Literature DB >> 35650387

Identification of candidate biomarkers and pathways associated with type 1 diabetes mellitus using bioinformatics analysis.

Madhu Pujar1, Basavaraj Vastrad2, Satish Kavatagimath3, Chanabasayya Vastrad4, Shivakumar Kotturshetti5.   

Abstract

Type 1 diabetes mellitus (T1DM) is a metabolic disorder for which the underlying molecular mechanisms remain largely unclear. This investigation aimed to elucidate essential candidate genes and pathways in T1DM by integrated bioinformatics analysis. In this study, differentially expressed genes (DEGs) were analyzed using DESeq2 of R package from GSE162689 of the Gene Expression Omnibus (GEO). Gene ontology (GO) enrichment analysis, REACTOME pathway enrichment analysis, and construction and analysis of protein-protein interaction (PPI) network, modules, miRNA-hub gene regulatory network and TF-hub gene regulatory network, and validation of hub genes were performed. A total of 952 DEGs (477 up regulated and 475 down regulated genes) were identified in T1DM. GO and REACTOME enrichment result results showed that DEGs mainly enriched in multicellular organism development, detection of stimulus, diseases of signal transduction by growth factor receptors and second messengers, and olfactory signaling pathway. The top hub genes such as MYC, EGFR, LNX1, YBX1, HSP90AA1, ESR1, FN1, TK1, ANLN and SMAD9 were screened out as the critical genes among the DEGs from the PPI network, modules, miRNA-hub gene regulatory network and TF-hub gene regulatory network. Receiver operating characteristic curve (ROC) analysis confirmed that these genes were significantly associated with T1DM. In conclusion, the identified DEGs, particularly the hub genes, strengthen the understanding of the advancement and progression of T1DM, and certain genes might be used as candidate target molecules to diagnose, monitor and treat T1DM.
© 2022. The Author(s).

Entities:  

Mesh:

Substances:

Year:  2022        PMID: 35650387      PMCID: PMC9160069          DOI: 10.1038/s41598-022-13291-1

Source DB:  PubMed          Journal:  Sci Rep        ISSN: 2045-2322            Impact factor:   4.996


Introduction

Type 1 diabetes mellitus (T1DM) is chronic autoimmune diabetes characterized by autoimmune mediated destruction of pancreatic beta cells[1]. T1DM is most generally identified in children and adolescents[2]. Epidemiological studies have shown that the incidence of T1DM has been increasing by 2–5% globally[3]. T1DM is a complex disease affected by numerous environmental factors, genetic factors and their interactions[4,5]. Several T1DM associated complications include cardiovascular disease[6], hypertension[7], diabetic retinopathy[8], diabetic nephropathy[9], diabetic neuropathy[10], obesity[11] and cognitive impairment[12]. Therefore, it is crucial to understand the precise molecular mechanisms associated in the progression of T1DM and thus establish effective diagnostic, prognostics and therapeutic strategies. Although the remarkable improvement is achieved in the treatment of T1DM is insulin therapy[13], the long-term survival rates of T1DM still remain low worldwide. One of the major reasons is that most patients with T1DM were diagnosed at advanced stages. It is crucial to find out novel diagnostic biomarkers, prognostic biomarkers and therapeutic targets for the early diagnosis, prognosis and timely treatment of T1DM. Therefore, it is still urgent to further explore the exact molecular mechanisms of the development of T1DM. At present, several genes and signaling pathway are identified; for example vitamin D receptor (VDR)[14], HLA-B and HLA-A[15], HLA-DQ[16], HLA‐DQB1, HLA‐DQA1 and HLA‐DRB1[17], IDDM2[18], CaMKII/NF-κB/TGF-β1 and PPAR-γ signaling pathway[19], Keap1/Nrf2 signaling pathway[20], HIF-1/VEGF pathway[21], NLRP3 and NLRP1 inflammasomes signaling pathway[22] and NO/cGMP signaling pathway[23]. Therefore, it is crucial to examine the accurate molecular targets included in occurrence and advancement of T1DM, in order to make a contribution to the diagnosis and treatment of T1DM. Next generation sequencing (NGS) platform for gene expression analysis have been increasingly recognized as approaches with significant clinical value in areas such as molecular diagnosis, prognostic prediction and identification of novel therapeutic targets[24]. In recent years, NGS data analysis has been effective in detecting the advancement of T1DM, and even in screening biomarkers for T1DM prognosis, diagnosis and therapy. We therefore used an NGS dataset to investigate the molecular pathogenesis of T1DM. In the present investigation, we selected NGS dataset GSE162689[25], from Gene Expression Omnibus database (GEO) (http://www.ncbi.nlm.nih.gov/geo/)[26] and used the DESeq2 package in R software to screen DEGs. We performed subsequent bioinformatics analysis, including gene ontology (GO) enrichment and REACTOME pathway enrichment analysis, and construction and analysis of protein–protein interaction (PPI) network, module analysis, construction and analysis of miRNA-hub gene regulatory network and TF-hub gene regulatory network. The hub genes were validated by receiver operating characteristic curve (ROC) analysis. This investigation might offer better insight into potential molecular mechanisms to examine preventive and therapeutic strategies.

Materials and methods

Data resources

NGS dataset of T1DM (GSE162689)[25] was downloaded from the GEO database. The GSE162689 NGS data was composed of 27 T1DM samples and 32 normal control samples was based on the GPL24014 Ion Torrent S5 XL (Homo sapiens).

Identification of DEGs

Differentially expressed genes (DEGs) between T1DM and normal control samples were identified by using the DESeq2 package in R language software[27]. DEGs were considered when an adjusted P < 0.05, and a |log2 fold change|> 0.63 for up regulated genes and |log2 fold change|< − 1.3 for down regulated genes. The adjusted P values, by employing Benjamini and Hochberg false discovery rate[28], were aimed to correct the occurrence of false positive results. The DEGs were presented in volcano plot and heat map drawn using a plotting tool ggplot2 and gplots based on the R language.

GO and REACTOME pathway enrichment analysis of DEGs

One online tool, g:Profiler (http://biit.cs.ut.ee/gprofiler/)[29], was applied to carried out the functional annotation for DEGs. Gene Ontology (GO) (http://geneontology.org/)[30] generally performs enrichment analysis of genomes. GO terms includes biological processes (BP), cellular components (CC) and molecular functions (MF) in the GO enrichment analysis. REACTOME (https://reactome.org/)[31] is a comprehensive database of genomic, chemical, and systemic functional information. GO and pathway enrichment analyses were used to identify the significant GO terms and pathways. P < 0.05 was set as the cutoff criterion.

Construction of the PPI network and module analysis

PPI network was established using the IntAct Molecular Interaction Database (https://www.ebi.ac.uk/intact/)[32]. To assess possible PPI correlations, previously identified DEGs were mapped to the IntAct database, followed by extraction of PPI pairs with a combined score > 0.4. Cytoscape 3.8.2 software (www.cytoscape.org/)[33] was then employed to visualize the PPI network, and the Cytoscape plugin Network Analyzer was used to calculate the node degree[34], betweenness centrality[35], stress centrality[36] and closeness centrality[37] of each node in PPI network. Specifically, nodes with a higher node degree, betweenness centrality, stress centrality and closeness centrality were likely to play a more vital role in maintaining the stability of the entire network. The PEWCC1 (http://apps.cytoscape.org/apps/PEWCC1)[38] plug-in was applied to analyze the modules in the PPI networks, with the default parameters (node score = 0.2, K-core ≧ 2, and max depth = 100).

MiRNA-hub gene regulatory network construction

The miRNAs targeting the T1DM related were predicted using the miRNet database (https://www.mirnet.ca/)[39], and those predicted by at least 14 databases (TarBase, miRTarBase, miRecords, miRanda, miR2Disease, HMDD, PhenomiR, SM2miR, PharmacomiR, EpimiR, starBase, TransmiR, ADmiRE, and TAM 2.0) were selected for constructing the miRNA-hub gene regulatory network by Cytoscape 3.8.2 software[33].

TF-hub gene regulatory network construction

The TFs targeting the T1DM related were predicted using the NetworkAnalyst database (https://www.networkanalyst.ca/)[40], and those predicted by RegNetwork database was selected for constructing the TF-hub gene regulatory network by Cytoscape 3.8.2 software[33].

