL6A1, COL6A2, ITGA5, ITGA7, interaction Processing; Signaling ITGB3, ITGB4, LAMA4, LAMA5, SDC2, TNC Molecules and Interaction
04530 Tight junction Environmental Information 9 CASK, CLDN3, CLDN4, CLDN5, INADL, MYH9, Processing; Signaling Molecules RKCD, RRAS2, SYMPK and Interaction
04540 Gap junction Cellular Processes; Cell Motility 8 CSNK1D, GJA1, GRB2, ITPR1, ITPR2, ITPR3, TUBA4A, TUBB2C
04810 Regulation of Cellular Processes; Cell Motility 15 BAIAP2, CD14, EZR, IQGAP1, IQGAP2, ITGA5, actin cytoskeleton ITGA7, ITGB3, ITGB4, MYH9, MYLK, PAK4, PIK3R3, ROCK2, RRAS2
04910 Insulin signaling Organismal Systems; 11 CALM1, FASN, GRB2, IRS1, PDE3B, PIK3R3, pathway Endocrine System PRKAA1, PYGL, PYGM, SHC1, TSC2
05200 Pathways in cancer Human Diseases; Cancers 19 ABL1, BCL2, CCND1, CDH1, CHUK, CTBP2, DAPK1, FOS, GRB2, GSTP1, JUP, KLK3, LAMA4, LAMA5, MYC, NFKB2, PIK3R3, TGFB3, TRAF4
05211 Renal cell Human Diseases; Cancers 5 GRB2, PAK4, PIK3R3, PTPN11, TGFB3 carcinoma
05214 Glioma Human Diseases; Cancers 5 CALM1, CCND1, GRB2, PIK3R3, SHC1
05220 Chronic myeloid Human Diseases; Cancers 11 ABL1, CCND1, CHUK, CTBP2, GRB2, MYC, leukemia PIK3R3, PTPN11, SHC1, SMAD3, TGFB3
05221 Acute myeloid Human Diseases; Cancers 6 CCND1, CHUK, GRB2, JUP, MYC, PIK3R3 leukemia
05222 Small cell lung Human Diseases; Cancers 9 BCL2, CCND1, CHUK, FHIT, LAMA4, LAMA5, cancer MYC, PIK3R3, TRAF4
Additional Table 5. Common crossing significant pathways between the results of GSEA and meta-analysis about prostate cancer tissues.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3872Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
0002
0 C
itrat
e cy
cle
(TC
A c
ycle
) M
etab
olis
m; C
arbo
hydr
ate
0.00
2 17
Sd
hB; I
DH
3B; A
CLY
; AC
O2;
LO
C10
0130
320;
sdhD
; CS;
sdhC
; FH
; Idh
3g;
Met
abol
ism
M
dh1;
PC
K1;
IDH
1; ID
H2;
pdh
B; S
DH
A; p
dhA
2
0003
0 Pe
ntos
e ph
osph
ate
path
way
M
etab
olis
m; C
arbo
hydr
ate
0.00
0 14
G
PI; F
bp1;
pgm
1; P
GD
; FB
P2; p
fkp;
tald
o1; A
LDO
A; P
rps1
l1; P
RPS
1; p
rps2
;
M
etab
olis
m
H6p
d; tk
t; A
ldob
0019
0 O
xida
tive
phos
phor
ylat
ion
Met
abol
ism
; Ene
rgy
0.00
1 77
AT
P6V
0E1;
Atp
6v0b
; ATP
6V1E
1; A
TP6V
0C; C
OX
8A; A
TP5B
; ND
UFA
1;
M
etab
olis
m
ND
UFC
1; C
OX
6C; U
qcrh
; UQ
CR
HL;
atp
6v1b
2; A
tp6v
0e2;
Ndu
fa2;
Atp
5d;
A
tp5j
; SD
HA
; Sdh
B; N
DU
FA5;
LO
C44
2454
; LO
C72
7947
; UQ
CR
B; C
OX
5A;
AT
P5G
1; A
TP4B
; Ndu
fs8;
ATP
6V1F
; CO
X6B
1; A
tp5c
1; N
dufb
7; a
tp5h
; uqc
rfs1
;
QC
RFS
L1; A
tp6v
1a; N
dufv
2; N
DU
FAB
1; A
TP6A
P1; N
DU
FS6;
atp
5o; A
TP5J
2;
OC
1001
3032
0; sd
hD; U
QC
RQ
; Cox
6a2;
ND
UFS
4; n
dufs
3; C
OX
4I1;
ATP
6V1D
;
CO
X7A
1; N
dufv
1; A
TP5G
2; N
dufa
7; sd
hC; A
TP5G
3; A
TP6V
1G2;
Uqc
rc1;
C
ox7a
2l; U
qcrc
2; C
OX
5B; C
ox6a
1; A
tp5a
1; N
dufb
5; A
tp5i
; Ndu
fb8;
cyc
1;
Ndu
fs5;
LO
C10
0130
794;
CO
X7A
2; U
qcr1
1; N
DU
FB1;
ATP
6V1G
1; A
TP4A
;
Atp
12a;
ATP
6V0A
2; C
ox7b
; cox
17; C
ox7c
0023
0 Pu
rine
met
abol
ism
M
etab
olis
m; N
ucle
otid
e 0.
001
61
GU
K1;
PD
E4C
; PO
LD4;
Adc
y10;
NM
E4; N
ME2
; NM
E1-N
ME2
; Nm
e1;
Met
abol
ism
A
DC
Y2;
ent
pd6;
PR
UN
E; N
me6
; Pde
4a; i
tpa;
PO
LR2G
; PO
LR2H
; PO
LR2L
;
Apr
t; Pr
ps1l
1; P
RPS
1; p
apss
1; E
NTP
D2;
PO
LR2J
; NT5
C2;
PO
LR2F
; PO
LR2B
;
ATIC
; GU
CY
2F; P
RIM
2; P
ole;
rrm
2; L
OC
6527
97; P
KM
2; X
DH
; Pde
2a;
A
DC
Y1;
ada
; Pol
d2; P
DE4
D; p
rps2
; NPR
1; P
PAT;
NM
E2; N
ME1
-NM
E2;
N
me1
; pai
cs; P
de4b
; Pol
r2c;
pol
d3; p
de1b
; PK
LR; F
HIT
; GU
CY
2C; P
DE8
A;
po
lr2i;
GU
CY
1A3;
Impd
h2; G
UC
Y1A
2; P
DE5
A; P
de1c
; nm
e3
0024
0 Py
rimid
ine
met
abol
ism
M
etab
olis
m; N
ucle
otid
e 0.
001
33
tk1;
PO
LD4;
NM
E4; e
ntpd
6; N
ME2
; NM
E1-N
ME2
; Nm
e1; N
me6
;
M
etab
olis
m
LOC
1001
3090
2; T
XN
RD
1; P
old2
; cad
; itp
a; P
OLR
2G; P
OLR
2H; P
OLR
2L;
N
ME2
; NM
E1-N
ME2
; Nm
e1; P
OLR
2J; N
T5C
2; P
OLR
2F; u
ckl1
; PO
LR2B
;
Polr2
c; p
old3
; dct
D; d
ut; P
RIM
2; p
olr2
i; Po
le; r
rm2;
nm
e3
0027
0 Cy
stein
e an
d m
ethi
onin
e M
etab
olism
; Am
ino
Aci
d 0.
000
11
AH
CYL1
; mat
1a; a
hcY;
Ldh
c; L
dhA
; mat
2a; S
RM; G
ot2;
ldhb
; AM
D1;
bhm
T
met
abol
ism
M
etab
olism
0028
0 Va
line,
leuc
ine
and
isol
euci
ne
Met
abol
ism
; Am
ino
Aci
d 0.
015
18
ALD
H2;
ald
h3a2
; had
h; E
chs1
; MU
T; A
CA
DM
; had
hb; A
ldh6
a1; H
AD
HA
;
degr
adat
ion
Met
abol
ism
A
LDH
9A1;
BCA
T2; H
MG
CS2;
pcc
A; A
LDH
7A1;
AU
H; P
CCB;
Aca
a1; A
CAD
SB
0051
0 N
-Gly
can
bios
ynth
esis
M
etab
olis
m; G
lyca
n 0.
001
14
B4G
ALT
1; M
AN
1A2;
DA
D1;
LO
C15
1162
; Mga
t5; b
4gal
t2; M
AN
2A1;
Rpn
2;
B
iosy
nthe
sis a
nd
RPN
1; D
DO
ST; D
PM1;
ST6
GA
L1; G
AN
AB
; ALG
8
M
etab
olis
m
0052
0 A
min
o su
gar a
nd
Met
abol
ism
; Car
bohy
drat
e 0.
000
17
HK
2P1;
Hk2
; GPI
; UG
DH
; Ren
bp; M
PI; C
HIT
1; c
yb5r
3; T
STA
3; U
AP1
; hex
A;
nu
cleo
tide
suga
r met
abol
ism
M
etab
olis
m
gne;
pgm
1; H
K3;
UG
P2; P
gm3;
gck
0060
0 Sp
hing
olip
id m
etab
olis
m
Met
abol
ism
; Lip
id
0.02
3 12
N
eu1;
GB
A; s
gpl1
; spt
lc1;
PPA
P2A
; SM
PD1;
GA
LC; P
pap2
b; U
GC
G; D
EGS1
;
M
etab
olis
m
Sptlc
2; A
SAH
1
Add
ition
al T
able
6A
. Enr
iche
d si
gnifi
cant
pat
hway
s ob
tain
ed fr
om th
e pu
blic
ally
ava
ilabl
e O
NC
OM
INE
canc
er g
ene
expr
essi
on m
icro
arra
y da
taba
se b
y G
SEA
up-
regu
late
d pa
thw
ays.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3873Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
0065
0 B
utan
oate
met
abol
ism
M
etab
olis
m; C
arbo
hydr
ate
0.02
4 14
A
LDH
5A1;
ALD
H2;
ald
h3a2
; GA
D2;
had
h; E
chs1
; acs
m3;
AC
SM1;
ALD
H9A
1;
M
etab
olis
m
HM
GC
S2; H
AD
HA
; ALD
H7A
1; p
dhB
; pdh
A2
0071
0 C
arbo
n fix
atio
n in
M
etab
olis
m; E
nerg
y 0.
011
13
TPI1
; TPI
1P1;
FB
P2; P
GK
1; M
dh1;
Got
2; F
bp1;
ALD
OA
; tkt
; ME1
; Ald
ob;
ph
otos
ynth
etic
org
anis
ms
Met
abol
ism
LO
C65
2797
; PK
M2
0097
0 A
min
oacy
l-tR
NA
G
enet
ic In
form
atio
n 0.
002
11
Nar
s; K
AR
S; ra
rs; i
ars2
; Gar
s; fa
rsa;
AA
RS;
SA
RS;
epr
s; T
ars;
iars
bi
osyn
thes
is
Proc
essi
ng; T
rans
latio
n
0106
1 B
iosy
nthe
sis o
f -
0.00
1 37
LO
C10
0130
320;
sdhD
; pga
m1;
eno
2; H
K3;
sdhC
; pfk
p; M
dh1;
ALD
OA
; pdh
B;
ph
enyl
prop
anoi
ds
D
HA
; pdh
A2;
Ald
ob; S
dhB
; GPI
; HK
2P1;
Hk2
; AC
LY; A
CO
2; P
GK
1; C
S; F
bp1;
D
hfr;
Prdx
6; L
OC
1001
3304
2; G
APD
H; G
APD
HL6
; FH
; FB
P2; G
ot2;
eno
1;
IDH
1; ta
ldo1
; ID
H2;
tkt;
LOC
6527
97; P
KM
2
0106
5 B
iosy
nthe
sis o
f alk
aloi
ds
- 0.
023
41
LOC
1001
3032
0; sd
hD; p
gam
1; e
no2;
HK
3; sd
hC; P
GD
; BC
AT2;
pfk
p; M
dh1;
de
rived
from
his
tidin
e
H6p
d; p
rps2
; Prp
s1l1
; PR
PS1;
ALD
OA
; pdh
B; S
DH
A; p
dhA
2; A
ldob
; Sdh
B;
an
d pu
rine
ID
H3B
; GPI
; HK
2P1;
Hk2
; AC
LY; N
T5C
2; A
CO
2; P
GK
1; C
S; A
TIC
;
LOC
1001
3304
2; G
APD
H; G
APD
HL6
; Idh
3g; I
mpd
h2; e
no1;
IDH
1; ID
H2;
M
E1; L
OC
6527
97; P
KM
2
0107
0 B
iosy
nthe
sis o
f pla
nt
- 0.