Validation of hub genes by receiver operating characteristic curve (ROC) analysis

A ROC curve analysis is an approach for visualizing, organizing and selecting classifiers based on their achievement of hub genes. A diagnostic test was firstly performed in order to estimate the diagnostic value of hub genes in T1DM. ROC curves were obtained by plotting the sensitivity, against the specificity using the R package “pROC”[41]. Area under the curve (AUC) was used to measure the accuracy of these diagnostic values of the hub genes An AUC > 0.9 determined that the model had a favorable fitting effect.

Ethical approval

This article does not contain any studies with human participants or animals performed by any of the authors.

Informed consent

No informed consent because this study does not contain human or animals participants.

Results

On the basis of the cut‐off criteria, DEGs in GEO dataset was identified between T1DN and normal control samples (Supplementary Table S1). There were 952 DEGs, including 477 up regulated and 475 down regulated genes in GSE162689 with the threshold of adjusted P < 0.05, and a |log2 fold change|> 0.63 for up regulated genes and |log2 fold change|< − 1.3 for down regulated genes. Volcano plots (Fig. 1) showed the correlation of all DEGs from the NGS data. Heat map of the up regulated and down regulated genes were indicated in Fig. 2.
Figure 1

Volcano plot of differentially expressed genes. Genes with a significant change of more than two-fold were selected. Green dot represented up regulated significant genes and red dot represented down regulated significant genes.

Figure 2

Heat map of differentially expressed genes. Legend on the top left indicate log fold change of genes. (A1–A32 = normal control samples; B1–B27 = T1DM samples).

Volcano plot of differentially expressed genes. Genes with a significant change of more than two-fold were selected. Green dot represented up regulated significant genes and red dot represented down regulated significant genes. Heat map of differentially expressed genes. Legend on the top left indicate log fold change of genes. (A1–A32 = normal control samples; B1–B27 = T1DM samples). To characterize the functional roles of the above DEGs, we used GO (Table 1) and REACTOME pathway (Table 2) enrichment analyses. The BP category of the GO analysis results showed that up regulated genes were significantly enriched in multicellular organism development and nitrogen compound metabolic process. For CC, these up regulated were enriched in membrane-enclosed lumen and nuclear lumen. Moreover, up regulated genes were significantly enriched in protein binding and transcription regulator activity in the MF categories. In addition, the most significantly enriched GO terms for down regulated genes were detection of stimulus and multicellular organismal process (BP), cell periphery and plasma membrane (CC), and transmembrane signaling receptor activity and molecular transducer activity (MF). According to REACTOME pathway enrichment analysis, up regulated genes were significantly enriched in diseases of signal transduction by growth factor receptors and second messengers and formation of the cornified envelope. Down regulated genes were enriched in olfactory signaling pathway and sensory perception.
Table 1

The enriched GO terms of the up and down regulated differentially expressed genes.

GO IDCATEGORYGO nameAdjusted p valueNegative log10 of adjusted p valueGene countGene
Up regulated genes
GO:0007275BPMulticellular organism development1.03027E−054.987047489192IGF2, KRT6A, LCE3D, SPRR3, FLG, SPRR2D, SPRR1B, SLITRK6, FGF21, TBX22, CALCR, SPRR1A, USH2A, OTX2, DCC, KCP, NOG, STAR, KRT16, IL1RN, SHISA2, AQP5, SYNDIG1, TFAP2C, ERRFI1, PLP1, ALOX12, KRT13, SPRR2E, TENM1, PEMT, LY6H, FAP, EYA4, LCE3E, EGR1, CSGALNACT1, MAL, MMP16, PTGER4, COL6A3, OAS2, ETV4, MAOB, GPC6, SOCS5, BCL9, POU6F2, BTG2, PRR15, VEGFC, FAM20C, MPZ, TMEM176A, KLK13, RPS6, ID3, ALOXE3, DDIT4, IRF2BP2, KLF15, EGR3, RNF165, LTBP4, CREB3L1, EMX1, KLF3, ZFP36, QDPR, ETV5, KL, GADD45B, NXN, TLE3, HEYL, HRAS, GLI3, SFTPD, MYC, IGSF8, DMD, FKBP8, DBP, MTCH1, KLF10, PODXL, BVES, MNT, LSR, CEL, FOSL2, WASF1, PAPSS2, NR1D1, DUSP4, SNX19, FOXN3, IL6ST, IL6R, PCDHB6, KLF6, ZFP36L1, PBX1, SH3RF1, CNTN3, NHEJ1, BOC, STAT1, DUSP1, CLSTN2, DIP2B, MYADM, PCDHB11, APOD, NR0B2, NHS, SYVN1, TCF7L2, DLL4, NNMT, SMAD1, TP53, PCDH18, SUN2, SOS1, PRKACA, EGFR, ETS1, PIK3CA, TSHZ1, GCNT2, PKN1, TNFRSF1A, ELOVL1, NCSTN, MFAP2, YBX1, PLCE1, NDST1, KCNJ8, GAMT, DGCR2, TPI1, JMJD8, NES, WDTC1, MAML1, PCDHB4, NFIB, MAPK3, SLC23A2, FOXK1, CAMSAP3, ACVR2B, PLOD3, ZFHX3, SMURF1, PRMT6, PRKCSH, ETV6, GSK3A, WDR74, BCOR, NPAS2, USP1, RBM47, RNF43, TCOF1, NCL, METTL14, KCTD11, HSP90AA1, BTG1, GAB1, S1PR1, THRB, EDNRB, SYBU, CDNF, MEX3C, SIAH2, NFKBIA, GJA1, CD34, DEAF1, INSR, NR1D2, GADD45G, ZNRF3, MBOAT7, BSG, BTF3
GO:0006807BPNitrogen compound metabolic process8.09009E−054.092046627292CRNN, PGA5, CGA, FGA, IGF2, FGB, APOA5, SPRR3, FLG, SPRR1B, FGF21, FGG, TBX22, CALCR, PGC, SPRR1A, ABCB11, OTX2, MUC21, NOG, HSFX2, ZSCAN10, TFAP2C, ERRFI1, RUNX1T1, ALOX12, SPRR2E, PDK4, TENM1, HAO1, PEMT, FAP, EYA4, ZNF554, EGR1, CSGALNACT1, GCG, MMP16, ADAMTS8, COL6A3, MAPK4, OAS2, ETV4, MAOB, GPC6, SOCS5, GMNC, BCL9, PDK3, POU6F2, BTG2, A4GNT, CST6, VEGFC, FAM20C, USP27X, STK32B, KLK13, RPS6, ID3, PGAP2, ALOXE3, LSM11, BCAP31, DDIT4, DPP4, TYSND1, IRF2BP2, KLF15, EGR3, RNF165, PHLDA1, LTBP4, IKZF4, CREB3L1, A1CF, EMX1, NAT10, ACSL6, KLF3, ZFP36, QDPR, OAS1, ETV5, GADD45B, MAN1A1, NXN, TLE3, RPL8, HEYL, PER3, HRAS, GLI3, SFTPD, MYC, RPRD2, DMD, ZNF416, FKBP8, RPS28, DBP, MUC6, MTCH1, CHST10, KLF9, EIF4B, KLF10, GLTP, MNT, CEL, NUP205, FOSL2, ZNF362, PAPSS2, NR1D1, DUSP4, SMCR8, FECH, FOXN3, IL6ST, IL6R, ZNF581, KLF6, CPA1, ABCA1, ZFP36L1, PBX1, SH3RF1, URM1, ERN1, RPL18, RNF24, PRRC1, NHEJ1, PDK2, STAT1, HSPA2, DUSP1, DIP2B, FMOD, MYADM, APOD, GLS, FBXO32, SRM, DIRAS3, NR0B2, SYVN1, ARL6IP1, TCF7L2, TMUB1, MRPL37, DLL4, HELZ2, NNMT, SMAD1, TP53, ELK1, PTBP1, PRKACA, BACH2, CTSF, EGFR, ETS1, PIK3CA, ZNRF1, CMPK2, GUK1, TSHZ1, ZNF326, MED13L, GCNT2, SAE1, PKN1, TNFRSF1A, ELOVL1, TUT1, NCSTN, YBX1, PPP1R3B, PLCE1, NDST1, ATF6B, GAMT, TPI1, JMJD8, SECISBP2L, PRPF8, EIF3B, WDTC1, MAML1, CRNKL1, NFIB, MAPK3, RPL18A, CNDP2, SERTAD2, RCE1, FOXK1, ZNF646, ACVR2B, PLOD3, ZFHX3, SMURF1, AOX1, RPS15, PRMT6, TRIM24, PRKCSH, ETV6, GSK3A, WDR74, LARP6, BCOR, URB1, ZNF341, SGTA, STUB1, NPAS2, MAOA, USP1, RBM47, RNF43, SHISA5, TCOF1, NCL, FKBP5, RBM22, METTL14, PIGM, ATF7IP, POLR1D, UBAP2, UBE2E2, SPPL3, KCTD11, HSP90AA1, BTG1, S1PR1, THRB, RPL39, UTP14A, EDNRB, CRTC3, AK1, MED25, ERP29, RBM23, RNASEK, LPCAT3, CASC3, MTMR3, TNKS, SF3A1, ADPRHL1, MEX3C, SIAH2, ACD, NFKBIA, GJA1, RNPS1, ATP13A2, TXNDC5, MRPL49, SLC35C2, CD34, SQSTM1, DEAF1, INSR, RPL19, NR1D2, AGBL5, SP2, SLC2A4RG, MRPS18B, NEDD9, GADD45G, ZNRF3, MAST3, SNX12, BAZ2A, MBOAT7, GID8, DCPS, LIG3, SP4, KLF11, CIZ1, LNX1, RALB, BTF3, ZNF836
GO:0031974CCMembrane-enclosed lumen0.0003118353.506075034175PGA5, CGA, FGA, IGF2, FGB, APOA5, FGG, MUC21, STAR, ZSCAN10, TFAP2C, RUNX1T1, SLC7A14, PDK4, TENM1, HAO1, ZNF554, EGR1, GCG, MMP16, COL6A3, MAPK4, OAS2, ETV4, GPC6, BCL9, PDK3, VEGFC, FAM20C, RPS6, LSM11, TYSND1, IRF2BP2, KLF15, PHLDA1, IKZF4, A1CF, EMX1, NAT10, KLF3, OAS1, ETV5, GRIK5, GPR63, TLE3, HEYL, HRAS, GLI3, MYC, RPRD2, IRS1, RPS28, MUC6, KLF9, PODXL, MNT, NUP205, FOSL2, NR1D1, DUSP4, SMCR8, FECH, KLF6, PBX1, RPL18, ABCG2, NHEJ1, PDK2, SELENBP1, STAT1, HSPA2, FMOD, GLS, FBXO32, NR0B2, NHS, SYVN1, TCF7L2, TMUB1, MRPL37, HELZ2, SMAD1, TP53, ELK1, SUN2, PTBP1, PRKACA, BACH2, TOR2A, CTSF, EGFR, ETS1, CMPK2, C17ORF49, ZNF326, SAE1, PKN1, TUT1, YBX1, ME2, JMJD8, PRPF8, WDTC1, MAML1, CRNKL1, NFIB, MAPK3, CNDP2, SERTAD2, FOXK1, CAMSAP3, PLOD3, FAM193B, ZFHX3, SMURF1, RPS15, PRMT6, TRIM24, PRKCSH, ETV6, WDR74, BCOR, URB1, STUB1, NPAS2, USP1, SHISA5, TCOF1, NCL, FKBP5, RBM22, METTL14, MZT2B, ATF7IP, POLR1D, FIGN, HSP90AA1, BTG1, S1PR1, THRB, UTP14A, CRTC3, MED25, ERP29, CASC3, TNKS, SF3A1, CHID1, SIAH2, ACD, NFKBIA, ARHGAP17, GJA1, RNPS1, ATP13A2, TXNDC5, MRPL49, SLC35C2, SQSTM1, DEAF1, INSR, RPL19, NR1D2, SP2, SLC2A4RG, MRPS18B, NEDD9, BAZ2A, CCDC86, GID8, DCPS, LIG3, SP4, KLF11, CIZ1