008
50
SC5D
L; D
HC
R24
; LO
C10
0130
320;
sdhD
; pga
m1;
eno
2; M
VD
; HK
3; sd
hC;
ho
rmon
es
PG
D; F
DPS
; pfk
p; M
dh1;
H6p
d; p
rps2
; Prp
s1l1
; PRP
S1; A
LDO
A; p
dhB;
SD
HA
;
pdhA
2; A
ldob
; Sdh
B; t
m7s
f2; m
at1a
; ID
H3B
; GPI
; HK
2P1;
Hk2
; AC
LY; A
CO
2;
PGK
1; C
S; m
at2a
; ID
I1; A
TIC;
LO
C100
1330
42; G
APD
H; G
APD
HL6
; HM
GCS
2;
Idh3
g; G
ot2;
IDH
1; e
no1;
tald
o1; I
DH
2; tk
t; EB
P; L
OC6
5279
7; P
KM
2
0110
0 M
etab
olic
pat
hway
s -
0.00
1 42
2 AT
P6V
0E1;
HA
AO
; GU
K1;
Pla
2g2a
; ATP
6V1E
1; H
SD17
B2;
NFK
B1;
ald
h1a1
;
Pcyt
1a; C
YP3
A4;
PO
LR2G
; GA
LNS;
Apr
t; A
UH
; tyr
; TY
RL;
CH
ST1;
Atp
5j;
D
BH
; AH
CY
L1; H
K2P
1; H
k2; p
apss
1; P
OLR
2F; M
UT;
AC
O2;
AC
SL1;
IDI1
;
Fbp1
; gpa
a1; A
TP6V
1F; A
tp5c
1; L
OC
1001
3304
2; G
APD
H; G
APD
HL6
; Idh
3g;
ck
m; Q
PRT;
NO
S1; N
DU
FAB
1; a
ass;
rrm
2; a
tp5o
; ATP
5J2;
PN
LIPR
P1; t
k1;
O
DC
1; O
CR
L; A
KR
1D1;
PPT
1; P
afah
1b2;
Uqc
rc1;
CY
P2E1
; dao
; PTG
ES; i
ds;
Sa
t1; n
adK
; FA
SN; P
pap2
b; IT
PKA
; PO
LD4;
NO
S2; c
d38;
ptg
ds; H
PGD
S;
MTM
R1;
AG
PS; i
tpa;
ALD
H3A
1; p
gm1;
rdh1
1; S
T3G
AL1
; TPI
1; T
PI1P
1;
POLR
2L; C
YP4
F2; a
tp6v
1b2;
SD
HA
; ALD
H4A
1; S
dhB
; had
h; L
OC
4424
54;
LO
C72
7947
; UQ
CR
B; P
GK
1; L
dhA
; ATP
5G1;
hsd
17b4
; AK
R1B
1; C
OX
6B1;
AT
IC; a
oc3;
uqc
rfs1
; UQ
CR
FSL1
; PLA
2G10
; Ndu
fv2;
LO
C65
2797
; PK
M2;
N
DU
FS6;
MTM
R6;
XD
H; E
chs1
; LO
C10
0130
320;
sdhD
; SR
M; a
da; A
CSM
1;
cad;
Cyp
11b2
; Ald
h6a1
; Gal
ntl4
; ATP
6V1G
2; sg
pl1;
Ptg
s1; S
CP2
; Ndu
fs5;
LO
C10
0130
794;
Uqc
r11;
dct
D; P
IGC
; Im
pdh2
; tkt
; ALP
L; n
me3
; ALO
X12
B;
D
HC
R24
; ATP
6V0C
; NM
E2; N
ME1
-NM
E2; N
me1
; hpd
; B3G
NT2
; b3g
nt1;
PK1;
RPN
1; P
IGH
; PO
LR2H
; B3g
alt5
; ND
UFC
1; S
GSH
; Ogt
; ddc
; PLC
G2;
dh1c
; AD
H1B
; AD
H1A
; Ald
ob; N
DU
FA5;
ALD
H1A
3; P
LA2G
1B; N
OS3
;
PLA
2G5;
HA
DH
A; C
YP2
C19
; GLU
L; ID
H2;
B4G
ALT
1; U
QC
RQ
; agx
t;
Add
ition
al T
able
6A
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3874Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
GA
LC; A
NPE
P; M
AN
2A1;
RD
H16
; PI4
KB
; ALG
8; ld
hb; C
YP4
A11
; Spt
lc2;
ALD
H2;
Ndu
fb8;
CY
P2A
7; A
LOX
12; N
DU
FB1;
DPM
1; A
smt;
LTA
4H; e
no1;
PCC
B; A
caa1
; cox
17; A
CA
DSB
; UG
DH
; CO
X8A
; ATP
5B; L
OC
1001
3179
5;
en
o2; d
ct; n
nmt;
NT5
C2;
uck
l1; P
OLR
2B; C
YP1
9A1;
dut
; Rpn
2; a
tp5h
;
Atp
6v1a
; Cyp
1a2;
EB
P; A
TP6A
P1; M
AO
A; B
3gnt
3; U
GT2
B17
; DEG
S1; U
AP1
;
ATP6
V1D
; ATP
5G2;
Atp
5i; g
rhpr
; pai
cs; P
KLR
; Ptg
is; H
MG
CS2
; FH
; pcc
A;
ta
ldo1
; AK
R1A
1; G
AN
AB
; b3g
at2;
Ala
d; A
CY
1; P
PAP2
A; a
csm
3; C
YP2
C8;
AC
AD
M; N
ME4
; st8
sia5
; Nm
e6; g
ne; P
GD
; PLA
2G7;
Atp
6v0e
2; H
6pd;
ala
S2;
ID
O1;
Aan
at; P
RO
DH
2; O
AT; C
YP2
C18
; GA
A; F
AM
164A
; Ndu
fb7;
Dhf
r;
PCK
1; G
k2; P
ole;
epr
s; P
RO
DH
; FU
T3; a
hcY;
TPO
; SC
5DL;
ALP
I; PO
N3;
Aoc
2; A
MD
1; N
dufv
1; D
hrs3
; PIP
4K2B
; CO
X5B
; pdh
B; P
PAT;
mth
fd2;
Ndu
fb5;
FU
T5; m
at1a
; GU
SB; S
T3G
AL2
; AC
AD
VL;
GB
A; P
olr2
c; C
OA
SY;
ID
H1;
DG
KZ;
Khk
; Cox
7b; C
ox7c
; Atp
6v0b
; ALD
H9A
1; D
DO
ST; A
LAS1
;
GA
D2;
sorD
; Ndu
fs8;
LO
C15
1162
; Mga
t5; M
thfr
; Prd
x6; L
dhc;
FB
P2; A
ldh3
b1;
D
gkg;
GLU
D2;
ALD
H5A
1; B
4GA
LNT1
; spt
lc1;
hex
A; H
sd3b
2; H
K3;
pfk
p;
gc
k; N
ME2
; NM
E1-N
ME2
; Nm
e1; P
IP5K
1A; G
PI; I
NPP
4A; A
ASD
HPP
T;
ha
dhb;
AD
H5;
AD
H5P
4; A
TP6V
1G1;
CY
P3A
7; C
KB
; cyp
2a6;
CO
MT;
ATP6
V0A
2; b
hmT;
MA
N1A
2; C
YP2
1A2;
HA
O1;
UG
T2B
15; p
gam
1; R
EV3L
;
ND
UFA
1; M
VD
; CH
SY1;
CO
X6C
; CY
P2C
9; p
dxK
; Adh
1c; A
DH
1B; A
DH
1A;
G
NS;
Ndu
fa2;
ALD
OA
; hgd
; PO
LR2J
; CO
X5A
; CS;
Aca
cb; P
ikfy
ve; P
RIM
2;
K
ynu;
Acs
l6; P
cyt1
b; M
E1; D
AD
1; C
OX
4I1;
ndu
fs3;
Eph
x2; p
igl;
Ndu
fa7;
BC
AT2;
UG
T2B
7; IN
PP5A
; PLC
B2;
prp
s2; A
tp5a
1; C
ox6a
1; F
UT4
; cyc
1; M
PI;
SM
PD1;
ASA
H1;
CY
P27B
1; a
ldh3
a2; C
yp11
a1; C
DS1
; Uqc
rh; U
QC
RH
L;
Mdh
1; c
at; P
rps1
l1; P
RPS
1; A
tp5d
; ID
H3B
; mat
2a; P
afah
1b1;
MA
OB
; arg
2;
U
GP2
; Got
2; C
YP1
7A1;
Pip
5k1b
; cyp
2a13
; agl
; ALO
X15
B; C
YP1
1B1;
ND
UFS
4; C
ox6a
2; T
STA
3; C
ps1;
Pol
d2; b
4gal
t2; A
CSL
3; sd
hC; A
TP5G
3;
FD
PS; A
lppl
2; p
ts; C
YP3
A5;
Uqc
rc2;
UG
CG
; ptg
ds; H
PGD
S; p
dhA
2; tm
7sf2
;
AC
LY; S
C4M
OL;
CH
PF; M
GLL
; pol
d3; A
LOX
15; p
olr2
i; A
LDH
7A1;
ST6G
AL1
; AB
O; I
dua;
GA
LNT1
; GA
LNT1
3; p
igo
0301
0 R
ibos
ome
Gen
etic
Info
rmat
ion
0.00
0 21
8 rp
s20;
RPL
21P1
4; rp
l21;
RPL
21P2
0; R
PL21
P80;
RPL
21P1
19; R
PL21
P128
;
Pr
oces
sing
; Tra
nsla
tion
RPL
21P1
3; R
PL21
P105
; RPL
21P1
34; R
PL21
P93;
RPL
21P1
25; R
PL21
P16;
RPL
21P2
9; R
PL21
P28;
RPL
21P1
20; R
PL21
P87;
RPL
21P3
9; R
PL21
P98;
RPL
21P9
7; R
PL21
P69;
RPL
21P4
6; R
PL21
P37;
RPL
21P4
5; R
PL21
P53;
RPS
10P7
; RPS
10P1
1; rp
s10;
RPS
10P1
3; R
PS10
P4; R
PS10
P22;
RPL
18; r
pl24
;
RPL
24P6
; rpl
9; R
PL9P
25; R
PS24
; rps
13; R
PS13
P8; R
PS13
P2; R
PL10
AP9
;
RPL
10A
; RPL
10A
P6; R
PL37
; RPS
27A
P11;
RPS
27A
P12;
RPS
27A
;
RPS
27A
P16;
RPS
29P1
1; R
PS29
; RPS
29P9
; RPS
29P3
; RPS
29P1
7; R
PS29
P16;
rpl2
2; R
PL22
P11;
RPL
3; L
OC
6538
81; R
PL5P
34; r
pl5;
RPL
5P1;
Rpl
34; R
PL38
;
RPS
6P25
; RPS
6P1;
RPS
6; R
PS7P
10; R
PS7P
4; R
PS7P
11; r
ps7;
RPL
8P2;
rpl8
;
RPL
P0P6
; RPL
P0P2
; RPL
P0P3
; rpl
P0; S
NO
RA
7B; r
pl32
; Sno
ra7a
; RpL
30;
R
PL17
P18;
RPL
17P3
9; R
PL17
P7; R
PL17
P20;
LO
C72
9046
; RPL
17P3
3;
Add
ition
al T
able
6A
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3875Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
RPL
17P3
4; R
PL17
P9; R
PL17
P22;
RpL
17; R
PL17
P36;
RPS
9P4;
rps9
;
RPL
27A
; rps
12; R
PS12
P11;
RPS
12P4
; RPS
12P9
; rps
17; R
PL12
P6; R
PL12
P32;
RPL
12P1
4; rp
l12;
RPL
12P2
; RPL
12P3
5; R
PL12
P19;
RPS
15A
P12;
RPS
15A
P24;
R
PS15
AP1
1; R
PS15
AP1
7; R
PS15
AP1
9; R
PS15
A; r
ps19
; RPS
19P3
; RPS
28P6
;
RPS
28; R
PS28
P9; r
pl28
; RPS
4Y1;
RPL
31P1
7; rp
l31;
RPL
31P4
9; R
PL19
P12;
rpl1
9; F
au; r
ps23
; RPL
15P1
8; R
PL15
P17;
RPL
15P7
; RPL
15; R
PL15
P3;
R
PL15
P22;
RPL
35P2
; RPL
35P1
; rpl
35; R
PS8P
10; R
PS8P
8; rp
s8; r
ps21
;
RPL
41; R
PL37
A; R
pl27
; RPL
23A
P65;
RPL
23A
P44;
RPL
23A
P43;
RPL
23A
P63;
RPL
23A
P75;
RPL
23A
P37;
Rpl
23a;
RPS
15P5
; rps
15; r
pl11
; rpl
p1; R
ps5;
rpl2
3;
R
PL23
P6; R
PL7P
20; R
PL7;
RPL
7P32
; RPL
7P24
; RPL
7P23
; RPL
7P26
;
RPL
7P16
; RPS
2P17
; rps
2; R
PS2P
55; R
PS2P
8; R
PS2P
20; R
PS2P
11; R
PS2P
12;
R
PS2P
5; R
PS2P
51; R
PL13
; RPL
13P1
2; rp
l14;
RPS
25; R
PS25
P8; r
pl4;
RPL
4P4;
R
PL4P
5; R
PS16
P10;
RPS
16P1
; rps
16; r
ps11
; RPS
11P5
; RPL
29P1
1; R
PL29
P9;
R
PL29
P26;
rpl2
9; R
PL29
P12;
rps3
; RPS
3P3;
RPS
27P1
3; R
PS27
P19;
RPS
27P2
9; R
PS27
P6; r
ps27
; RPS
27P7
; RPS
27P2
1; R
PS27
P9; R
PS27
P23;
RPL
6P27
; rpl
6; R
PL6P
19; R
PL6P
10; L
OC
1001
3010
7; R
PS3A
P5; R
PS3A
P49;
LOC
1001
3169
9; R
PS3A
P47;
rps3
a; R
PS18
P12;
rps1
8; R
PS18
P5; R
PL36
AL;
R
PS4X
P13;
rps4
x; R
PS4X
P6
0305
0 Pr
otea
som
e G
enet
ic In
form
atio
n 0.
001
33
Psm
d11;
Psm
e4; P
SMB
5; p
smd3
; Psm
a3; p
smd7
; PSM
B10
; psm
b7; p
smc3
;
Pr
oces
sing
; Fol
ding
,
PS
MD
13; P
SMD
1; S
HFM
1; p
smc1
; LO
C64
3668
; PSM
D8;
PSM
B3;
PSM
A1;
Sorti
ng a
nd D
egra
datio
n
Ps
ma4
; psm
A2;
PSM
C2;
psm
c4; L
OC
6528
26; P
SMD
2; P
SMD
14; P
SMD
4;
PSM
E2; P
SME1
; psm
b8; p
smb2
; PSM
C5;
PSM
B4;
Psm
c6; p
smb1
0341
0 B
ase
exci
sion
repa
ir G
enet
ic In
form
atio
n 0.
001
13
pcnA
; MB
D4;
lig3
; par
p1; P
OLD
4; p
old3
; OG
G1;
mpg
; HM
GB
1; H
MG
B1L
10;
Proc
essi
ng; R
eplic
atio
n
Po
le; P
old2
; Ape
x1
an
d R
epai
r
0412
0 U
biqu
itin
med
iate
d G
enet
ic In
form
atio
n 0.