GO:0031981CCnuclear lumen0.0044047492.356078816139ZSCAN10, TFAP2C, RUNX1T1, SLC7A14, TENM1, ZNF554, EGR1, MAPK4, OAS2, ETV4, BCL9, PDK3, RPS6, LSM11, IRF2BP2, KLF15, PHLDA1, IKZF4, A1CF, EMX1, NAT10, KLF3, OAS1, ETV5, GRIK5, GPR63, TLE3, HEYL, HRAS, GLI3, MYC, RPRD2, IRS1, RPS28, KLF9, PODXL, MNT, NUP205, FOSL2, NR1D1, DUSP4, SMCR8, KLF6, PBX1, RPL18, ABCG2, NHEJ1, PDK2, SELENBP1, STAT1, HSPA2, FBXO32, NR0B2, NHS, SYVN1, TCF7L2, TMUB1, HELZ2, SMAD1, TP53, ELK1, SUN2, PTBP1, PRKACA, BACH2, ETS1, CMPK2, C17ORF49, ZNF326, SAE1, PKN1, TUT1, YBX1, PRPF8, WDTC1, MAML1, CRNKL1, NFIB, MAPK3, CNDP2, SERTAD2, FOXK1, CAMSAP3, FAM193B, ZFHX3, SMURF1, RPS15, PRMT6, TRIM24, ETV6, WDR74, BCOR, URB1, STUB1, NPAS2, USP1, TCOF1, NCL, FKBP5, RBM22, METTL14, MZT2B, ATF7IP, POLR1D, FIGN, HSP90AA1, BTG1, S1PR1, THRB, UTP14A, CRTC3, MED25, CASC3, TNKS, SF3A1, SIAH2, ACD, NFKBIA, ARHGAP17, GJA1, RNPS1, SLC35C2, SQSTM1, DEAF1, INSR, RPL19, NR1D2, SP2, SLC2A4RG, MRPS18B, NEDD9, BAZ2A, CCDC86, GID8, DCPS, LIG3, SP4, KLF11, CIZ1
GO:0005515MFProtein binding0.0104068221.982681882384CRNN, CGA, FGA, IGF2, KRT6A, FGB, LCE3D, SLC6A15, APOA5, SPRR3, FLG, SLITRK6, FGF21, FGG, TBX22, CALCR, SPRR1A, ABCB11, USH2A, OTX2, HBM, DCC, POTED, KCP, RGPD3, NOG, STAR, KRT16, HSFX2, IL1RN, ZSCAN10, SHISA2, TACR1, AQP5, SYNDIG1, TFAP2C, ERRFI1, TMEM174, CNTNAP4, PLP1, RUNX1T1, ALOX12, KRT13, SLC7A14, SPRR2E, PDK4, TENM1, PRLHR, SLC22A11, PEMT, LY6H, TMEM236, FAP, EYA4, BTBD11, FBP2, LCE3E, ZNF554, EGR1, CSGALNACT1, MT2A, MAL, SLC38A4, GCG, ASIC1, ADAMTS8, PTGER4, TMEM201, COL6A3, MAPK4, OAS2, AQP7, SLC25A48, ETV4, MAOB, GPC6, KCNJ2, MT1E, SOCS5, GMNC, BCL9, PDK3, ABCC9, POU6F2, BTG2, CST6, PRR15, VEGFC, FAM20C, C16ORF89, TMEM176A, KLK13, RPS6, ID3, PGAP2, ALOXE3, LSM11, BCAP31, DDIT4, DPP4, TYSND1, KLF15, RNF165, AQP8, SLC22A17, PHLDA1, FAM86B2, LTBP4, IKZF4, CREB3L1, A1CF, EMX1, NAT10, NETO2, ACSL6, KLF3, ZFP36, QDPR, OAS1, ETV5, GRIK5, KL, ZNF385C, GADD45B, SLC29A3, CGREF1, TLE3, RPL8, HEYL, PER3, HRAS, GLI3, WDR89, KIAA0408, SFTPD, MYC, TTI1, IFIT3, IGSF8, RPRD2, DMD, AQP12B, FKBP8, IRS1, KIAA1958, RPS28, TMEM140, MUC6, MTCH1, ABHD15, EIF4B, KLF10, PODXL, BVES, GLTP, MNT, CEL, NUP205, FOSL2, SLC1A5, WASF1, PAPSS2, TMCO4, NR1D1, DUSP4, SNX19, SMCR8, FECH, FOXN3, IL6ST, IL6R, PCDHB6, ZNF581, KLF6, CPA1, ABCA1, ZFP36L1, PBX1, DYSF, SH3RF1, PLEKHG6, URM1, ERN1, RPL18, CNTN3, CYGB, RNF24, ABCG2, PRRC1, NHEJ1, PDK2, BOC, SELENBP1, STAT1, HSPA2, DUSP1, DIP2B, FMOD, MYADM, ARPC1A, KCTD12, APOD, GLS, FBXO32, SRM, DIRAS3, NR0B2, SYVN1, ARL6IP1, TCF7L2, TMUB1, DHRS11, DLL4, HELZ2, SMAD1, TP53, PCDH18, ELK1, SUN2, TMEM150A, PTBP1, SOS1, PRKACA, BACH2, TOR2A, EGFR, ETS1, PIK3CA, ZNRF1, C17ORF49, GUK1, ZNF326, GCNT2, SAE1, GTPBP8, PKN1, TNFRSF1A, ELOVL1, TUT1, NCSTN, MFAP2, YBX1, PPP1R3B, PLCE1, NDST1, KCNJ8, ATF6B, GAMT, DGCR2, TPI1, JMJD8, NES, CDC42EP3, SECISBP2L, PRPF8, DNAJC4, EIF3B, EPHX1, WDTC1, MAML1, CRNKL1, MAPK3, RPL18A, FAM83B, SERTAD2, FOXK1, ZNF646, CAMSAP3, ACVR2B, ATXN7L1, LRRC8B, PLOD3, FAM193B, ZFHX3, SMURF1, AOX1, RPS15, PRMT6, TRIM24, PRKCSH, ETV6, GSK3A, WDR74, KCNC4, LARP6, BCOR, PSD4, RAB4A, ZNF341, SGTA, STUB1, SLC35E1, NPAS2, MAOA, USP1, RBM47, RNF43, KIAA0930, SHISA5, TCOF1, NCL, FKBP5, RBM22, SLC48A1, TRAPPC3, METTL14, MZT2B, ATF7IP, RWDD2B, POLR1D, UBIAD1, SFXN2, FIGN, UBAP2, UBE2E2, MX1, SPPL3, KCTD11, HSP90AA1, BTG1, GAB1, PXMP2, S1PR1, THRB, UTP14A, EDNRB, CRTC3, SYBU, MED25, ERP29, RBM23, CDNF, RNASEK, CASC3, MTMR3, TNKS, SF3A1, CHID1, AGPAT3, MEX3C, SIAH2, ACD, NFKBIA, CDC42EP4, ARHGAP17, GJA1, RNPS1, ATP13A2, ZSWIM3, TXNDC5, PPFIBP2, MRPL49, SLC35C2, CD34, SQSTM1, DEAF1, CPNE8, INSR, RPL19, NR1D2, AGBL5, SP2, YIPF3, MRPS18B, NEDD9, GADD45G, ZNRF3, MAST3, SNX12, TMED5, BAZ2A, CCDC86, MBOAT7, GID8, DCPS, LIG3, BSG, SP4, KLF11, CIZ1, LNX1, RALB, BTF3, NET1
GO:0140110MFTranscription regulator activity0.0199827071.69934568371TBX22, OTX2, HSFX2, ZSCAN10, TFAP2C, RUNX1T1, ZNF554, EGR1, ETV4, BCL9, POU6F2, BTG2, IRF2BP2, KLF15, EGR3, IKZF4, CREB3L1, EMX1, KLF3, ETV5, TLE3, HEYL, GLI3, MYC, ZNF416, DBP, KLF9, KLF10, MNT, FOSL2, ZNF362, NR1D1, FOXN3, ZNF581, KLF6, PBX1, STAT1, NR0B2, TCF7L2, HELZ2, SMAD1, TP53, ELK1, BACH2, ETS1, TSHZ1, MED13L, PKN1, ATF6B, MAML1, NFIB, SERTAD2, FOXK1, ZNF646, ZFHX3, TRIM24, ETV6, BCOR, ZNF341, NPAS2, ATF7IP, BTG1, THRB, SIAH2, DEAF1, NR1D2, SP2, SLC2A4RG, SP4, KLF11, ZNF836
Down regulated genes
GO:0051606BPDetection of stimulus9.55E−2120.0199701463DMBT1, OR10J3, OR4F5, OR6C74, OR5L1, OR4D2, OR2T33, OR2T6, GJA10, OR8H2, OR4N2, CASQ2, OR2A25, TAS2R7, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, OR13G1, OR2M5, OR13C5, OR4C3, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, OR2A12, OR1L8, OR1J2, TAS2R60, CHRNA10, OR5AP2, OR52K1, OR9A2, OR10A5, OR4C46, OR52W1, TAS2R8, OR52E6, TTN, OR6K3, OR11H2, OR52D1, PKDREJ