000
46
UB
E2N
; UB
R5;
LO
C73
0429
; FZR
1; H
UW
E1; B
IRC
3; L
OC
1001
3297
3;
prot
eoly
sis
Proc
essi
ng; F
oldi
ng,
TCEB
1; U
BE2
I; m
dm2;
AN
APC
5; T
rip12
; btrc
; ube
2d2;
WW
P1; T
ceb2
; par
k2;
Sorti
ng a
nd D
egra
datio
n
D
DB
1; c
dc20
; UB
E2E1
; Ube
3a; W
WP2
; Skp
2; p
pil2
; birc
2; U
BE2
D1;
Uba
1;
UB
E2J1
; vhl
; Ned
d4l;
Cbl
b; u
be2l
3; u
be4a
; UB
E2G
2; m
grn1
; AN
APC
13;
C
DC
16; U
BE3
B; S
ocs1
; PIA
S1; U
BA
2; u
ba3;
SK
P1; F
bxw
11; U
be2s
; SIA
H1
0414
2 Ly
soso
me
Cel
lula
r Pro
cess
es;
0.00
9 55
A
tp6v
0b; A
TP6V
0C; C
D16
4; C
TSL1
; lam
p1; C
TSB
; SG
SH; G
ALN
S;
Tr
ansp
ort a
nd C
atab
olis
m
SLC
11A
1; G
NS;
Cltb
; AC
P2; T
PP1;
Gga
2; li
pA; C
TSZ;
GA
A; c
tsf;
ap3s
1;
CTS
H; A
TP6A
P1; C
TSD
; fuc
A1;
LG
MN
; CD
63; C
TSG
; CLT
A; G
ALC
;
LAPT
M5;
PLA
2G15
; PPT
1; h
exA
; Neu
1; A
P3B
2; A
BC
A2;
PSA
P; A
p3d1
;
GU
SB; A
bcb9
; Lap
tm4b
; GB
A; L
AM
P3; A
P1S1
; SM
PD1;
ids;
Cts
k; A
SAH
1;
Sort1
; CTS
E; A
P1B
1; Id
ua; A
TP6V
0A2;
LA
PTM
4A; l
amp2
; gm
2a
0501
0 A
lzhe
imer
’s d
isea
se
Hum
an D
isea
ses;
0.
001
104
Cac
na1f
; NO
S2; C
OX
8A; B
ID; A
TP5B
; CY
CS;
IL1B
; CA
PN1;
ND
UFA
1;
N
euro
dege
nera
tive
Cal
ml3
; TN
F; B
ad; N
DU
FC1;
APO
E; L
OC
1001
2950
0; A
paf1
; CO
X6C
; Uqc
rh;
Dis
ease
s
U
QC
RH
L; N
dufa
2; C
APN
2; A
tp5d
; Atp
5j; S
DH
A; G
RIN
2A; S
dhB
; ND
UFA
5;
Add
ition
al T
able
6A
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3876Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
CA
LM3;
CA
LM2;
CA
LM1;
LO
C44
2454
; LO
C72
7947
; UQ
CR
B; C
OX
5A;
AT
P5G
1; C
ALM
3; C
ALM
2; C
ALM
1; N
dufs
8; R
YR
3; p
pp3c
a; C
OX
6B1;
Atp
5c1;
Ndu
fb7;
NO
S3; a
tp5h
; LO
C10
0133
042;
GA
PDH
; GA
PDH
L6;
uq
crfs
1; U
QCR
FSL1
; grin
2c; A
PP; C
acna
1d; N
dufv
2; C
ASP
8; N
OS1
; ND
UFA
B1;
A
DA
M10
; ND
UFS
6; a
tp5o
; map
t; LO
C100
1303
20; s
dhD
; UQ
CRQ
; ND
UFS
4;
Co
x6a2
; ndu
fs3;
CO
X4I
1; A
TP2A
2; C
OX
7A1;
Cdk
5r1;
ATP
5G2;
Ndu
fv1;
Ndu
fa7;
sdhC
; Fas
; chp
2; A
TP5G
3; P
LCB2
; Uqc
rc1;
Cox
7a2l
; Uqc
rc2;
CA
CNA
1S; C
OX
5B; C
ox6a
1; A
tp5a
1; N
dufb
5; N
dufb
8; c
yc1;
Ndu
fs5;
LO
C100
1307
94; C
OX
7A2;
Uqc
r11;
ND
UFB
1; L
OC1
0013
1098
; CA
CNA
1C;
IT
PR1;
PPP
3CC;
Nae
1; P
sen1
; Cox
7b; G
NA
Q; C
ox7c
0501
2 Pa
rkin
son’
s dis
ease
H
uman
Dis
ease
s;
0.00
1 82
C
OX
8A; A
TP5B
; CY
CS;
ND
UFA
1; N
DU
FC1;
Apa
f1; p
ark2
; CO
X6C
; Uqc
rh;
Neu
rode
gene
rativ
e
U
QC
RH
L; N
dufa
2; A
tp5d
; Atp
5j; S
DH
A; S
dhB
; ND
UFA
5; P
AR
K7;
LO
C44
2454
;
D
isea
ses
LOC
7279
47; U
QC
RB
; CO
X5A
; ATP
5G1;
Uba
1; S
LC25
A6;
UB
E2J1
; HTR
A2;
N
dufs
8; C
OX
6B1;
Atp
5c1;
Ndu
fb7;
UB
E2G
2; a
tp5h
; uqc
rfs1;
UQ
CR
FSL1
;
slc6a
3; N
dufv
2; N
DU
FAB
1; N
DU
FS6;
atp
5o; L
OC
1001
3032
0; sd
hD; U
QC
RQ
;
Cox
6a2;
ND
UFS
4; n
dufs
3; C
OX
4I1;
SLC
25A
5; S
LC25
A5P
8; C
OX
7A1;
RPS
27A
P11;
RPS
27A
P12;
RPS
27A
; RPS
27A
P16;
Ndu
fv1;
ATP
5G2;
vda
c2;
N
dufa
7; sd
hC; A
TP5G
3; U
qcrc
1; C
ox7a
2l; U
qcrc
2; C
OX
5B; C
ox6a
1; A
tp5a
1;
N
dufb
5; N
dufb
8; c
yc1;
Ndu
fs5;
LO
C10
0130
794;
VD
AC
1P1;
VD
AC
1; C
OX
7A2;
Uqc
r11;
SLC
18A
1; u
be2l
3; N
DU
FB1;
SLC
18A
2; V
DA
C3; C
ox7b
; Cox
7c; S
LC25
A4
0501
6 H
untin
gton
’s d
iseas
e H
uman
Dise
ases
; 0.
001
100
CO
X8A
; ATP
5B; C
YC
S; C
REB
3L2;
ND
UFA
1; N
RF1
; CR
EB1;
Hap
1; P
OLR
2G;
Neu
rode
gene
rativ
e
N
DU
FC1;
PO
LR2H
; Apa
f1; C
OX
6C; G
rm5;
PO
LR2L
; Uqc
rh; U
QCR
HL;
Ndu
fa2;
D
isea
ses
Atp
5d; A
tp5j
; HD
AC
2; S
DH
A; C
ltb; S
dhB
; DN
AH
3; P
OLR
2J; N
DU
FA5;
POLR
2F; t
p53;
LO
C44
2454
; LO
C72
7947
; UQ
CR
B; P
OLR
2B; C
OX
5A;
AT
P5G
1; S
LC25
A6;
Ndu
fs8;
CO
X6B
1; A
tp5c
1; N
dufb
7; a
tp5h
; uqc
rfs1;
UQ
CR
FSL1
; DLG
4; B
AX
; Ndu
fv2;
CA
SP8;
ND
UFA
B1;
SO
D1;
GPX
1;
N
DU
FS6;
atp
5o; C
LTA
; LO
C10
0130
320;
sdhD
; UQ
CR
Q; N
DU
FS4;
Cox
6a2;
nd
ufs3
; CO
X4I
1; S
LC25
A5;
SLC
25A
5P8;
CO
X7A
1; A
P2S1
; ATP
5G2;
Ndu
fv1;
vdac
2; N
dufa
7; sd
hC; A
TP5G
3; A
P2M
1; P
LCB
2; U
qcrc
1; C
ox7a
2l; U
qcrc
2;
CO
X5B
; Cox
6a1;
Atp
5a1;
Ndu
fb5;
tgm
2; N
dufb
8; c
yc1;
Ndu
fs5;
LO
C100
1307
94;
V
DA
C1P1
; VD
AC1
; CO
X7A
2; U
qcr1
1; P
olr2
c; D
CTN
2; sp
1; N
DU
FB1;
Hda
c1;
po
lr2i;
ITPR
1; V
DA
C3; C
ox7b
; GN
AQ
; Cox
7c; S
LC25
A4
0511
0 V
ibrio
cho
lera
e H
uman
Dis
ease
s;
0.00
1 30
AT
P6V
0E1;
Atp
6v0b
; Gna
s; m
uc2;
ATP
6V0C
; ATP
6V1E
1; A
CTG
1; A
TP6V
1D;
in
fect
ion
Infe
ctio
us D
isea
ses
CFT
R; A
rf1;
ATP
6V1G
2; S
EC61
B; P
rkca
; PLC
G2;
atp
6v1b
2; P
RK
AC
A;
A
tp6v
0e2;
PR
KC
B; K
DEL
R1;
ATP
6V1F
; KD
ELR
2; P
RK
CG
; ATP
6V1G
1;
A
tp6v
1a; P
dia4
; KC
NQ
1; A
CTB
; ATP
6V0A
2; se
c61g
; ATP
6AP1
0513
0 Pa
thog
enic
H
uman
Dis
ease
s;
0.01
0 35
C
DH
1; Y
WH
AZ;
ncl
; KRT
18P1
9; K
RT18
; KRT
18P2
6; c
ttn; A
CTG
1; T
UB
B2C
;
Esch
eric
hia
coli
Infe
ctio
us D
isea
ses
Rho
a; P
rkca
; yw
haq;
Tub
b4; t
ubb2
b; N
CK
2; A
BL1
; TU
BA
4A; C
TNN
B1;
WA
S;
in
fect
ion
LO
C39
9942
; TU
BA
1B; T
ubb2
a; E
ZR; L
OC
1001
2965
2; C
dc42
; CD
C42
P2;
O
cln;
LO
C64
7859
; WA
SL; A
CTB
; MC
1R; t
ubb3
; TU
BA
3E; A
RPC
5; It
gb1
Add
ition
al T
able
6A
. Con
tinue
d.
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3877Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
0005
2 G
alac
tose
met
abol
ism
M
etab
olis
m; C
arbo
hydr
ate
0.00
0 13
B
4GA
LT1;
Lct
; pgm
1; H
K2P
1; H
k2; H
K3;
UG
P2; p
fkp;
GA
A; L
ALB
A;
Met
abol
ism
A
KR
1B1;
gck
; b4g
alt2
0035
0 Ty
rosi
ne m
etab
olis
m
Met
abol
ism
; Am
ino
Aci
d 0.
011
29
TPO
; Wbs
cr22
; ALD
H1A
3; M
AO
A; A
oc2;
LO
C28
4889
; hpd
; dct
; MA
OB
;
M
etab
olis
m
AD
H5;
AD
H5P
4; e
ch1;
ALD
H3A
1; a
oc3;
ddc
; Ald
h3b1
; CO
MT;
Got
2; ty
r;
TYR
L; A
dh1c
; AD
H1B
; AD
H1A
; Adh
1c; A
DH
1B; A
DH
1A; L
CM
T2; D
BH
; hgd
0056
2 In
osito
l pho
spha
te
Met
abol
ism; C
arbo
hydr
ate
0.00
8 18
IT
PKA
; IN
PP4A
; PIK
3CD
; OCR
L; P
IK3C
G; P
ikfy
ve; I
TPK
1; A
ldh6
a1; P
IP4K
2B;
m
etab
olis
m
Met
abol
ism
Pi
k3cb
; TPI
1; T
PI1P
1; P
I4K
B; I
NPP
5A; P
LCG
2; P
LCB
2; P
ip5k
1b; P
IP5K
1A
0059
0 A
rach
idon
ic a
cid
Met
abol
ism
; Lip
id
0.00
0 29
A
LOX
12B
; ALO
X15
B; P
la2g
2a; C
YP2
C8;
Eph
x2; p
tgds
; HPG
DS;
CY
P4F2
;
met
abol
ism
M
etab
olis
m
CY
P2C
9; G
PX4;
ptg
ds; H
PGD
S; C
YP4
A11
; PTG
S2; g
pX3;
GPX
2; C
YP2
E1;
PT
GES
; Ptg
s1; C
YP2
C18
; PLA
2G1B
; ALO
X12
; ALO
X15
; Ptg
is; P
LA2G
5;
PL
A2G
10; C
YP2
C19
; LTA
4H; G
PX1
0059
1 Li
nole
ic a
cid
Met
abol
ism
; Lip
id
0.00
5 14
C
YP2
E1; P
la2g
2a; C
YP2
C18
; CY
P2C
8; P
LA2G
1B; A
LOX
15; C
YP3
A4;
met
abol
ism
M
etab
olis
m
PLA
2G5;
PLA
2G10
; CY
P3A
7; C
YP2
C19
; CY
P2C
9; C
YP3
A5;
Cyp
1a2
0083
0 R
etin
ol m
etab
olis
m
Met
abol
ism
; Met
abol
ism
of
0.00
1 29
C
YP2
A7;
UG
T2B
15; C
YP2
C18
; CY
P2C
8; C
YP1
A1;
UG
T2B
17; a
ldh1
a1;
Cof
acto
rs a
nd V
itam
ins
Dhr
s3; A
DH
5; A
DH
5P4;
CY
P3A
4; rd
h11;
RD
H16
; CY
P3A
7; C
yp26
a1; c
yp2a
6;
UG
T2B
7; C
YP2
C19
; CY
P2C
9; C
YP3
A5;
Cyp
1a2;
Adh
1c; A
DH
1B; A
DH
1A;
A
dh1c
; AD
H1B
; AD
H1A
; cyp
2a13
; CY
P4A
11
0098
0 M
etab
olis
m o
f M
etab
olis
m; X
enob
iotic
s 0.