GO:0032501BPMulticellular organismal process3.26E−076.486491268224IAPP, HAPLN4, ADCYAP1, DMBT1, RGS16, PREX1, NRG3, LRRTM3, GABRA2, GTSF1, NTNG2, GLRA1, DGKG, ISX, OR10J3, SLC6A17, DACH2, IFNA16, OR4F5, SLC18A2, KLHL1, OR6C74, DKK4, UNC5A, OR5L1, OR4D2, OR2T33, OR2T6, CDHR1, GJA10, BMP5, OR8H2, INSRR, POSTN, OR4N2, CASQ2, OR2A25, CYP24A1, TAS2R7, OR1E2, OR2B3, SLC45A3, IFNA10, LRRC10, GREM2, OR6N1, CAPN8, TFF3, OR4K5, HOPX, COMP, OR4A5, OR5AN1, KRTAP1-3, OR5AS1, GABRR2, OR13G1, OR2M5, HTR3A, KRTAP13-3, OR13C5, OR4C3, CHST8, MAS1, OR52L1, KRTAP4-2, OR8K1, KIRREL3, OR6B2, KRTAP19-1, KRTAP3-1, KRTAP3-2, KRTAP9-9, OR56A4, PSMA6, OR5B17, TMEM108, OR51A2, P2RX5, OR5T1, OR1A1, OR13C8, OR13C2, GAP43, MFAP5, ADAMTSL1, OR51B4, LCE1F, KCNQ2, SFRP4, OR2AG2, OR2M7, OR51L1, OR5H1, CRLF1, KRTAP21-2, OR8G1, OR6K6, KRTAP19-2, OR10Z1, KRTAP10-1, DNAH11, NPTX2, OR4K1, OR5T2, EDARADD, PI16, JPH2, INSC, FN1, ACTBL2, C1QL1, NPFF, OR2A12, BEND6, OR1L8, HBD, OR1J2, TAS2R60, VSIG4, IGF2BP3, CHRNA10, OR5AP2, OR52K1, CYP26B1, FAT3, IL10, TNFRSF11A, GCGR, OR9A2, LCN2, TOP2A, MESP2, CDH22, OR10A5, OR4C46, UCHL1, FGL1, ACTC1, VASP, CIT, CTNNA3, OR52W1, IL5RA, SOSTDC1, TTC8, RADIL, TAS2R8, NTN1, OR52E6, P2RX6, CTNNA2, TTN, OR6K3, MUSTN1, OR11H2, CCR2, P2RY12, CNN1, HRC, PTGS2, DEF8, APOC1, LYZ, GLP1R, NDRG4, CNGA4, APOC2, KRTAP5-1, HADH, SERPINA3, OR52D1, TMEM178A, EFNA4, PIR, HSD17B3, PTGFR, SCRG1, NR6A1, LGI2, AKR1C2, CDH23, ADAMTS2, P2RY1, IGSF11, TSHZ3, PDLIM3, CRYGS, KIF20B, ESR1, ARHGAP22, AGAP2, CYP4F12, SLC26A7, TFCP2L1, RELT, MAP1A, LOXL1, KIF18A, PRICKLE4, JMJD6, ARG2, POU5F1, ROBO1, ALOX5, ANLN, CDK1, SELPLG, GREB1, MYH11, ABCB1, CYP2J2, VAV3, TYMS, SCN1B, MATN3, LAMB3, SRD5A1, SRPX2, SGIP1, GLG1, TPM2, SIX2, SAMHD1
GO:0071944CCCell periphery1.40E−076.853891822186HAPLN4, CSNK1G1, IGLL5, PLCH2, SLCO1A2, DMBT1, RGS16, PREX1, LRFN2, NRG3, LRRTM3, GABRA2, NTNG2, GLRA1, DGKG, OR10J3, SLC6A17, OR4F5, SLC18A2, SLC26A9, OR6C74, UNC5A, OR5L1, OR4D2, KCNG3, SLC27A6, OR2T33, CLDN25, OR2T6, ADAM30, CDHR1, GJA10, RASD1, TAAR9, OR8H2, INSRR, POSTN, OR4N2, OR2A25, LY6G6E, TAS2R7, KIF20A, OR1E2, OR2B3, SLC45A3, OR6N1, OR4K5, COMP, OR4A5, OR5AN1, OR5AS1, GABRR2, OR13G1, OR2M5, HTR3A, OR13C5, OR4C3, MAS1, OR52L1, OR8K1, KIRREL3, OR6B2, SLCO5A1, OR56A4, OR5B17, PCDH7, OR51A2, P2RX5, SLC22A9, OR5T1, OR1A1, OR13C8, OR13C2, GAP43, MFAP5, ADAMTSL1, OR51B4, KCNQ2, KCNF1, OR2AG2, CD1E, OR2M7, OR51L1, OR5H1, CRLF1, OR8G1, OR6K6, OR10Z1, KCNH1, OR4K1, OR5T2, SDR16C5, JPH2, INSC, FN1, OR2A12, CAPNS2, YIPF4, OR1L8, OR1J2, TAS2R60, CHRNA10, OR5AP2, MEP1B, OR52K1, FAT3, TNFRSF11A, GCGR, OR9A2, ENTPD3, OXGR1, CDH22, OR10A5, OR4C46, UCHL1, HLA-C, CLEC4D, FGL1, VASP, OR52W1, IL5RA, TTC8, TAS2R8, OLFM4, TSPAN1, GPR141, NTN1, OR52E6, P2RX6, CTNNA2, TTN, OR6K3, OR11H2, CCR2, PRAM1, P2RY12, PTGS2, ITGBL1, GLP1R, NDRG4, KLRK1, CNGA4, SERPINA3, OR52D1, EFNA4, PTGFR, CFB, FCHO1, LRRC7, MMP28, CDH23, ADAMTS2, ATP2C1, P2RY1, IGSF11, TSHZ3, FRMPD1, SELL, ESR1, CYP4F12, RASD2, SLC26A7, LY6G5B, CSF2RA, RELT, LOXL1, KIF18A, B3GNT3, MYO1F, JMJD6, ROBO1, ANLN, SELPLG, ABCB1, DLG2, ADAMTS10, VAV3, SCN1B, LAT, MATN3, LAMB3, SRPX2, SGIP1, SLC7A7, GLG1, SAMHD1
GO:0005886CCPlasma membrane9.39E−076.027126436171CSNK1G1, IGLL5, PLCH2, SLCO1A2, RGS16, PREX1, LRFN2, NRG3, LRRTM3, GABRA2, NTNG2, GLRA1, DGKG, OR10J3, SLC6A17, OR4F5, SLC18A2, SLC26A9, OR6C74, UNC5A, OR5L1, OR4D2, KCNG3, SLC27A6, OR2T33, CLDN25, OR2T6, ADAM30, CDHR1, GJA10, RASD1, TAAR9, OR8H2, INSRR, OR4N2, OR2A25, LY6G6E, TAS2R7, KIF20A, OR1E2, OR2B3, SLC45A3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, GABRR2, OR13G1, OR2M5, HTR3A, OR13C5, OR4C3, MAS1, OR52L1, OR8K1, KIRREL3, OR6B2, SLCO5A1, OR56A4, OR5B17, PCDH7, OR51A2, P2RX5, SLC22A9, OR5T1, OR1A1, OR13C8, OR13C2, GAP43, ADAMTSL1, OR51B4, KCNQ2, KCNF1, OR2AG2, CD1E, OR2M7, OR51L1, OR5H1, CRLF1, OR8G1, OR6K6, OR10Z1, KCNH1, OR4K1, OR5T2, SDR16C5, JPH2, INSC, FN1, OR2A12, CAPNS2, YIPF4, OR1L8, OR1J2, TAS2R60, CHRNA10, OR5AP2, MEP1B, OR52K1, FAT3, TNFRSF11A, GCGR, OR9A2, ENTPD3, OXGR1, CDH22, OR10A5, OR4C46, UCHL1, HLA-C, CLEC4D, VASP, OR52W1, IL5RA, TTC8, TAS2R8, OLFM4, TSPAN1, GPR141, OR52E6, P2RX6, CTNNA2, TTN, OR6K3, OR11H2, CCR2, PRAM1, P2RY12, PTGS2, ITGBL1, GLP1R, NDRG4, KLRK1, CNGA4, OR52D1, EFNA4, PTGFR, CFB, FCHO1, LRRC7, CDH23, ATP2C1, P2RY1, IGSF11, TSHZ3, FRMPD1, SELL, ESR1, CYP4F12, RASD2, SLC26A7, LY6G5B, CSF2RA, RELT, KIF18A, B3GNT3, MYO1F, JMJD6, ROBO1, SELPLG, ABCB1, DLG2, VAV3, SCN1B, LAT, SRPX2, SGIP1, SLC7A7, GLG1, SAMHD1
GO:0004888MFTransmembranesignaling receptor activity4.64E−1918.333804983GABRA2, GLRA1, OR10J3, OR4F5, OR6C74, UNC5A, OR5L1, OR4D2, OR2T33, OR2T6, TAAR9, OR8H2, INSRR, OR4N2, OR2A25, TAS2R7, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, GABRR2, OR13G1, OR2M5, HTR3A, OR13C5, OR4C3, MAS1, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, P2RX5, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, CRLF1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, OR2A12, OR1L8, OR1J2, TAS2R60, CHRNA10, OR5AP2, OR52K1, TNFRSF11A, GCGR, OR9A2, OXGR1, OR10A5, OR4C46, OR52W1, IL5RA, SOSTDC1, TAS2R8, GPR141, OR52E6, P2RX6, OR6K3, OR11H2, CCR2, P2RY12, GLP1R, OR52D1, EFNA4, PTGFR, P2RY1, CSF2RA, ROBO1
GO:0060089MFMolecular transducer activity2.72E-1817.5661690388DMBT1, GABRA2, GLRA1, OR10J3, RXRG, OR4F5, OR6C74, UNC5A, OR5L1, OR4D2, OR2T33, OR2T6, TAAR9, OR8H2, INSRR, OR4N2, OR2A25, TAS2R7, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, GABRR2, OR13G1, OR2M5, HTR3A, OR13C5, OR4C3, MAS1, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, P2RX5, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, CRLF1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, OR2A12, OR1L8, OR1J2, TAS2R60, CHRNA10, OR5AP2, OR52K1, TNFRSF11A, GCGR, OR9A2, OXGR1, OR10A5, OR4C46, OR52W1, IL5RA, SOSTDC1, TAS2R8, GPR141, OR52E6, P2RX6, OR6K3, OR11H2, CCR2, P2RY12, GLP1R, KLRK1, OR52D1, EFNA4, PTGFR, P2RY1, ESR1, CSF2RA, JMJD6, ROBO1
Table 2

The enriched pathway terms of the up and down regulated differentially expressed genes.

Pathway IDPathway nameAdjusted p valueNegative log10 of adjusted p valueGene countGene
Up regulated genes
REAC:R-HSA-5663202Diseases of signal transduction by growth factor receptors and second messengers0.0029188562.53478728425FGA, FGB, FGG, HEYL, HRAS, MYC, IRS1, KIAA1549, STAT1, SYVN1, TCF7L2, DLL4, SOS1, EGFR, PIK3CA, NCSTN, MAML1, MAPK3, TRIM24, ETV6, GSK3A, RNF43, HSP90AA1, GAB1, TNKS
REAC:R-HSA-6809371Formation of the cornified envelope0.0097123362.01267630812KRT6A, LCE3D, SPRR3, FLG, SPRR2D, SPRR1B, SPRR1A, KRT16, KRT13, SPRR2E, LCE3E, KLK13
REAC:R-HSA-156827L13a-mediated translational silencing of Ceruloplasmin expression0.0270950181.56711055410RPS6, RPL8, RPS28, EIF4B, RPL18, EIF3B, RPL18A, RPS15, RPL39, RPL19
REAC:R-HSA-1643685Disease0.0270950181.56711055460CGA, FGA, FGB, FGG, CALCR, ABCB11, MUC21, GCG, ADAMTS8, PTGER4, GPC6, ABCC9, RPS6, SLC29A3, RPL8, HEYL, HRAS, SFTPD, MYC, IRS1, RPS28, MUC6, NUP205, WASF1, PAPSS2, KIAA1549, IL6R, ABCA1, RPL18, STAT1, FMOD, ARPC1A, SYVN1, TCF7L2, DLL4, ELK1, SOS1, PRKACA, EGFR, PIK3CA, NCSTN, MAML1, MAPK3, RPL18A, RPS15, TRIM24, PRKCSH, ETV6, GSK3A, MAOA, RNF43, HSP90AA1, GAB1, S1PR1, RPL39, TNKS, NFKBIA, RPL19, SLC39A4, BSG
REAC:R-HSA-9006934Signaling by receptor tyrosine kinases0.032096981.49353582725IGF2, EGR1, COL6A3, VEGFC, ID3, EGR3, HRAS, IRS1, WASF1, DUSP4, STAT1, ELK1, PTBP1, SOS1, PRKACA, EGFR, PIK3CA, NCSTN, MAPK3, RAB4A, STUB1, HSP90AA1, GAB1, INSR, RALB
REAC:R-HSA-1266738Developmental biology0.0321729751.49250877845KRT6A, LCE3D, SPRR3, FLG, SPRR2D, SPRR1B, SPRR1A, DCC, KRT16, ZSCAN10, KRT13, SPRR2E, LCE3E, COL6A3, MPZ, KLK13, RPS6, RPL8, HRAS, MYC, RPS28, IL6R, PBX1, RPL18, ARPC1A, HELZ2, SOS1, PRKACA, EGFR, PIK3CA, MED13L, NCSTN, MAML1, MAPK3, RPL18A, ACVR2B, RPS15, HSP90AA1, GAB1, RPL39, MED25, CASC3, SIAH2, RNPS1, RPL19
Down regulated genes
REAC:R-HSA-381753Olfactory signaling pathway4.32E−2322.3642793554OR10J3, OR4F5, OR6C74, OR5L1, OR4D2, OR2T33, OR2T6, OR8H2, OR4N2, OR2A25, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, OR13G1, OR2M5, OR13C5, OR4C3, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, OR2A12, OR1L8, OR1J2, OR5AP2, OR52K1, OR9A2, OR10A5, OR4C46, OR52W1, OR52E6, OR6K3, OR11H2, OR52D1
REAC:R-HSA-9709957Sensory perception4.85E−2120.3138996957OR10J3, OR4F5, OR6C74, OR5L1, OR4D2, OR2T33, OR2T6, OR8H2, OR4N2, OR2A25, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, OR13G1, OR2M5, OR13C5, OR4C3, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, OR2A12, OR1L8, RDH16, OR1J2, OR5AP2, OR52K1, OR9A2, OR10A5, OR4C46, OR52W1, OR52E6, OR6K3, BCO2, OR11H2, APOC2, OR52D1
REAC:R-HSA-418555G alpha (s) signalling events6.29E−2019.2015612658IAPP, ADCYAP1, OR10J3, OR4F5, OR6C74, OR5L1, OR4D2, OR2T33, OR2T6, TAAR9, OR8H2, OR4N2, OR2A25, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, OR13G1, OR2M5, OR13C5, OR4C3, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, OR2A12, OR1L8, OR1J2, OR5AP2, OR52K1, OR9A2, OR10A5, OR4C46, OR52W1, OR52E6, OR6K3, OR11H2, GLP1R, OR52D1
REAC:R-HSA-388396GPCR downstream signalling9.32E−1514.030813176IAPP, ADCYAP1, RGS16, PREX1, DGKG, OR10J3, OR4F5, OR6C74, OR5L1, OR4D2, ARHGEF35, OR2T33, OR2T6, TAAR9, OR8H2, OR4N2, OR2A25, TAS2R7, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, OR13G1, OR2M5, OR13C5, OR4C3, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, NPFF, OR2A12, OR1L8, RDH16, OR1J2, TAS2R60, OR5AP2, OR52K1, OR9A2, OXGR1, OR10A5, OR4C46, OR52W1, TAS2R8, OR52E6, OR6K3, BCO2, OR11H2, CCR2, P2RY12, GLP1R, APOC2, OR52D1, PTGFR, P2RY1, PDE1C, VAV3
REAC:R-HSA-372790Signaling by GPCR2.45E−1312.6111469576IAPP, ADCYAP1, RGS16, PREX1, DGKG, OR10J3, OR4F5, OR6C74, OR5L1, OR4D2, ARHGEF35, OR2T33, OR2T6, TAAR9, OR8H2, OR4N2, OR2A25, TAS2R7, OR1E2, OR2B3, OR6N1, OR4K5, OR4A5, OR5AN1, OR5AS1, OR13G1, OR2M5, OR13C5, OR4C3, OR52L1, OR8K1, OR6B2, OR56A4, OR5B17, OR51A2, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, NPFF, OR2A12, OR1L8, RDH16, OR1J2, TAS2R60, OR5AP2, OR52K1, OR9A2, OXGR1, OR10A5, OR4C46, OR52W1, TAS2R8, OR52E6, OR6K3, BCO2, OR11H2, CCR2, P2RY12, GLP1R, APOC2, OR52D1, PTGFR, P2RY1, PDE1C, VAV3
REAC:R-HSA-162582Signal transduction7.38146E−054.131857963105IAPP, ADCYAP1, RGS16, PREX1, NRG3, DLK1, DGKG, OR10J3, RXRG, OR4F5, OR6C74, DKK4, OR5L1, OR4D2, ARHGEF35, OR2T33, OR2T6, TAAR9, OR8H2, OR4N2, OR2A25, TAS2R7, OR1E2, OR2B3, GREM2, OR6N1, TFF3, OR4K5, OR4A5, OR5AN1, OR5AS1, OR13G1, OR2M5, OR13C5, OR4C3, OR52L1, OR8K1, OR6B2, OR56A4, PSMA6, DLGAP5, OR5B17, OR51A2, OR5T1, OR1A1, OR13C8, OR13C2, OR51B4, OR2AG2, OR2M7, OR51L1, OR5H1, OR8G1, OR6K6, OR10Z1, OR4K1, OR5T2, SDR16C5, FN1, NPFF, OR2A12, OR1L8, RDH16, OR1J2, TAS2R60, OR5AP2, OR52K1, CYP26B1, OR9A2, OXGR1, OR10A5, SPC24, OR4C46, CIT, OR52W1, IL5RA, TAS2R8, OR52E6, OR6K3, BCO2, OR11H2, CCR2, P2RY12, APOC1, GLP1R, APOC2, OR52D1, SMAD9, PTGFR, BUB1B, P2RY1, ARHGAP20, NEDD8, ESR1, ARHGAP22, CSF2RA, KIF18A, ARHGAP9, CDK1, GREB1, MYH11, PDE1C, DLG2, VAV3, LAMB3
The enriched GO terms of the up and down regulated differentially expressed genes. The enriched pathway terms of the up and down regulated differentially expressed genes. The PPI network of the DEGs was constructed with 5111 nodes and 9392 edges by using the IntAct database (Fig. 3). A node with a higher node degree, betweenness centrality, stress centrality and closeness centrality consider as a hub genes and are listed in Table 3. The hub genes included MYC, EGFR, LNX1, YBX1, HSP90AA1, ESR1, FN1, TK1, ANLN and SMAD9. To detect significant modules in the PPI network, the PEWCC1 plug‐in was used for analysis, and two modules that had the highest degree stood out. GO and pathway enrichment analysis showed that module 1 contained 28 nodes and 63 edges (Fig. 4A), which were associated with diseases of signal transduction by growth factor receptors and second messengers, disease, nitrogen compound metabolic process and membrane-enclosed lumen, while module 2 had 14 nodes and 30 edges (Fig. 4B), which were mainly associated with signal transduction, multicellular organismal process and detection of stimulus.
Figure 3