000
36
CY
P2C
8; U
GT2
B15
; GST
M5;
UG
T2B
17; A
LDH
3A1;
CY
P3A
4; U
GT2
B7;
xeno
biot
ics b
y B
iode
grad
atio
n an
d
C
YP2
C9;
GST
O1;
CY
P3A
5; A
dh1c
; AD
H1B
; AD
H1A
; Adh
1c; A
DH
1B;
cy
toch
rom
e P4
50
Met
abol
ism
A
DH
1A; G
STA
4; C
YP2
E1; A
LDH
1A3;
CY
P2C
18; g
sta1
; gst
A2;
CY
P1A
1;
G
STM
3; C
YP2
F1; M
gst3
; AD
H5;
AD
H5P
4; G
STP1
; CY
P3A
7; A
ldh3
b1;
C
YP2
C19
; GST
T1; C
yp1a
2; m
gst2
; CY
P1B
1
0098
2 D
rug
met
abol
ism
-
Met
abol
ism
; Xen
obio
tics
0.00
0 40
M
AO
A; C
YP2
C8;
UG
T2B
15; G
STM
5; U
GT2
B17
; ALD
H3A
1; C
YP3
A4;
cyto
chro
me
P450
B
iode
grad
atio
n an
d
U
GT2
B7;
CY
P2C
9; G
STO
1; C
YP3
A5;
Adh
1c; A
DH
1B; A
DH
1A; A
dh1c
;
M
etab
olis
m
AD
H1B
; AD
H1A
; GST
A4;
CY
P2E1
; CY
P2A
7; A
LDH
1A3;
CY
P2C
18; g
sta1
;
gstA
2; c
yp2d
6; F
MO
1; G
STM
3; M
gst3
; MA
OB
; AD
H5;
AD
H5P
4; G
STP1
;
CY
P3A
7; c
yp2a
6; A
ldh3
b1; C
YP2
C19
; Cyp
1a2;
GST
T1; m
gst2
; cyp
2a13
0098
3 D
rug
met
abol
ism
-
Met
abol
ism
; Xen
obio
tics
0.00
5 17
G
USB
; XD
H; u
ckl1
; tk1
; CY
P2A
7; U
GT2
B15
; UG
T2B
17; C
ES1;
itpa
;
othe
r enz
ymes
B
iode
grad
atio
n an
d
C
YP3
A4;
CY
P3A
7; c
yp2a
6; U
GT2
B7;
Impd
h2; C
YP3
A5;
tpm
T; c
yp2a
13
M
etab
olis
m
0332
0 PP
AR
sign
alin
g pa
thw
ay
Org
anis
mal
Sys
tem
s;
0.01
6 32
R
PS27
AP1
1; R
PS27
AP1
2; R
PS27
A; R
PS27
AP1
6; fa
bp3;
; A
CA
DM
; slc
27a2
;
En
docr
ine
Syst
em
aqp7
; Cpt
1b; C
HK
B; P
PAR
A; A
CSL
3; IL
K; P
ltp; F
AD
S2; R
XR
G; C
YP4
A11
;
DB
I; A
POC
3; P
LIN
1; S
CP2
; AC
SL1;
Fab
p6; F
abp7
; AD
IPO
Q; H
MG
CS2
;
RX
RA
; PC
K1;
Gk2
; Acs
l6; A
caa1
; ME1
0401
0 M
APK
sign
alin
g pa
thw
ay
Envi
ronm
enta
l Inf
orm
atio
n 0.
001
138
Cac
na1f
; map
2k6;
Rap
1b; A
CV
R1B
; dus
p6; F
LNB
; Pdg
fb; P
la2g
2a; D
usp7
;
Pr
oces
sing
; Sig
nal
PPM
1A; N
FATC
4; IL
1B; N
FKB
1; M
AP4
K1;
DU
SP1;
map
k8; R
ASG
RF1
;
Tr
ansd
uctio
n
PT
PN7;
FG
F5; L
OC
4078
35; M
ap2k
2; F
LNC
; tp5
3; T
gfbr
2; F
GF1
8; M
AP3
K5;
Add
ition
al T
able
6B
. D
own-
regu
late
d pa
thw
ays.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3878Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
PL
A2G
1B; M
ap2k
5; M
YC
; ppp
3ca;
TG
FB3;
PR
KC
G; P
LA2G
5; F
GF2
;
Fgf3
; RA
F1; m
apt;
MA
PK10
; DU
SP9;
SO
S1; p
tprr
; NFK
B2;
CR
KL;
Srf
;
Stk3
; Pdg
frb;
Fas
; chp
2; C
AC
NB
4; F
OS;
Prk
ca; e
lk1;
MA
P3K
7; C
AC
NB
2;
R
RA
S2; L
OC
1001
3321
1; G
add4
5b; K
IAA
1549
; tab
2; M
AP3
K13
; Ras
grp2
;
FGF4
; LO
C10
0131
098;
CA
CN
A1C
; PPP
3CC
; RA
PGEF
2; L
OC
1001
3356
7;
C
AC
NG
1; N
R4A
1; D
USP
3; F
GF8
; FG
F9; r
ac1;
STM
N1;
relA
; Gad
d45g
;
FASL
G; G
AD
D45
A; d
usp5
; TN
F; P
ak2;
TA
OK
3; N
F1; a
kt1;
FLN
A; P
RK
AC
A;
ra
sgrp
3; M
APK
APK
2; R
PS6K
A2;
LO
C10
0127
984;
Kra
s; C
AC
NA
1E; J
un;
M
AP3
K4;
PLA
2G10
; Cac
na1d
; CA
CN
G3;
Il1r
1; H
SPA
8; M
apk8
ip2;
CA
CN
A1G
; FG
FR2;
MEF
2C; A
TF4;
ATF
4C; p
dgfr
a; m
apka
pk3;
JUN
D;
tg
fbr1
; Hsp
a1l;
NTR
K1;
Map
k14;
Map
k11;
CA
CN
B1;
Fgf
r1; C
AC
NA
1S;
PR
KC
B; M
AX
; ELK
4; a
kt2;
TG
FB1;
Rra
s; H
SPA
1A; H
SPA
1B; f
gf12
; Cdc
42;
C
DC
42P2
; MK
NK
2; ik
bkg;
Gna
12; C
acna
2d1;
Hsp
b1; H
SPB
L2; N
TRK
2;
SO
S2; F
gf7;
LO
C10
0132
771;
FG
F7P2
0401
2 Er
bB si
gnal
ing
path
way
En
viro
nmen
tal I
nfor
mat
ion
0.01
5 47
C
AM
K2G
; MA
PK10
; gab
1; T
GFA
; Pak
3; P
IK3C
D; S
OS1
; PIK
3CG
; CR
KL;
Pr
oces
sing
; Sig
nal
PIK
3R3;
Pak
2; B
ad; P
rkca
; akt
1; S
HC
1; P
LCG
2; e
lk1;
map
k8; E
rbb3
; PR
KC
B;
Tran
sduc
tion
LOC
4078
35; M
ap2k
2; N
rg2;
NC
K2;
AB
L1; R
PS6K
B1;
akt
2; K
IAA
1549
;
Cam
k2a;
Cam
k2b;
Erb
b4; K
ras;
CD
KN
1A; C
blb;
Sta
t5b;
MY
C; C
DK
N1B
; Jun
;
PRK
CG
; SH
C2;
Pik
3cb;
SH
C3;
PIK
3R2;
SO
S2; R
AF1
; NR
G1;
Erb
b2
0402
0 C
alci
um si
gnal
ing
Envi
ronm
enta
l Inf
orm
atio
n 0.
013
98
CA
MK
2G; C
acna
1f; S
LC8A
2; T
acr1
; ITP
KA
; BD
KR
B2;
P2R
X1;
NO
S2;
pa
thw
ay
H
TR4;
cd3
8; A
DC
Y2;
Agt
r1; H
TR6;
P2R
X6;
Cal
ml3
; HTR
7; L
HC
GR
;
AD
RA
1A; H
TR2A
; PLC
G2;
Grm
5; M
YLK
; PR
KA
CA
; cam
k4; G
RIN
2A;
C
ALM
3; C
ALM
2; C
ALM
1; E
DN
RA
; atp
2b4;
CA
LM3;
CA
LM2;
CA
LM1;
SLC
25A
6; T
rpc1
; Erb
b4; C
CK
AR
; RY
R3;
ppp
3ca;
NO
S3; C
AC
NA
1E; P
2rx5
;
PRK
CG
; ATP
2B2;
grin
2c; g
nal;
Cac
na1d
; GR
M1;
CC
KB
R; A
VPR
1B; N
OS1
;
SLC
8A1;
grp
r; C
AC
NA
1G; G
nas;
AD
CY
1; A
tp2b
3; D
RD
5; S
LC25
A5;
SLC
25A
5P8;
pdg
fra;
ATP
2A2;
tbxa
2r; P
TGER
3; N
tsr1
; P2R
X4;
vda
c2; P
dgfr
b;
ch
p2; P
TAFR
; Prk
ca; E
rbb3
; PLC
B2;
CA
CN
A1S
; PR
KC
B; T
AC
R3;
Adr
b3;
V
DA
C1P
1; V
DA
C1;
Cam
k2a;
ATP
2B1;
Cam
k2b;
AD
RA
1D; p
de1b
;
LOC
1001
3109
8; C
AC
NA
1C; P
PP3C
C; I
TPR
1; P
hkb;
VD
AC
3; C
HR
M3;
adra
1b; A
DR
B2;
GN
A11
; GN
AQ
; Pde
1c; E
rbb2
; SLC
25A
4
0406
0 C
ytok
ine-
cyto
kine
En
viro
nmen
tal I
nfor
mat
ion
0.02
2 11
9 cs
f1; I
FNA
6; A
CV
R1B
; eda
; Pdg
fb; I
L10R
A; I
L1B
; CC
L14;
CC
L15;
Tnf
sf11
;
rece
ptor
inte
ract
ion
Proc
essi
ng; S
igna
ling
IL18
RA
P; L
EP; C
SF3;
CX
CR
6; C
CR
2; T
gfbr
2; C
XC
R3;
TN
FSF9
; CSF
2RB
;
M
olec
ules
and
Inte
ract
ion
CC
L4L1
; CC
L4L2
; CX
CL1
; TG
FB3;
LEP
R; T
NFR
SF25
; csf
3r; C
CR
7; C
CL3
;
Il5; T
PO; c
cl1;
Cxc
l3; i
l10;
CC
L22;
ZFP
91; C
NTF
; Zfp
91-C
ntf;
Ccl
2; P
RLR
;
Tnfr
sf4;
INH
BC
; Pdg
frb;
Fas
; CD
40LG
; il2
rg; I
L8; H
gf; l
ta; I
l5ra
; FLT
1; Il
24;
If
na14
; CC
R1;
IFN
W1;
TN
FSF4
; IFN
A4;
IL13
; CX
CL5
; Il3
; Veg
fb; C
XC
L2;
X
CL2
; LTB
R; C
XC
R2;
CD
27; F
LT3;
Inhb
b; L
OC
6527
99; L
OC
6538
82;
K
IT; I
L9R
; EPO
R; I
FNG
R2;
FA
SLG
; IL4
; OSM
R; T
NF;
IL6S
T; C
XC
L12;
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3879Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
Il1
8r1;
IFN
A21
; CC
R9;
INH
BA
; Ifn
a10;
Ccl
27; T
NFR
SF21
; GD
F5; I
FNA
5;
IL
17A
; Cd7
0; C
XC
R5;
Il1r
1; g
h2; i
l1ra
p; IF
NG
R1;
ccr
4; T
NFS
F10;
TN
FRSF
8;
IL
7R; C
CL5
; pdg
fra;
IL6;
CC
L23;
Cxc
r1; c
tf1; t
gfbr
1; T
nfrs
f11a
; MET
;
CX
CR
4; Il
10rb
; EPO
; TG
FB1;
IL23
A; C
CL1
6; V
EGFA
; CC
L13;
ifna
2;
TN
FRSF
10C
; TN
FRSF
17
0406
2 C
hem
okin
e si
gnal
ing
Org
anis
mal
Sys
tem
s;
0.02
0 83
JA
K3;
rac1
; Rap
1b; r
elA
; fox
o3b;
FO
XO
3; P
RK
CD
; Par
d3; A
DC
Y2;
PIK
3CG
;
path
way
Im
mun
e Sy
stem
N
FKB
1; C
CL1
4; C
CL1
5; R
hoa;
akt
1; S
HC
1; C
XC
L12;
AD
RB
K1;
PR
KA
CA
;
CX
CR
6; C
CR
2; C
CR
9; C
cl27
; CX
CR
3; W
AS;
Kra
s; C
CL4
L1; C
CL4
L2;
C
XC
L1; g
ng5;
SH
C2;
tiam
1; C
XC
R5;
Pik
3cb;
SH
C3;
PX
N; g
nb2;
GN
B1;
CC
R7;
RA
F1; L
OC
1001
2815
5; C
CL3
; DO
CK
2; N
FKB
IA; c
cr4;
ccl
1; C
xcl3
;
AD
CY
1; C
CL5
; SO
S1; P
IK3C
D; C
xcr1
; CC
L23;
CC
L22;
CR
KL;
Ccl
2; S
TAT1
;
PIK
3R3;
IL8;
gng
7; P
LCB
2; P
RK
CB
; CX
CR
4; a
kt2;
STA
T2; K
IAA
1549
;
CC
R1;
Sta
t5b;
CX
CL5
; CC
L16;
Sta
t3; C
CL1
3; C
dc42
; CD
C42
P2; R
asgr
p2;
C
XC
L2; i
kbkg
; XC
L2; W
ASL
; PIK
3R2;
CX
CR
2; g
nb3;
SO
S2
0407
0 Ph
osph
atid
ylin
osito
l En
viro
nmen
tal I
nfor
mat
ion
0.00
0 31
IT
PKA
; PIK
3CD
; PIK
3CG
; OC
RL;
CD
S1; C
alm
l3; P
IK3R
3; IT
PK1;
PIP
4K2B
;
sign
alin
g sy
stem
Pr
oces
sing
; Sig
nal
Prkc
a; P
I4K
B; P
LCG
2; IN
PP5A
; PLC
B2;
PR
KC
B; P
IP5K
1A; C
ALM
3;
Tran
sduc
tion
CA
LM2;
CA
LM1;
CA
LM3;
CA
LM2;
CA
LM1;
INPP
4A; P
ikfy
ve; P
RK
CG
;
Pik3
cb; I
TPR
1; P
IK3R
2; D
GK
Z; P
ip5k
1b; D
gkg
0411
5 p5
3 si
gnal
ing
path
way
C
ellu
lar P
roce
sses
; Cel
l 0.
006
34
Gad
d45g
; EI2
4; G
AD
D45
A; B
ID; C
CN
D1;
CY
CS;
mdm
2; M
DM
4; F
as;
Gro
wth
and
Dea
th
Apa
f1; T
hbs1
; LO
C65
1610
; ATM
; SER
PIN
B5;
LO
C64
8152
; LO
C65
1921
; ATR
;
CC
NB
2; C
dk6;
Gad
d45b
; GTS
E1; t
p53;
CC
ND
2; ig
fbp3
; CD
KN
1A; T
SC2;
CC
NG
2; B
AX
; SER
PIN
E1; I
gf1;
CA
SP8;
SFN
; rrm
2; S
IAH
1
0414
0 R
egul
atio
n of
aut
opha
gy
Cel
lula
r Pro
cess
es;
0.01
4 13
If
na14
; BEC
N1;
Ifna
10; I
FNA
6; G
AB
AR
AP;
ifna
2; G
AB
AR
APL
2; IF
NA
4;
Tr
ansp
ort a
nd C
atab
olis
m
IFN
A21
; GA
BA
RA
PL3;
GA
BA
RA
PL1;
IFN
A5;
Ulk
2
0415
0 m
TOR
sign
alin
g pa
thw
ay
Envi
ronm
enta
l Inf
orm
atio
n 0.