PPI network of DEGs. The PPI network of DEGs was constructed using Cytoscap. Up regulated genes are marked in green; down regulated genes are marked in red.

Table 3

Topology table for up and down regulated genes.

RegulationNodeDegreeBetweennessStressCloseness
UpMYC7690.245061.04E + 080.402932
UpEGFR4690.13803261,812,3440.381322
UpLNX13010.09802835,639,5400.344753
UpYBX12420.05242315,440,2480.370488
UpHSP90AA11980.04201218,645,7660.349323
UpRNPS11480.02939816,186,8980.324119
UpSGTA1390.03912611,319,5440.315439
UpTNFRSF1A1160.0168428,191,0320.328598
UpSQSTM11120.0259136,213,7660.344335
UpMAST31050.02212,287,0120.305669
UpPOU6F2990.0282244,939,1740.317338
UpSTUB1950.018695,557,4700.333856
UpFKBP5940.0152633,991,2840.329764
UpPRMT6820.0230474,016,0200.301486
UpMAPK3780.017984,710,3640.312259
UpSMAD1770.0141295,216,4920.309237
UpTFAP2C770.0200623,309,4600.333573
UpNCL730.0159475,344,6460.374917
UpETS1690.0140653,895,4260.310987
UpMEX3C680.0037692,594,3520.310439
UpACD660.0140943,525,2380.307138
UpNFKBIA660.0081384,939,5240.310854
UpGAB1610.0057592,357,7880.296365
UpZNF581580.0080742,392,0560.303509
UpPRKACA580.0121412,683,3940.312833
UpKRT13560.0095392,356,2760.31577
UpSF3A1540.0052973,631,0520.304231
UpSTAT1540.0101291,749,8100.330531
UpATF7IP540.0113192,610,6760.297746
UpFOXK1520.0103222,431,3660.309968
UpKRT16520.0091372,768,2860.302646
UpRPS6500.0057091,809,2300.323503
UpIFIT3480.0043331,419,6760.307396
UpUBE2E2480.0093842,778,7860.289714
UpPKN1470.0073252,119,2060.29714
UpARL6IP1460.0118535,167,5780.284047
UpUTP14A450.007881,716,0120.322239
UpPRPF8440.0068241,731,0780.329977
UpGADD45G440.0076481,727,5740.29879
UpATP13A2430.0113643,235,0480.28605
UpHRAS420.0061131,934,6880.306916
UpDCC420.0056132,081,8120.292265
UpSUN2420.0045612,137,8800.299806
UpDYSF410.0071162,286,2380.293962
UpNCSTN400.0077295,776,1060.274308
UpRPL8370.0045611,421,4220.324922
UpBACH2370.0088382,796,5520.273369
UpPIK3CA370.0057681,280,7560.304576
UpPTBP1360.0033391,190,8180.333507
UpFKBP8350.005861,371,2740.3223
UpNES350.0070131,126,6400.295338
UpKRT6A340.0057841,381,2960.320281
UpNUP205330.0054951,090,5800.323442
UpFOXP1330.0062781,144,5480.31992
UpINSR330.0031321,562,0240.279757
UpBCAP31320.004821,838,9700.292131
UpBTF3310.004541,476,6000.290636
UpRPL18A310.002498754,5660.318306
UpKIAA0408300.004251,221,0420.302575
UpUSP1300.0045912,441,0580.280879
UpEIF3B290.003846916,6740.315848
UpHSPA2280.002862684,4420.313947
UpRPS28280.0028731,278,8180.301718
UpSOS1280.002513879,6640.284205
UpERRFI1260.002199611,1520.311214
UpLCE3E260.001327524,1100.25448
UpGSK3A260.0042521,655,5880.292867
UpNAT10260.001696666,8420.325191
UpLIG3260.00228725,6440.294691
UpRPL18259.73E−04477,5400.322646
UpSLC1A5250.004674807,0180.306677
UpEIF4B250.00188620,2800.295594
UpNEDD9240.003127549,9220.289271
UpCASC3230.002491601,1900.302503
UpFOSL2230.003682831,0060.310911
UpSMURF1220.002704664,0800.284142
UpPLOD3220.0035541,082,2820.335808
UpTCOF1220.00218501,2860.314295
UpZNF326220.001349640,7240.29001
UpSP4220.003993853,6240.26749
UpEGR1210.002422466,9120.302056
UpMAGEA2210.0044021,011,8620.293759
UpCREB3L1210.0067044,786,0400.227129
UpWASF1200.0030441,067,5640.274868
UpIRS1200.001568411,8920.309837
UpCRTC3200.002135967,2840.279558
UpFBP2209.48E−04423,6940.288846
UpMED25200.001218294,7940.275609
UpLCE3D204.82E−04304,9040.263329
UpDEAF1190.002531618,8440.3017
UpPDK3190.003011604,6060.307526
UpRPL19196.37E−04392,0640.319241
UpABCA1190.0044731,062,2280.298441
UpSAE1190.003167702,6660.299157
UpMAL190.0045331,470,8960.264227
UpRAB4A190.003857747,2040.292398
UpRALB190.0017381,634,5060.255536
UpTRAPPC3190.0050961,890,1820.252046
UpDPP4190.005271,619,6460.234023
UpPRKCSH180.002123375,0700.316043
UpRBM22180.002051950,4900.283386
UpCAMSAP3180.0020851,031,3000.274014
UpAK1180.0026321,174,6200.257986
UpTTI1170.001947994,5600.275505
UpRUNX1T1170.0024541,455,1040.275046
UpRPS15160.00225468,5520.316395
UpNR0B2160.002709597,1460.313581
UpPOLR1D160.001752656,2320.282369
UpFAM83B168.49E−04301,5000.277314
UpPBX1160.001944703,5600.258718
UpTCF7L2150.001345373,3120.28326
UpBCOR150.002336806,1280.273164
UpID3150.002818819,7160.269962
UpSLC35E1150.0033231,409,7200.24654
UpTPI1140.002071457,5220.314391
UpSIAH2140.001994845,2140.269677
UpTNKS140.002475650,1840.251959
UpRBM23142.87E−04166,5720.276758
UpHEYL140.002211402,8600.280864
UpMRPL3721.61E−0451,3820.28108
UpGID824.01E−0562180.246921
UpDIP2B2000.291299
UpSH3RF122.53E−0499,4000.287919
UpZFP36L129.45E−0513,9400.255792
UpGCG21.27E−0441,8700.209131
UpYIPF327.28E−0518,4160.211048
UpFGB1000.254404
UpFAM20C1000.254404
UpGLI31000.236207
UpNXN1000.215614
UpPHLDA11000.276071
UpSPRR1A1000.276071
UpDNAJC41000.276071
UpMRPL491000.270347
UpCOL6A31000.22719
UpMZT2B1000.287223
UpZFHX31000.287223
UpSNX191000.287223
UpKLF101000.287223
UpST6GALNAC61000.287223
UpRPRD21000.287223
UpETV61000.287223
UpSYVN11000.273764
UpSPRR2D1000.229084
UpFGF211000.239809
UpTMEM1741000.239809
UpCYGB1000.222435
UpCRNN1000.256151
UpPLCE11000.258901
UpSFTPD1000.201125
UpTRIM241000.273179
UpAPOD1000.273179
UpTHRB1000.21607
UpIKZF41000.23715
UpSPRR31000.23715
UpCNTNAP41000.23412
UpZNRF11000.224644
UpATXN7L11000.211048
UpFLG1000.219296
UpMT2A1000.250147
UpSHISA51000.250147
UpRWDD2B1000.230063
UpOAS11000.231658
UpTMED51000.231658
UpNR1D21000.231658
UpGPATCH41000.228011
UpKLF111000.217829
UpZFP361000.239696
UpMTMR31000.239696
UpFOXN31000.239696
UpPGAP21000.221817
UpELK11000.237967
UpDUSP11000.237967
UpIL6ST1000.248433
UpSNX121000.221222
UpLSM111000.237183
UpMED13L1000.232501
DownESR14480.11571768,567,8060.375827
DownFN14450.13041647,618,4460.393806
DownTK11550.04427610,622,9300.341187
DownANLN1020.0198315,950,4280.327945
DownSMAD9990.02351210,495,4280.31337
DownNEDD8940.0132164,708,0220.323626
DownTTN880.0217914,877,3900.354606
DownCDK1760.0191224,123,8020.343387
DownKRTAP4-2730.0199253,654,5380.300106
DownMED10650.0127173,973,7100.302915
DownEXOSC8610.0157022,371,4720.315244
DownNEK6610.0094732,973,1100.31289
DownOIP5600.0137583,810,1660.30688
DownPSMA6570.0122842,937,1640.324778
DownBUB1B540.0108135,323,0300.298111
DownFOXM1430.0072422,131,6540.300317
DownRPL31350.0037171,156,0160.323013
DownEEF1A2330.002074927,3960.307212
DownJMJD6310.0069764,154,0540.261751
DownVASP300.0056911,017,0200.316768
DownMAP3K8300.001715773,1540.310458
DownUCHL1280.003224905,1640.308808
DownTOP2A280.00321,042,1780.328788
DownMYH11280.0034061,173,8380.305103
DownRASSF1270.0041121,253,2520.299175
DownKRTAP3-2270.0045321,398,4320.265421
DownTXNDC9260.0041261,143,1660.278477
DownACTC1240.0040631,053,2020.329594
DownSPC24230.002762801,4960.268982
DownSH3BP2210.001863813,5640.277887
DownIGF2BP3200.001318388,4320.332401
DownKIF20A200.004794850,4520.262706
DownSFRP4200.001565724,8300.277404
DownKIF20B180.003465529,6200.306935
DownRASD1180.001969611,5260.282869
DownNEFM180.002405500,7760.29515
DownRADIL180.001925718,7080.28187
DownLCE1F185.31E−041,078,9960.215551
DownLUC7L170.001779331,2320.297175
DownLYZ170.002823462,3820.311441
DownPFKFB2170.002624984,6860.285029
DownACTBL2175.95E−04248,0940.310647
DownFCHO1170.002083725,1120.267588
DownKIF18A170.0029141,632,5880.264802
DownSAMHD1160.002408964,6520.269962
DownLAT150.002067607,3160.301593
DownPBK150.002668669,3800.294912
DownTPX2159.04E−04407,8580.293506
DownRRM2150.002347419,5660.272147
DownLAMB3150.0022791,460,7180.265531
DownALOX5150.003126496,3640.267099
DownTPM2154.76E−04162,9540.290092
DownIP6K3140.001497346,0420.275387
DownVAV3140.001429470,1800.297573
DownNDUFA8130.00167479,1560.290455
DownBIRC8130.002152927,3720.24679
DownDLG2130.002105767,6880.273896
DownMYCN121.11E−0441,9760.304939
DownPRAM1120.001039343,7800.260883
DownPCDH7120.001704788,8900.266375
DownEDARADD110.001215325,2520.268544
DownGREB1119.15E−04206,1960.268968
DownZNF622118.30E−04730,8080.269663
DownRXRG110.002054800,9860.250012
DownGLP1R113.87E−04306,0680.257778
DownTTC8110.003532958,5780.227362
DownSERPINA3100.002011543,4120.243151
DownCDK15102.37E−0485,6940.294623
DownHLA-DQA1100.001488682,9340.249878
DownHSD17B3101.13E−0475,7940.26087
DownTSHZ3100.001111304,6900.256253
DownMAP1A98.61E−04207,0680.312393
DownCSNK1G190.001614637,4300.248529
DownGTF2H2C90.001734341,2020.245876
DownPDLIM390.001957559,8700.239831
DownWDR396.45E−04234,6400.274455
DownTNFAIP899.44E−04850,9620.230957
DownADAMTS1089.45E−04260,4740.258443
DownABCB189.74E−04146,9040.3
DownQRICH280.001291295,0700.261336
DownINS84.75E−04194,0740.248216
DownCOMP80.001207326,6700.231995
DownSHCBP174.46E−04233,8460.256678
DownDLGAP571.46E−0474,8060.290108
DownARHGAP973.62E−0466,9240.28522
DownKCNH173.41E−04213,8920.253094
DownKLHL161.15E−0430,7880.283638
DownLCN264.47E−0483,3500.256575
DownTYMS64.58E−04134,6240.25317
DownCDKN1C64.20E−04155,8140.26589
DownDMBT160.001176361,0220.251748
DownSULT1C264.34E−0498,5200.244289
DownIL1068.05E−04231,6700.245675
DownSAMD366.69E−04135,9700.268713
DownNCKAP564.03E−0522,8140.2639
DownCNN162.65E−0464,3140.23624
DownPREX168.35E−04387,0300.254975
DownCTNNA255.71E−04182,5040.281204
DownPOU5F157.40E−04107,6800.274839
DownPOSTN55.96E−04207,1580.228766
DownCSF2RA58.10E−04258,3900.252907
DownMATN351.69E−0428,8900.235848
DownASB955.76E−04238,3620.238055
DownKRTAP5-150.001174179,6820.190051
DownIL5RA50.001176281,8720.257441
DownKANK457.94E−04141,2320.240633
DownASB1652.41E−0516,5920.266028
DownKIF4A54.60E−0513,9940.259374
DownROBO154.93E−04116,6240.246421
DownTNFRSF11A44.04E−04116,8040.251934
DownKRTAP3-142.89E−0520,4520.252494
DownUBXN1045.63E−0469,2020.248047
DownGLG144.17E−0462,0180.265572
DownLOXL144.78E−0474,5880.250404
DownCOMMD744.03E−04180,3660.233127
DownSELPLG48.09E−04244,3400.221136
DownYIPF444.79E−0515,5220.197986
DownTMEM10842.77E−0510,9720.243081
DownKRTAP13-333.50E−074220.210396
DownLRRC737.82E−04166,6820.180159
DownGPX22000.299578
DownCDH231000.215614
DownISX1000.240905
DownNPTX21000.287223
DownKCNG31000.287223
DownSMIM51000.239809
DownTFF31000.239809
DownFAM111B1000.222435
DownCDKN31000.255626
DownIFI27L21000.250147
DownNTN11000.226175
DownAGAP21000.218611
DownPIR1000.238611
DownRNASE21000.215016
DownADCYAP11000.189649
DownHADH1000.248433
DownNDRG41000.221222
Figure 4