002
24
RPS
6KB
1; H
IF1A
; RPS
6P25
; RPS
6P1;
RPS
6; a
kt2;
KIA
A15
49; d
dit4
; EIF
4B;
Proc
essi
ng; S
igna
l
EI
F4B
P7; P
IK3C
D; R
PS6K
A2;
LO
C10
0127
984;
PIK
3CG
; TSC
2; V
EGFA
;
Tr
ansd
uctio
n
Ve
gfb;
PIK
3R3;
rheb
; Pik
3cb;
akt
1; Ig
f1; P
IK3R
2; U
lk2
0427
0 Va
scul
ar sm
ooth
mus
cle
Org
anis
mal
Sys
tem
s;
0.00
0 63
C
acna
1f; P
RK
CD
; Pla
2g2a
; prk
cq; A
DC
Y2;
Agt
r1; C
alm
l3; A
RH
GEF
12;
co
ntra
ctio
n C
ircul
ator
y Sy
stem
A
DR
A1A
; Rho
a; M
YLK
; PR
KA
CA
; LO
C40
7835
; Map
2k2;
Gna
13;
C
ALM
3; C
ALM
2; C
ALM
1; E
DN
RA
; CA
LM3;
CA
LM2;
CA
LM1;
PLA
2G1B
;
PTG
IR; P
RK
CG
; PLA
2G5;
PLA
2G10
; PPP
1R12
B; R
AM
P1; C
acna
1d;
AV
PR1B
; RA
F1; M
YH
11; A
DC
Y1;
Gna
s; P
pp1c
c; P
PP1R
12A
; MY
L6B
;
Ppp1
ca; P
rkca
; Prk
ce; a
cta2
; PLC
B2;
CA
CN
A1S
; NPR
1; C
YP4
A11
; PR
KC
B;
K
IAA
1549
; AD
RA
1D; A
RH
GEF
11; A
ctg2
; CA
LD1;
LO
C10
0131
098;
CA
CN
A1C
; Gna
12; I
TPR
1; G
UC
Y1A
3; a
dra1
b; G
NA
11; G
UC
Y1A
2; G
NA
Q;
K
CN
MA
1; M
YL9
0431
0 W
nt si
gnal
ing
path
way
En
viro
nmen
tal I
nfor
mat
ion
0.00
0 59
C
AM
K2G
; rac
1; c
snk1
a1; C
CN
D1;
NFA
TC4;
btrc
; SFR
P4; R
hoa;
Ctb
p1;
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3880Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
Il1
8r1;
IFN
A21
; CC
R9;
INH
BA
; Ifn
a10;
Ccl
27; T
NFR
SF21
; GD
F5; I
FNA
5;
IL
17A
; Cd7
0; C
XC
R5;
Il1r
1; g
h2; i
l1ra
p; IF
NG
R1;
ccr
4; T
NFS
F10;
TN
FRSF
8;
IL
7R; C
CL5
; pdg
fra;
IL6;
CC
L23;
Cxc
r1; c
tf1; t
gfbr
1; T
nfrs
f11a
; MET
;
CX
CR
4; Il
10rb
; EPO
; TG
FB1;
IL23
A; C
CL1
6; V
EGFA
; CC
L13;
ifna
2;
TN
FRSF
10C
; TN
FRSF
17
0406
2 C
hem
okin
e si
gnal
ing
Org
anis
mal
Sys
tem
s;
0.02
0 83
JA
K3;
rac1
; Rap
1b; r
elA
; fox
o3b;
FO
XO
3; P
RK
CD
; Par
d3; A
DC
Y2;
PIK
3CG
;
path
way
Im
mun
e Sy
stem
N
FKB
1; C
CL1
4; C
CL1
5; R
hoa;
akt
1; S
HC
1; C
XC
L12;
AD
RB
K1;
PR
KA
CA
;
CX
CR
6; C
CR
2; C
CR
9; C
cl27
; CX
CR
3; W
AS;
Kra
s; C
CL4
L1; C
CL4
L2;
C
XC
L1; g
ng5;
SH
C2;
tiam
1; C
XC
R5;
Pik
3cb;
SH
C3;
PX
N; g
nb2;
GN
B1;
CC
R7;
RA
F1; L
OC
1001
2815
5; C
CL3
; DO
CK
2; N
FKB
IA; c
cr4;
ccl
1; C
xcl3
;
AD
CY
1; C
CL5
; SO
S1; P
IK3C
D; C
xcr1
; CC
L23;
CC
L22;
CR
KL;
Ccl
2; S
TAT1
;
PIK
3R3;
IL8;
gng
7; P
LCB
2; P
RK
CB
; CX
CR
4; a
kt2;
STA
T2; K
IAA
1549
;
CC
R1;
Sta
t5b;
CX
CL5
; CC
L16;
Sta
t3; C
CL1
3; C
dc42
; CD
C42
P2; R
asgr
p2;
C
XC
L2; i
kbkg
; XC
L2; W
ASL
; PIK
3R2;
CX
CR
2; g
nb3;
SO
S2
0407
0 Ph
osph
atid
ylin
osito
l En
viro
nmen
tal I
nfor
mat
ion
0.00
0 31
IT
PKA
; PIK
3CD
; PIK
3CG
; OC
RL;
CD
S1; C
alm
l3; P
IK3R
3; IT
PK1;
PIP
4K2B
;
sign
alin
g sy
stem
Pr
oces
sing
; Sig
nal
Prkc
a; P
I4K
B; P
LCG
2; IN
PP5A
; PLC
B2;
PR
KC
B; P
IP5K
1A; C
ALM
3;
Tran
sduc
tion
CA
LM2;
CA
LM1;
CA
LM3;
CA
LM2;
CA
LM1;
INPP
4A; P
ikfy
ve; P
RK
CG
;
Pik3
cb; I
TPR
1; P
IK3R
2; D
GK
Z; P
ip5k
1b; D
gkg
0411
5 p5
3 si
gnal
ing
path
way
C
ellu
lar P
roce
sses
; Cel
l 0.
006
34
Gad
d45g
; EI2
4; G
AD
D45
A; B
ID; C
CN
D1;
CY
CS;
mdm
2; M
DM
4; F
as;
Gro
wth
and
Dea
th
Apa
f1; T
hbs1
; LO
C65
1610
; ATM
; SER
PIN
B5;
LO
C64
8152
; LO
C65
1921
; ATR
;
CC
NB
2; C
dk6;
Gad
d45b
; GTS
E1; t
p53;
CC
ND
2; ig
fbp3
; CD
KN
1A; T
SC2;
CC
NG
2; B
AX
; SER
PIN
E1; I
gf1;
CA
SP8;
SFN
; rrm
2; S
IAH
1
0414
0 R
egul
atio
n of
aut
opha
gy
Cel
lula
r Pro
cess
es;
0.01
4 13
If
na14
; BEC
N1;
Ifna
10; I
FNA
6; G
AB
AR
AP;
ifna
2; G
AB
AR
APL
2; IF
NA
4;
Tr
ansp
ort a
nd C
atab
olis
m
IFN
A21
; GA
BA
RA
PL3;
GA
BA
RA
PL1;
IFN
A5;
Ulk
2
0415
0 m
TOR
sign
alin
g pa
thw
ay
Envi
ronm
enta
l Inf
orm
atio
n 0.
002
24
RPS
6KB
1; H
IF1A
; RPS
6P25
; RPS
6P1;
RPS
6; a
kt2;
KIA
A15
49; d
dit4
; EIF
4B;
Proc
essi
ng; S
igna
l
EI
F4B
P7; P
IK3C
D; R
PS6K
A2;
LO
C10
0127
984;
PIK
3CG
; TSC
2; V
EGFA
;
Tr
ansd
uctio
n
Ve
gfb;
PIK
3R3;
rheb
; Pik
3cb;
akt
1; Ig
f1; P
IK3R
2; U
lk2
0427
0 Va
scul
ar sm
ooth
mus
cle
Org
anis
mal
Sys
tem
s;
0.00
0 63
C
acna
1f; P
RK
CD
; Pla
2g2a
; prk
cq; A
DC
Y2;
Agt
r1; C
alm
l3; A
RH
GEF
12;
co
ntra
ctio
n C
ircul
ator
y Sy
stem
A
DR
A1A
; Rho
a; M
YLK
; PR
KA
CA
; LO
C40
7835
; Map
2k2;
Gna
13;
C
ALM
3; C
ALM
2; C
ALM
1; E
DN
RA
; CA
LM3;
CA
LM2;
CA
LM1;
PLA
2G1B
;
PTG
IR; P
RK
CG
; PLA
2G5;
PLA
2G10
; PPP
1R12
B; R
AM
P1; C
acna
1d;
AV
PR1B
; RA
F1; M
YH
11; A
DC
Y1;
Gna
s; P
pp1c
c; P
PP1R
12A
; MY
L6B
;
Ppp1
ca; P
rkca
; Prk
ce; a
cta2
; PLC
B2;
CA
CN
A1S
; NPR
1; C
YP4
A11
; PR
KC
B;
K
IAA
1549
; AD
RA
1D; A
RH
GEF
11; A
ctg2
; CA
LD1;
LO
C10
0131
098;
CA
CN
A1C
; Gna
12; I
TPR
1; G
UC
Y1A
3; a
dra1
b; G
NA
11; G
UC
Y1A
2; G
NA
Q;
K
CN
MA
1; M
YL9
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3881Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
0431
0 W
nt si
gnal
ing
path
way
En
viro
nmen
tal I
nfor
mat
ion
0.00
0 59
C
AM
K2G
; rac
1; c
snk1
a1; C
CN
D1;
NFA
TC4;
btrc
; SFR
P4; R
hoa;
Ctb
p1;
Proc
essi
ng; S
igna
l
D
AA
M1;
map
k8; L
ef1;
WN
T2B
; PR
KA
CA
; CTB
P2; P
PP2C
B; P
PP2R
1A; t
p53;
Tran
sduc
tion
APC
2; n
fatc
1; C
TNN
B1;
NFA
T5; N
fatc
3; L
Y6G
5B; C
SNK
2B; C
hd8;
wnt
2;
pp
p3ca
; MY
C; J
un; P
RK
CG
; WN
T11;
Sfr
p1; S
KP1
; wnt
8b; F
bxw
11; t
bl1x
;
SIA
H1;
CSN
K1E
; MA
PK10
; FZD
7; sm
ad4;
chp
2; F
OSL
1; P
rkca
; MA
P3K
7;
PL
CB
2; P
PP2R
5C; P
RK
CB
; CC
ND
2; C
amk2
a; C
amk2
b; P
PP2C
A; p
pp2r
1b;
w
nt10
b; m
mp7
; SM
AD
3; P
PP3C
C; P
sen1
0434
0 H
edge
hog
sign
alin
g En
viro
nmen
tal I
nfor
mat
ion
0.00
1 17
C
SNK
1E; c
snk1
a1; B
MP6
; wnt
2; w
nt10
b; b
trc; I
HH
; BM
P5; Z
IC2;
Gli3
;
path
way
Pr
oces
sing
; Sig
nal
WN
T11;
CSN
K1D
; WN
T2B
; Fbx
w11
; wnt
8b; P
RK
AC
A; S
mo
Tran
sduc
tion
0435
0 TG
F-be
ta si
gnal
ing
Envi
ronm
enta
l Inf
orm
atio
n 0.
000
36
Inhb
b; A
CV
R1B
; thb
s4; B
MP6
; TN
F; tg
fbr1
; sm
ad4;
INH
BC
; Thb
s1; R
hoa;
pa
thw
ay
Proc
essi
ng; S
igna
l
e2
f4; i
d1; R
bl1;
LEF
TY2;
Id3;
RPS
6KB
1; L
tbp1
; IN
HB
A; P
PP2C
B; P
PP2R
1A;
Tran
sduc
tion
Tgfb
r2; T
GFB
1; G
DF5
; sp1
; ppp
2r1b
; PPP
2CA
; LEF
TY1;
MY
C; T
GFB
3;
B
MP5
; RB
L2; S
MA
D3;
SK
P1; E
2f5;
pitx
2; S
MA
D9
0436
0 A
xon
guid
ance
O
rgan
ism
al S
yste
ms;
0.
001
51
rac1
; eph
b1; N
FATC
4; S
EMA
4D; P
ak2;
AR
HG
EF12
; efn
a2; D
pysl
2; P
LXN
B3;
D
evel
opm
ent
Rho
a; E
FNA
5; C
XC
L12;
EFN
B2;
sem
a3f;
SEM
A3C
; AB
L1; n
fatc
1; N
FAT5
;
Nfa
tc3;
Slit
2; K
ras;
ppp
3ca;
EFN
A1;
EPH
B6;
RN
D1;
efn
b1; N
tng1
; Itg
b1; s
lit1;
Pak3
; EFN
A3;
SEM
A7A
; Efn
b3; c
hp2;
MET
; EPH
A4;
L1c
am; E
PHA
2;
C
XC
R4;
NC
K2;
Unc
5b; C
FL1;
SEM
A4F
; Eph
a5; e
phb2
; Cdc
42; C
DC
42P2
;
SEM
A5A
; PPP
3CC
; plx
nb2;
UN
C5C
0437
0 V
EGF
sign
alin
g En
viro
nmen
tal I
nfor
mat
ion
0.01
2 41
ra
c1; P
la2g
2a; P
IK3C
D; P
IK3C
G; m
apka
pk3;
NFA
TC4;
PIK
3R3;
Bad
; chp
2;
pa
thw
ay
Proc
essi
ng; S
igna
l
M
apk1
4; M
apk1
1; P
rkca
; akt
1; P
LCG
2; L
OC
4078
35; M
ap2k
2; P
RK
CB
;
Tr
ansd
uctio
n
PT
GS2
; MA
PKA
PK2;
akt
2; n
fatc
1; N
FAT5
; Nfa
tc3;
Kra
s; P
LA2G
1B; p
pp3c
a;
V
EGFA
; NO
S3; C
dc42
; CD
C42
P2; P
RK
CG
; SH
C2;
PLA
2G5;
PLA
2G10
;
Pik3
cb; P
PP3C
C; H
spb1
; HSP
BL2
; PX
N; P
IK3R
2; R
AF1
0451
0 Fo
cal a
dhes
ion
Cel
lula
r Pro
cess
es;
0.00
0 11
4 C
ol6a
3; R
ap1b
; FLN
B; I
TGA
5; it
ga6;
Pdg
fb; C
had;
CC
ND
1; P
IK3C
G;
Cel
l Com
mun
icat
ion
myl
2; A
CTG
1; B
CL2
; Rho
a; S
HC
1; m
apk8
; RA
SGR
F1; v
wf;
FLN
C; b
irc2;
C
TNN
B1;
MY
L12A
; MY
L12B
; CO
L11A
1; L
AM
A1;
PR
KC
G; S
HC
2; S
HC
3;
ca
v1; I
gf1;
CO
L6A
2; L
AM
C2;
CO
L1A
1; R
AF1
; Lam
a2; Z
YX
;
LOC
1001
2815
5; IB
SP; I
tgb1
; Itg
b5; M
APK
10; B
IRC
3; th
bs4;
Pak
3; S
OS1
;
PIK
3CD
; PPP
1R12
A; C
ol4a
6; C
RK
L; T
LN1;
LA
MA
4; P
IK3R
3; P
dgfr
b;
Pp
p1ca
; ITG
B3;
Thb
s1; P
rkca
; Hgf
; elk
1; F
LT1;
ITG
A9;
IGF1
R; l
amb2
;
KIA
A15
49; C
ol11
a2; V
egfb
; LA
MB
1; a
ctn4
; vcl
; CO
L6A
1; IT
GA
10; C
AV3;
rac1
; SPP
1; P
ak2;
Bad
; FLN
A; a
kt1;
MY
LK; a
ctn1
; CA
PN2;
LA
MC
1;
C
OL3
A1;
vtn
; Jun
; Pik
3cb;
LA
MA
5; A
CTB
; PX
N; i
tga2
b; p
dgfr
a; P
pp1c
c;
M
ET; I
LK; I
TGA
7; fn
1; T
NN
; PR
KC
B; I
tgav
; GR
LF1;
TLN
2; a
kt2;
CC
ND
2;
V
EGFA
; CO
L1A
2; C
dc42
; CD
C42
P2; I
TGA
3; T
NC
; col
4a2;
Col
4a1;
PIK
3R2;
SOS2
; Erb
b2; M
YL9
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3882Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
0451
2 EC
M-r
ecep
tor
Envi
ronm
enta
l Inf
orm
atio
n 0.
000
54
Col
6a3;
ITG
A10
; ITG
A5;
sdc3
; itg
a6; C
had;
DA
G1;
SPP
1; G
P5; v
wf;
CD
47;
in
tera
ctio
n Pr
oces
sing
; Sig
nalin
g
LA
MC
1; C
OL3
A1;
CD
44; v
tn; H
spg2
; CO
L11A
1; L
AM
A1;
Sdc
4; L
AM
A5;
M
olec
ules
and
Inte
ract
ion
CO
L6A
2; L
AM
C2;
CO
L1A
1; L
ama2
; Itg
b1; G
P9; I
BSP
; HM
MR
; Itg
b5;
sd
c1; G
p1ba
; thb
s4; i
tga2
b; C
ol4a
6; L
AM
A4;
GP1
BB
; ITG
B3;
Thb
s1; I
TGA
7;
fn
1; T
NN
; ITG
A9;
Itga
v; la
mb2
; Col
11a2
; SV
2B; S
V2A
; CO
L1A
2; IT
GA
3;
TN
C; L
AM
B1;
col
4a2;
Col
4a1;
CO
L6A
1
0454
0 G
ap ju
nctio
n C
ellu
lar P
roce
sses
; 0.
003
39
Gna
s; A
DC
Y1;
Pdg
fb; p
dgfr
a; S
OS1
; AD
CY
2; T
UB
B2C
; GJA
1; D
RD
2; P
dgfr
b;
C
ell C
omm
unic
atio
n
H
TR2A
; Prk
ca; G
rm5;
PLC
B2;
PR
KA
CA
; Tub
b4; t
ubb2
b; P
RK
CB
;
LOC
4078
35; M
ap2k
2; T
UB
A4A
; LO
C39
9942
; TU
BA
1B; K
ras;
Tub
b2a;
Map
2k5;
PR
KC
G; I
TPR
1; G
UC
Y1A
3; G
RM
1; C
SNK
1D; M
C1R
; tub
b3; S
OS2
;
GN
A11
; RA
F1; G
UC
Y1A
2; G
NA
Q; T
UB
A3E
0461
0 C
ompl
emen
t and
O
rgan
ism
al S
yste
ms;
0.
000
31
fgb;
BD
KR
B2;
SER
PIN
G1;
kng
1; C
4BPA
; C8G
; PLA
UR
; CFH
; C1s
; Cd4
6;
coag
ulat
ion
casc
ades
Im
mun
e Sy
stem
FG
A; T
FPI;
vwf;
C6;
pro
C; F
3; se
rpin
d1; C
D59
; cfd
; mas
p2; p
lg; F
12; C
1QB
;
F7; S
ERPI
NE1
; CPB
2; C
1r; F
2; C
7; C
9; C
R1
0462
0 To
ll-lik
e re
cept
or
Org
anis
mal
Sys
tem
s;
0.02
3 49
N
FKB
IA; T
RA
F3; m
ap2k
6; ra
c1; M
APK
10; l
bp; r
elA
; IFN
A6;
CC
L5; I
KB
KE;
si
gnal
ing
path
way
Im
mun
e Sy
stem
PI
K3C
D; I
L6; P
IK3C
G; N
FKB
1; IL
1B; S
PP1;
STA
T1; T
NF;
PIK
3R3;
TLR
6;
IL
8; M
apk1
4; M
apk1
1; Ir
ak1;
akt
1; F
OS;
map
k8; M
AP3
K7;
IFN
A21
; IR
F5;
LO
C40
7835
; Map
2k2;
Ifna
14; I
fna1
0; a
kt2;
CC
L4L1
; CC
L4L2
; tab
2; IF
NA
4;
IF
NA
5; C
D80
; Jun
; RIP
K1;
ikbk
g; P
ik3c
b; if
na2;
PIK
3R2;
CA
SP8;
CC
L3
0462
2 R
IG-I
-like
rece
ptor
O
rgan
ism
al S
yste
ms;
0.
009
29
NFK
BIA
; TR
AF3
; MA
PK10
; IFN
A6;
relA
; DD
X3Y
; IK
BK
E; N
FKB
1; T
NF;
si
gnal
ing
path
way
Im
mun
e Sy
stem
IL
8; M
apk1
4; M
apk1
1; T
RIM
25; m
apk8
; MA
P3K
7; P
IN1;
IFN
A21
; SIK
E1;
If
na14
; Ifn
a10;
IFN
W1;
IFN
A4;
cas
p10;
IFN
A5;
RIP
K1;
ikbk
g; if
na2;
CA
SP8;
DD
X3X
0463
0 Ja
k-ST
AT si
gnal
ing
Envi
ronm
enta
l Inf
orm
atio
n 0.
012
67
JAK
3; JA
K1;
IL9R
; IFN
A6;
EPO
R; IF
NG
R2; I
L10R
A; O
SMR;
CCN
D1;
IL4;
path
way
Pr
oces
sing
; Sig
nal
PIK
3CG
; soc
s2; I
L6ST
; akt
1; C
SF3;
LEP
; IFN
A21
; Ifn
a10;
CSF
2RB;
Cbl
b;
Tran
sduc
tion
IFN
A5;
MY
C; L
EPR;
Soc
s1; P
ik3c
b; S
TAT4
; PIA
S1; c
sf3r
; gh2
; IFN
GR1
; Il5
;
TPO
; il1
0; IL
7R; S
OS1
; IL6
; PIK
3CD
; ZFP
91; C
NTF
; Zfp
91-C
ntf;
STAT
1; c
tf1;
PR
LR; P
IK3R
3; il
2rg;
Il5r
a; Il
10rb
; Ifn
a14;
Il24
; akt
2; C
CND
2; S
TAT2
; EPO
;
IFN
W1;
IFN
A4;
Sta
t5b;
IL13
; Il3
; IL2
3A; S
tat3
; LO
C344
593;
LO
C442
113;
PTPN
11; S
TAT6
; ifn
a2; P
IK3R
2; S
OS2
0464
0 H
emat
opoi
etic
cel
l O
rgan
ism
al S
yste
ms;
0.
018
53
csf1
; HLA
-DR
A; I
L9R
; LO
C65
2799
; LO
C65
3882
; KIT
; ITG
A5;
EPO
R; i
tga6
;
linea
ge
Imm
une
Syst
em
CD
33; I
L4; c
d38;
IL1B
; TN
F; G
P5; G
ypa;
CSF
3; C
D9;
Cd1
9; C
D44
; CD
59;
TF
RC
; CD
5; C
D3E
; CD
4; c
sf3r
; CD
1C; I
l1r1
; CD
22; G
P9; I
l5; T
PO; I
L7R
;
Gp1
ba; i
tga2
b; IL
6; C
d2; A
NPE
P; C
D8B
; GP1
BB
; ITG
AM
; ITG
B3;
CD
1A;
FC
ER2;
Il5r
a; C
D1D
; CD
34; E
PO; I
l3; I
TGA
3; M
S4A
1; C
R1;
FLT
3
0465
0 N
atur
al k
iller
cel
l O
rgan
ism
al S
yste
ms;
0.
016
64
SYK
; KIR
2DL4
; rac
1; IF
NA
6; IF
NG
R2;
FA
SLG
; LC
K; B
ID; P
IK3C
G;
m
edia
ted
cyto
toxi
city
Im
mun
e Sy
stem
N
FATC
4; T
NF;
SH
C1;
Ncr
1; P
LCG
2; P
rf1;
IFN
A21
; LO
C40
7835
; Map
2k2;
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3883Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
H
LA-G
; Ifn
a10;
nfa
tc1;
Nfa
tc3;
NFA
T5; K
ras;
ppp
3ca;
IFN
A5;
Sh3
bp2;
PRK
CG
; SH
C2;
HLA
-A; P
ik3c
b; S
HC
3; N
CR
3; R
AF1
; mic
B; L
OC
1001
2815
5;
IF
NG
R1;
TN
FSF1
0; K
LRK
1; S
OS1
; PIK
3CD
; PIK
3R3;
Fas
; FC
GR
3B; c
hp2;
Prkc
a; T
YR
OB
P; P
RK
CB
; Ifn
a14;
Cd2
47; I
CA
M1;
KIA
A15
49; I
FNA
4;
H
LA-E
; LO
C34
4593
; LO
C44
2113
; PTP
N11
; PPP
3CC
; ifn
a2; P
IK3R
2; S
OS2
;
KIR
3DS1
; Kir3
dl1;
TN
FRSF
10C
0466
0 T
cell
rece
ptor
O
rgan
ism
al S
yste
ms;
0.
020
56
relA
; LC
K; I
L4; p
rkcq
; PIK
3CG
; NFA
TC4;
NFK
B1;
TN
F; P
ak2;
Rho
a; a
kt1;
sign
alin
g pa
thw
ay
Imm
une
Syst
em
LOC
4078
35; M
ap2k
2; n
fatc
1; N
FAT5
; Nfa
tc3;
Cbl
b; K
ras;
ppp
3ca;
GR
AP2
;
CD
3E; P
dcd1
; Jun
; CD
4; P
ik3c
b; R
AF1
; LO
C10
0128
155;
NFK
BIA
; Il5
;
il10;
Pak
3; P
IK3C
D; S
OS1
; PIK
3R3;
CD
8B; C
D40
LG; c
hp2;
Map
k14;
Map
k11;
FO
S; T
EC; M
AP3
K7;
MA
LT1;
NC
K2;
Cd2
47; a
kt2;
Cdc
42;
C
DC
42P2
; Ptp
rc; i
kbkg
; PPP
3CC
; BC
L10;
LO
C64
6626
; PIK
3R2;
SO
S2; P
DK
1
0466
2 B
cel
l rec
epto
r O
rgan
ism
al S
yste
ms;
0.
011
45
NFK
BIA
; SY
K; r
ac1;
relA
; PIK
3CD
; SO
S1; P
IK3C
G; N
FATC
4; N
FKB
1;
si
gnal
ing
path
way
Im
mun
e Sy
stem
C
d79a
; PIK
3R3;
chp
2; F
OS;
akt
1; P
LCG
2; ra
sgrp
3; M
ALT
1; P
RK
CB
;
LOC
4078
35; M
ap2k
2; C
d19;
akt
2; C
d79b
; nfa
tc1;
NFA
T5; N
fatc
3; b
tk; K
ras;
ppp3
ca; F
cgr2
b; F
CG
R2C
; Jun
; CD
72; i
kbkg
; Ifit
m1;
Pik
3cb;
PPP
3CC
; CD
81;
B
CL1
0; L
OC
6466
26; P
IK3R
2; S
OS2
; CD
22; R
AF1
; LO
C10
0128
155
0466
4 Fc
eps
ilon
RI
Org
anis
mal
Sys
tem
s;
0.00
9 37
SY
K; I
l5; r
ac1;
map
2k6;
MA
PK10
; PR
KC
D; P
la2g
2a; I
L4; P
IK3C
D; S
OS1
;
sign
alin
g pa
thw
ay
Imm
une
Syst
em
PIK
3CG
; TN
F; P
IK3R
3; M
apk1
4; M
apk1
1; P
rkca
; akt
1; P
LCG
2; P
rkce
; map
k8;
PR
KC
B; L
OC
4078
35; M
ap2k
2; a
kt2;
btk
; Kra
s; P
LA2G
1B; I
L13;
Il3;
PLA
2G5;
PLA
2G10
; Pik
3cb;
PIK
3R2;
SO
S2; R
AF1
; PD
K1;
LO
C10
0128
155
0466
6 Fc
gam
ma
R-m
edia
ted
Org
anis
mal
Sys
tem
s;
0.00
3 43
SY
K; r
ac1;
PR
KC
D; P
PAP2
A; P
IK3C
D; P
IK3C
G; C
RK
L; G
sn; P
IK3R
3;
ph
agoc
ytos
is
Imm
une
Syst
em
ampH
; PIP
4K2B
; MA
RC
KSL
1; P
rkca
; akt
1; P
LCG
2; P
rkce
; MA
RC
KS;
PRK
CB
; PIP
5K1A
; RPS
6KB
1; a
kt2;
arp
c2; W
AS;
DN
M3;
CFL
1; W
asf2
;
Fcgr
2b; F
CG
R2C
; Cdc
42; C
DC
42P2
; Ptp
rc; P
ikfy
ve; P
RK
CG
; WA
SL; P
ik3c
b;
FC
GR
2A; P
IK3R
2; R
AF1
; Ppa
p2b;
Pip
5k1b
; AR
PC5;
LO
C10
0128
155;
DO
CK
2
0467
0 Le
ukoc
yte
Org
anis
mal
Sys
tem
s;
0.00
9 61
R
ap1b
; rac
1; N
cf4;
PIK
3CG
; AC
TG1;
myl
2; T
XK
; CLD
N3;
Rho
a; P
LCG
2;
tra
nsen
doth
elia
l Im
mun
e Sy
stem
C
tnna
1; C
XC
L12;
CTN
ND
1; a
ctn1
; Mm
p2; C
LDN
4; P
ECA
M1;
CTN
NB
1;
m
igra
tion
cl
dn18
; NO
X1;
MY
L12A
; MY
L12B
; EZR
; LO
C10
0129
652;
PR
KC
G; O
cln;
LOC
6478
59; P
ik3c
b; C
ldn8
; PX
N; A
CTB
; Rap
gef3
; LO
C10
0128
155;
Itgb1
; CLD
N10
; cld
n7; C
LDN
9; C
YB
B; P
IK3C
D; P
IK3R
3; M
apk1
4; m
sn;
IT
GA
M; M
apk1
1; P
rkca
; CX
CR
4; P
RK
CB
; GR
LF1;
Jam
3; IC
AM
1; C
dc42
;
CD
C42
P2; C
tnna
2; L
OC
3445
93; L
OC
4421
13; P
TPN
11; a
ctn4
; PIK
3R2;
vcl
;
MY
L9; C
D99
0472
0 Lo
ng-te
rm
Org
anis
mal
Sys
tem
s;
0.00
1 43
C
AM
K2G
; Rap
1b; A
DC
Y1;
ATF
4; A
TF4C
; Ppp
1cc;
PPP
1R12
A; C
alm
l3; c
hp2;
pote
ntia
tion
Ner
vous
Sys
tem
Pp
p1ca
; Prk
ca; G
rm5;
PLC
B2;
PR
KA
CA
; PR
KC
B; L
OC
4078
35; M
ap2k
2;
ca
mk4
; GR
IN2A
; CA
LM3;
CA
LM2;
CA
LM1;
KIA
A15
49; C
amk2
a; C
ALM
3;
C
ALM
2; C
ALM
1; C
amk2
b; K
ras;
RPS
6KA
2; L
OC
1001
2798
4; p
pp3c
a;
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3884Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
PR
KC
G; L
OC
1001
3109
8; C
AC
NA
1C; g
rin2c
; ITP
R1;
PPP
3CC
; GR
IA1;
GR
M1;
RA
F1; R
apge
f3; G
NA
Q
0472
2 N
euro
troph
in
Org
anis
mal
Sys
tem
s;
0.01
9 80
C
AM
K2G
; Rap
1b; r
ac1;
relA
; gab
1; fo
xo3b
; FO
XO
3; M
AG
ED1;
PR
KC
D;
si
gnal
ing
path
way
N
ervo
us S
yste
m
FASL
G; i
rs2;
PIK
3CG
; NFK
B1;
YW
HA
H; C
alm
l3; B
ad; B
CL2
; Rho
a; a
kt1;
SHC
1; P
LCG
2; m
apk8
; yw
haq;
LO
C40
7835
; Map
2k2;
cam
k4; A
BL1
;
MA
PKA
PK2;
tp53
; CA
LM3;
CA
LM2;
CA
LM1;
MA
P3K
5; C
ALM
3; C
ALM
2;
C
ALM
1; A
RH
GD
IA; K
ras;
RPS
6KA
2; L
OC
1001
2798
4; M
ap2k
5; Ju
n; S
HC
2;
Pi
k3cb
; BA
X; S
HC
3; R
AF1
; KID
INS2
20; N
FKB
IA; Y
WH
AZ;
MA
PK10
;
ATF4
; ATF
4C; S
OS1
; PIK
3CD
; CR
KL;
NTR
K3;
PIK
3R3;
YW
HA
B; N
TRK
1;
M
apk1
4; M
apk1
1; Ir
ak1;
akt
2; C
amk2
a; K
IAA
1549
; Cam
k2b;
LO
C44
0917
;
YW
HA
E; C
dc42
; CD
C42
P2; L
OC
3445
93; L
OC
4421
13; P
TPN
11; S
ort1
; Pse
n1;
N
TRK
2; P
IK3R
2; S
OS2
; PD
K1
0473
0 Lo
ng-te
rm d
epre
ssio
n O
rgan
ism
al S
yste
ms;
0.
003
36
Gna
s; P
la2g
2a; C
RH
R1;
NO
S2; P
rkca
; Grm
5; P
LCB
2; G
ria3;
PR
KC
B; G
na13
;
N
ervo
us S
yste
m
LOC
4078
35; M
ap2k
2; IG
F1R
; PPP
2CB
; PPP
2R1A
; KIA
A15
49; K
ras;
PLA
2G1B
; ppp
2r1b
; PPP
2CA
; NO
S3; P
RK
CG
; PLA
2G5;
Gna
12; P
LA2G
10;
IT
PR1;
GR
IA1;
Igf1
; GU
CY
1A3;
GR
M1;
GN
AZ;
GN
A11
; RA
F1; N
OS1
;
GU
CY
1A2;
GN
AQ
0474
0 O
lfact
ory
trans
duct
ion
Org
anis
mal
Sys
tem
s;
0.02
5 26
C
AM
K2G
; OR
2J2;
OR
1E1;
CA
LM3;
CA
LM2;
CA
LM1;
GU
CA
1A; O
R7E
24;
Sens
ory
Syst
em
Cam
k2a;
OR
2F2;
CA
LM3;
CA
LM2;
CA
LM1;
Cam
k2b;
CN
GB
1; O
R2H
2;
C
alm
l3; O
R2B
6; O
R10
H3;
OR
7A5;
GU
CA
1B; g
nal;
OR
5I1;
OR
2H1;
PRK
AC
A; P
de1c
0481
0 R
egul
atio
n of
act
in
Cel
lula
r Pro
cess
es;
0.00
0 10
5 pf
n2; I
QG
AP2
; ITG
A5;
itga
6; B
DK
RB
2; P
dgfb
; PIK
3CG
; AC
TG1;
myl
2; R
hoa;
cyto
skel
eton
C
ell M
otili
ty
NC
KA
P1; F
GF5
; LO
C40
7835
; Map
2k2;
APC
2; A
rhge
f7; W
AS;
FG
F18;
MY
L12A
; MY
L12B
; EZR
; LO
C10
0129
652;
Pik
fyve
; FG
F2; t
iam
1; F
gf3;
RA
F1; I
tgb1
; LO
C10
0128
155;
Itgb
5; P
ak3;
PIK
3CD
; SO
S1; P
PP1R
12A
;
CR
KL;
PIK
3R3;
ITG
AD
; Pdg
frb;
PIP
4K2B
; Ppp
1ca;
msn
; ITG
AM
; ITG
B3;
RR
AS2
; LO
C10
0133
211;
ITG
A9;
KIA
A15
49; C
FL1;
MY
H9;
FG
F4; W
ASL
;
F2; a
ctn4
; vcl
; FG
F8; r
dx; F
GF9
; pfn
1; IT
GA
10; r
ac1;
Gsn
; AR
HG
EF12
; Pak
2;
A
BI2
; MY
LK; a
ctn1
; Gna
13; C
YFI
P1; a
rpc2
; fgd
1; K
ras;
Pik
3cb;
PX
N; A
CTB
;
Pip5
k1b;
AR
PC5;
FG
FR2;
itga
2b; p
dgfr
a; P
pp1c
c; F
gfr1
; ITG
A7;
fn1;
PIP5
K1A
; Itg
av; G
RLF
1; IQ
GA
P1; R
ras;
Was
f2; I
TGA
3; C
dc42
; CD
C42
P2;
fg
f12;
Gna
12; T
MSL
1; T
MSB
4X; T
MSL
2; C
HR
M3;
PIK
3R2;
myh
10; S
OS2
;
Fgf7
; LO
C10
0132
771;
FG
F7P2
; MY
L9
0491
2 G
nRH
sign
alin
g O
rgan
ism
al S
yste
ms;
0.
003
53
CA
MK
2G; C
acna
1f; m
ap2k
6; M
APK
10; c
ga; A
DC
Y1;
Gna
s; P
RK
CD
; Pla
2g2a
;
path
way
En
docr
ine
Syst
em
ATF4
; ATF
4C; S
OS1
; AD
CY
2; C
alm
l3; M
apk1
4; M
apk1
1; P
rkca
; elk
1; m
apk8
;
MM
P14;
PLC
B2;
PR
KA
CA
; CA
CN
A1S
; PR
KC
B; L
OC
4078
35; M
ap2k
2;
M
mp2
; CA
LM3;
CA
LM2;
CA
LM1;
Cam
k2a;
CA
LM3;
CA
LM2;
CA
LM1;
Cam
k2b;
Kra
s; P
LA2G
1B; C
dc42
; CD
C42
P2; J
un; M
AP3
K4;
LO
C10
0131
098;
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3885Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
C
AC
NA
1C; P
LA2G
5; P
LA2G
10; I
TPR
1; C
acna
1d; F
SHB
; SO
S2; R
AF1
;
GN
A11
; GN
RH
2; G
NA
Q
0491
6 M
elan
ogen
esis
O
rgan
ism
al S
yste
ms;
0.
000
41
CA
MK
2G; L
OC
6527
99; L
OC
6538
82; K
IT; G
nas;
AD
CY
1; F
ZD7;
AD
CY
2;
En
docr
ine
Syst
em
CR
EB3L
2; P
OM
C; d
ct; C
alm
l3; C
REB
1; P
rkca
; Lef
1; ty
r; TY
RL;
PLC
B2;
W
NT2
B; P
RK
AC
A; L
OC
4078
35; M
ap2k
2; P
RK
CB
; CA
LM3;
CA
LM2;
CA
LM1;
CTN
NB
1; C
amk2
a; C
ALM
3; C
ALM
2; C
ALM
1; C
amk2
b; K
ras;
wnt
2; w
nt10
b; P
RK
CG
; WN
T11;
wnt
8b; R
AF1
; GN
AQ
;
0493
0 Ty
pe II
dia
bete
s H
uman
Dis
ease
s;
0.02
2 31
C
AC
NA
1G; M
APK
10; P
RK
CD
; PIK
3CD
; irs
2; S
LC2A
2; P
IK3C
G; T
NF;
mel
litus
M
etab
olic
Dis
ease
s
PI
K3R
3; so
cs2;
HK
3; P
rkce
; map
k8; A
BC
C8;
gck
; IN
SR; H
K2P
1; H
k2; P
KLR
;
CA
CN
A1E
; AD
IPO
Q; L
OC
1001
3109
8; C
AC
NA
1C; S
LC2A
4; P
ik3c
b; S
ocs1
;
Cac
na1d
; PIK
3R2;
pdx
1; L
OC
6527
97; P
KM
2; A
sip
0502
0 Pr
ion
dise
ases
H
uman
Dis
ease
s;
0.00
0 21
PR
NP;
LO
C40
0750
; HSP
A5;
CC
L5; H
SPA
1A; H
SPA
1B; I
L6; N
cam
1; IL
1B;
Neu
rode
gene
rativ
e
C
8G; C
1QB
; BA
X; e
lk1;
C7;
C9;
PR
KA
CA
; SO
D1;
C6;
LA
MC
1; L
OC
4078
35;
Dis
ease
s
M
ap2k
2
0520
0 Pa
thw
ays i
n ca
ncer
H
uman
Dis
ease
s;
0.00
0 17
4 C
DH
1; A
CV
R1B
; KLK
3; P
dgfb
; itg
a6; L
OC
1001
3297
3; T
CEB
1; C
CN
D1;
C
ance
rs
PIK
3CG
; NFK
B1;
NC
OA
4; B
CL2
; Rho
a; C
tbp1
; Ctn
na1;
PLC
G2;
map
k8;
fo
xo1;
WN
T2B
; CTB
P2; R
XR
G; H
DA
C2;
LO
C40
7835
; Map
2k2;
FG
F5; C
dk6;
AB
L1; b
irc2;
E2F
1; tp
53; T
gfbr
2; A
PC2;
CTN
NB
1; F
GF1
8; b
cr; C
DK
N1A
;
Cbl
b; M
YC
; TG
FB3;
NO
S3; L
AM
A1;
PR
KC
G; F
GF2
; WN
T11;
Igf1
; Fgf
3;
cs
f3r;
LAM
C2;
wnt
8b; C
ASP
8; N
OS1
; RA
F1; L
ama2
; Itg
b1; S
mo;
ZB
TB16
;
Hsp
90b1
; NFK
BIA
; MA
PK10
; RET
; BIR
C3;
SO
S1; P
IK3C
D; C
ol4a
6; M
sh2;
NFK
B2;
CR
KL;
PIK
3R3;
LA
MA
4; F
as; P
dgfr
b; IL
8; F
OS;
Prk
ca; H
gf;
H
SP90
AA
2; H
SP90
AA
1; T
PM3;
RB
1; H
IF1A
; IG
F1R
; lam
b2; K
IAA
1549
;
vhl;
Stat
5b; C
DK
N1B
; Veg
fb; E
TS1;
FG
F4; C
tnna
2; E
2f2;
Ar;
LAM
B1;
GST
P1; B
rca2
; RX
RA
; FG
F8; F
LT3;
FG
F9; J
AK
1; ra
c1; T
raf1
; LO
C65
2799
;
LOC
6538
82; K
IT; r
elA
; FA
SLG
; TG
FA; N
OS2
; BID
; RA
LGD
S; C
YC
S; m
dm2;
Tceb
2; B
ad; R
ALB
P1; L
OC
1001
2977
3; a
kt1;
Run
x1; L
ef1;
LA
MC
1; M
mp2
;
Skp2
; Kra
s; w
nt2;
Jun;
BA
X; P
ik3c
b; G
li3; P
IAS1
; LA
MA
5; P
AX
8; T
RA
F3;
FG
FR2;
pdg
fra;
itga
2b; I
L6; F
ZD7;
HSP
90A
B1;
STA
T1; t
gfbr
1; N
TRK
1;
sm
ad4;
AR
NT;
MET
; Fgf
r1; f
n1; P
RK
CB
; MA
X; P
TGS2
; CC
NA
1; It
gav;
akt
2;
TG
FB1;
wnt
10b;
Sta
t3; V
EGFA
; fgf
12; C
dc42
; CD
C42
P2; I
TGA
3; ik
bkg;
Hda
c1; F
H; c
ol4a
2; S
MA
D3;
Col
4a1;
RU
NX
1T1;
PIK
3R2;
SO
S2; E
rbb2
; Fgf
7;
LO
C10
0132
771;
FG
F7P2
0521
0 C
olor
ecta
l can
cer
Hum
an D
isea
ses;
0.
003
41
rac1
; MA
PK10
; AC
VR
1B; p
dgfr
a; C
CN
D1;
RA
LGD
S; S
OS1
; PIK
3CD
; FZD
7;
Can
cers
PI
K3C
G; C
YC
S; M
sh2;
tgfb
r1; P
IK3R
3; P
dgfr
b; sm
ad4;
Bad
; BC
L2; F
OS;
akt1
; MET
; map
k8; L
ef1;
IGF1
R; a
kt2;
tp53
; APC
2; T
gfbr
2; T
GFB
1;
K
IAA
1549
; CTN
NB
1; K
ras;
MY
C; T
GFB
3; Ju
n; B
AX
; Pik
3cb;
SM
AD
3;
PI
K3R
2; S
OS2
; RA
F1
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Q.Y. Ning et al. 3886Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
0521
1 R
enal
cel
l car
cino
ma
Hum
an D
isea
ses;
0.
015
42
rac1
; Rap
1b; g
ab1;
Pdg
fb; T
GFA
; LO
C10
0132
973;
TC
EB1;
Pak
3; P
IK3C
D;
Can
cers
SO
S1; P
IK3C
G; C
RK
L; P
IK3R
3; P
ak2;
Tce
b2; A
RN
T; a
kt1;
MET
; Hgf
;
LOC
4078
35; M
ap2k
2; H
IF1A
; akt
2; T
GFB
1; K
IAA
1549
; vhl
; Kra
s; V
EGFA
;
TGFB
3; V
egfb
; Cdc
42; C
DC
42P2
; ETS
1; Ju
n; L
OC
3445
93; L
OC
4421
13;
PT
PN11
; FH
; Pik
3cb;
PIK
3R2;
SO
S2; R
AF1
0521
2 Pa
ncre
atic
can
cer
Hum
an D
isea
ses;
0.
000
43
JAK
1; ra
c1; M
APK
10; r
elA
; AC
VR
1B; T
GFA
; CC
ND
1; R
ALG
DS;
PIK
3CD
;
C
ance
rs
PIK
3CG
; NFK
B1;
STA
T1; t
gfbr
1; P
IK3R
3; sm
ad4;
RA
LBP1
; LO
C10
0129
773;
Bad
; akt
1; m
apk8
; RB
1; C
dk6;
E2F
1; a
kt2;
tp53
; TG
FB1;
Tgf
br2;
KIA
A15
49;
K
ras;
VEG
FA; T
GFB
3; V
egfb
; Sta
t3; C
dc42
; CD
C42
P2; E
2f2;
ikbk
g; P
ik3c
b;
SM
AD
3; B
rca2
; PIK
3R2;
RA
F1; E
rbb2
0521
4 G
liom
a H
uman
Dis
ease
s;
0.00
1 45
C
AM
K2G
; TG
FA; P
dgfb
; pdg
fra;
CC
ND
1; P
IK3C
D; S
OS1
; PIK
3CG
; mdm
2;
Can
cers
C
alm
l3; P
IK3R
3; P
dgfr
b; P
rkca
; akt
1; S
HC
1; P
LCG
2; R
B1;
PR
KC
B;
LO
C40
7835
; Map
2k2;
Cdk
6; IG
F1R
; E2F
1; C
ALM
3; C
ALM
2; C
ALM
1; a
kt2;
tp53
; KIA
A15
49; C
amk2
a; C
ALM
3; C
ALM
2; C
ALM
1; C
amk2
b; K
ras;
CD
KN
1A; P
RK
CG
; E2f
2; S
HC
2; P
ik3c
b; S
HC
3; Ig
f1; P
IK3R
2; S
OS2
; RA
F1
0521
5 Pr
osta
te c
ance
r H
uman
Dis
ease
s;
0.00
0 51
N
FKB
IA; r
elA
; KLK
3; F
GFR
2; T
GFA
; Pdg
fb; A
TF4;
ATF
4C; p
dgfr
a; C
CN
D1;
C
ance
rs
SOS1
; PIK
3CD
; PIK
3CG
; mdm
2; N
FKB
1; C
REB
3L2;
HSP
90A
B1;
CR
EB1;
PIK
3R3;
Pdg
frb;
Bad
; BC
L2; a
kt1;
Lef
1; fo
xo1;
Fgf
r1; H
SP90
AA
2;
H
SP90
AA
1; R
B1;
LO
C40
7835
; Map
2k2;
IGF1
R; E
2F1;
akt
2; tp
53; K
IAA
1549
;
CTN
NB
1; K
ras;
CD
KN
1A; C
DK
N1B
; E2f
2; ik
bkg;
Ar;
Pik3
cb; G
STP1
; Igf
1;
PI
K3R
2; S
OS2
; RA
F1; E
rbb2
; Hsp
90b1
0521
7 B
asal
cel
l car
cino
ma
Hum
an D
isea
ses;
0.
008
12
tp53
; Gli3
; APC
2; W
NT1
1; C
TNN
B1;
Lef
1; F
ZD7;
WN
T2B
; wnt
8b; w
nt10
b;
C
ance
rs
wnt
2; S
mo
0521
8 M
elan
oma
Hum
an D
isea
ses;
0.
001
41
FGF9
; CD
H1;
Pdg
fb; p
dgfr
a; C
CN
D1;
PIK
3CD
; PIK
3CG
; mdm
2; P
IK3R
3;
Can
cers
Pd
gfrb
; Bad
; akt
1; M
ET; H
gf; F
gfr1
; RB
1; F
GF5
; LO
C40
7835
; Map
2k2;
Cdk
6;
IG
F1R
; E2F
1; a
kt2;
tp53
; KIA
A15
49; F
GF1
8; K
ras;
CD
KN
1A; f
gf12
; FG
F4;
E2
f2; F
GF2
; Pik
3cb;
Fgf
3; Ig
f1; P
IK3R
2; R
AF1
; FG
F8; F
gf7;
LO
C10
0132
771;
FGF7
P2
0521
9 Bl
adde
r can
cer
Hum
an D
iseas
es;
0.00
2 20
CD
H1;
E2F
1; tp
53; K
IAA
1549
; CCN
D1;
CD
KN
1A; K
ras;
mdm
2; M
YC;
VEG
FA;
Canc
ers
Vegf
b; E
2f2;
IL8;
Thb
s1; R
AF1
; RB
1; M
mp2
; LO
C40
7835
; Map
2k2;
Erb
b2
0522
0 C
hron
ic m
yelo
id
Hum
an D
isea
ses;
0.
003
52
relA
; AC
VR
1B; C
CN
D1;
PIK
3CG
; mdm
2; N
FKB
1; B
ad; C
tbp1
; Run
x1; a
kt1;
leuk
emia
C
ance
rs
SHC
1; C
TBP2
; HD
AC
2; L
OC
4078
35; M
ap2k
2; C
dk6;
AB
L1; E
2F1;
tp53
;
Tgfb
r2; b
cr; C
blb;
CD
KN
1A; K
ras;
MY
C; T
GFB
3; S
HC
2; P
ik3c
b; S
HC
3;
R
AF1
; NFK
BIA
; PIK
3CD
; SO
S1; C
RK
L; tg
fbr1
; PIK
3R3;
smad
4; R
B1;
akt
2;
TG
FB1;
KIA
A15
49; S
tat5
b; C
DK
N1B
; Hda
c1; L
OC
3445
93; L
OC
4421
13;
PT
PN11
; ikb
kg; E
2f2;
SM
AD
3; P
IK3R
2; S
OS2
Add
ition
al T
able
6B
. Con
tinue
d.
Cot
inue
d on
nex
t the
pag
e
©FUNPEC-RP www.funpecrp.com.brGenetics and Molecular Research 10 (4): 3856-3887 (2011)
Key pathways involved in prostate cancer 3887Pa
thw
ay
Path
way
nam
es
Cla
ssifi
catio
n P
valu
e N
umbe
r of g
enes
In
clud
ed g
enes
entry
expr
esse
d in
the
path
way
s
0522
1 A
cute
mye
loid
H
uman
Dis
ease
s;
0.01
4 33
LO
C65
2799
; LO
C65
3882
; KIT
; rel
A; C
CN
D1;
PIK
3CD
; SO
S1; P
IK3C
G;
le
ukem
ia
Can
cers
N
FKB
1; P
IK3R
3; B
ad; R
unx1
; akt
1; L
ef1;
LO
C40
7835
; Map
2k2;
RPS
6KB
1;
C
CN
A1;
akt
2; K
IAA
1549
; Kra
s; P
im2;
Sta
t5b;
MY
C; S
tat3
; ikb
kg; P
ik3c
b;
R
UN
X1T
1; P
IK3R
2; S
OS2
; RA
F1; Z
BTB
16; F
LT3
0522
2 Sm
all c
ell l
ung
Hum
an D
isea
ses;
0.
000
53
Traf
1; re
lA; i
tga6
; NO
S2; C
CN
D1;
PIK
3CG
; CY
CS;
NFK
B1;
BC
L2; A
paf1
;
canc
er
Can
cers
ak
t1; L
AM
C1;
RX
RG
; Skp
2; C
dk6;
birc
2; E
2F1;
tp53
; MY
C; N
OS3
; LA
MA
1;
Pi
k3cb
; PIA
S1; L
AM
A5;
LA
MC
2; N
OS1
; Lam
a2; I
tgb1
; NFK
BIA
; TR
AF3
;
BIR
C3;
itga
2b; P
IK3C
D; C
ol4a
6; P
IK3R
3; L
AM
A4;
fn1;
RB
1; M
AX
; PTG
S2;
Itg
av; a
kt2;
lam
b2; C
DK
N1B
; ITG
A3;
FH
IT; E
2f2;
ikbk
g; L
AM
B1;
col
4a2;
RX
RA
; Col
4a1;
PIK
3R2
0522
3 N
on-s
mal
l cel
l lun
g H
uman
Dis
ease
s;
0.00
2 32
fo
xo3b
; FO
XO
3; T
GFA
; CC
ND
1; P
IK3C
D; S
OS1
; PIK
3CG
; PIK
3R3;
Bad
;
canc
er
Can
cers
Pr
kca;
akt
1; P
LCG
2; R
XR
G; R
B1;
LO
C40
7835
; Map
2k2;
PR
KC
B; C
dk6;
E2F1
; akt
2; tp
53; K
IAA
1549
; Kra
s; F
HIT
; PR
KC
G; E
2f2;
Pik
3cb;
RX
RA
;
PIK
3R2;
RA
F1; S
OS2
; Erb
b2
0531
0 A
sthm
a H
uman
Dis
ease
s; Im
mun
e 0.
023
16
Il5; H
LA-D
OB
; HLA
-DR
A; R
NA
SE3;
il10
; HLA
-DQ
B1;
LO
C10
0133
583;
Syst
em D
isea
ses
IL4;
IL13
; Il3
; TN
F; C
D40
LG; E
PX; h
la-d
pa1;
HLA
-DPB
1; H
LA-D
OA
0532
0 A
utoi
mm
une
thyr
oid
Hum
an D
isea
ses;
Imm
une
0.01
7 30
Il5
; HLA
-DO
B; T
PO; H
LA-D
RA
; IFN
A6;
cga
; il1
0; F
ASL
G; H
LA-D
QB
1;
di
seas
e Sy
stem
Dis
ease
s
LO
C10
0133
583;
IL4;
Tsh
b; F
as; C
D40
LG; T
SHR
; hla
-dpa
1; P
rf1;
IFN
A21
;
HLA
-DPB
1; H
LA-G
; Ifn
a14;
Ifna
10; I
FNA
4; IF
NA
5; C
D80
; HLA
-E; H
LA-A
;
ifna2
; HLA
-F; H
LA-D
OA
0534
0 Pr
imar
y H
uman
Dis
ease
s; Im
mun
e 0.
013
19
Cd1
9; JA
K3;
Rag
2; C
iita;
RA
G1;
rfxa
nk; I
L7R
; LC
K; T
AP2
; btk
; ada
;
imm
unod
efici
ency
Sy
stem
Dis
ease
s
C
d79a
; CD
3E; P
tprc
; CD
8B; C
D40
LG; i
kbkg
; il2
rg; C
D4
0541
0 H
yper
troph
ic
Hum
an D
isea
ses;
0.
000
49
ITG
A10
; Itg
b5; C
acna
1f; I
TGA
5; it
ga6;
MY
BPC
3; it
ga2b
; lm
na; A
TP2A
2; IL
6;
ca
rdio
myo
path
y (H
CM
) C
ardi
ovas
cula
r Dis
ease
s
D
AG
1; m
yl2;
AC
TG1;
dm
d; T
NF;
LO
C64
3634
; CA
CN
B4;
ITG
B3;
CA
CN
B1;
Myl
3; S
GC
A; I
TGA
7; C
AC
NA
1S; T
PM3;
CA
CN
B2;
tpm
2; IT
GA
9; It
gav;
Myh
7; D
ES; T
PM1;
PR
KA
B2;
TG
FB1;
TTN
; TG
FB3;
ITG
A3;
Act
c1;
LO
C10
0131
098;
CA
CN
A1C
; Cac
na2d
1; sg
cg; I
gf1;
Cac
na1d
; CA
CN
G3;
AC
TB; C
AC
NG
1; L
ama2
; Itg
b1; S
LC8A
1
0541
2 A
rrhy
thm
ogen
ic ri
ght
Hum
an D
isea
ses;
0.
000
41
ITG
A10
; Itg
b5; C
acna
1f; I
TGA
5; it
ga6;
itga
2b; A
TP2A
2; lm
na; D
AG
1; A
CTG
1;
ve
ntric
ular
C
ardi
ovas
cula
r Dis
ease
s
G
JA1;
dm
d; C
AC
NB
4; IT
GB
3; C
AC
NB
1; C
tnna
1; S
GC
A; L
ef1;
act
n1; I
TGA
7;
ca
rdio
myo
path
y (A
RVC
)
CA
CN
A1S
; CA
CN
B2;
ITG
A9;
Itga
v; D
ES; C
TNN
B1;
ITG
A3;
Ctn
na2;
LOC
1001
3109
8; C
AC
NA
1C; C
acna
2d1;
sgcg
; CA
CN
G3;
Cac
na1d
; AC
TB;
C
AC
NG
1; a
ctn4
; dsp
; Lam
a2; I
tgb1
; SLC
8A1
Add
ition
al T
able
6B
. Con
tinue
d.