Modules of isolated form PPI of DEGs. (A) The most significant module was obtained from PPI network with 28 nodes and 63 edges for up regulated genes (B) The most significant module was obtained from PPI network with 14 nodes and 30 edges for down regulated genes. Up regulated genes are marked in green; down regulated genes are marked in red.

PPI network of DEGs. The PPI network of DEGs was constructed using Cytoscap. Up regulated genes are marked in green; down regulated genes are marked in red. Topology table for up and down regulated genes. Modules of isolated form PPI of DEGs. (A) The most significant module was obtained from PPI network with 28 nodes and 63 edges for up regulated genes (B) The most significant module was obtained from PPI network with 14 nodes and 30 edges for down regulated genes. Up regulated genes are marked in green; down regulated genes are marked in red. The network of miRNAs and predicted targets (hub genes) is presented in Table 4. Based on the miRNAs, a miRNA -hub gene regulatory network was constructed with 2568 nodes (miRNA: 2259; hub gene: 309) and 16,618 interaction pairs (Fig. 5). Notably, MYC targeted 194 miRNAs, including hsa-mir-4677-3p; HSP90AA1 targeted 188 miRNAs, including hsa-mir-3125; FKBP5 targeted 116 miRNAs, including hsa-mir-4779; RNPS1 targeted 109 miRNAs, including hsa-mir-548az-3p; SQSTM1 targeted 108 miRNAs, including hsa-mir-106a-5p; ANLN targeted 127 miRNAs, including hsa-mir-664a-3p; CDK1 targeted 109 miRNAs, including hsa-mir-5688;FN1 targeted 105 miRNAs, including hsa-mir-199b-3p;ESR1 targeted 98 miRNAs, including hsa-mir-206; TK1 targeted 80 miRNAs, including hsa-mir-6512-3p.
Table 4

miRNA-target gene and TF-target gene interaction.

RegulationTarget genesDegreeMicroRNARegulationTarget genesDegreeTF
UpMYC194hsa-mir-4677-3pUpMAPK348JUND
UpHSP90AA1188hsa-mir-3125UpHSP90AA135HSF2
UpFKBP5116hsa-mir-4779UpSQSTM134SMAD4
UpRNPS1109hsa-mir-548az-3pUpSTUB131ATF6
UpSQSTM1108hsa-mir-106a-5pUpEGFR27ELF3
UpEGFR83hsa-mir-219a-5pUpYBX124TFAP2A
UpMAST376hsa-mir-129-2-3pUpLNX121MAX
UpYBX148hsa-mir-1537-3pUpFKBP520PGR
UpPRMT643hsa-mir-4330UpPRMT69YY1
UpMAPK333hsa-mir-3158-3pUpSGTA7MXI1
UpSGTA24hsa-mir-421UpPOU6F27ALX1
UpTNFRSF1A22hsa-mir-548anUpRNPS17STAT3
UpSTUB116hsa-mir-942-5pUpTNFRSF1A6EP300
UpPOU6F215hsa-mir-7850-5pUpMAST31NFYA
DownANLN127hsa-mir-664a-3pDownESR1126FOXF2
DownCDK1109hsa-mir-5688DownSMAD938XAB2
DownFN1105hsa-mir-199b-3pDownCDK136KHDRBS1
DownESR198hsa-mir-206DownFN125RELA
DownTK180hsa-mir-6512-3pDownNEK616SRY
DownOIP562hsa-mir-767-5pDownTK111DRAP1
DownSMAD958hsa-mir-3689a-3pDownNEDD810PARP1
DownMED1041hsa-mir-647DownTTN10FOXD3
DownNEK634hsa-mir-4485-3pDownANLN9JUN
DownBUB1B32hsa-mir-449b-5pDownBUB1B9MYB
DownTTN31hsa-mir-181c-5pDownMED106KDM4B
DownNEDD826hsa-mir-583DownPSMA66EBF1
DownPSMA617hsa-mir-539-5pDownOIP55GATA2
DownEXOSC817hsa-mir-191-5pDownKRTAP4-21TBP
Figure 5

MiRNA—hub gene regulatory network. The chocolate color diamond nodes represent the key miRNAs; up regulated genes are marked in green; down regulated genes are marked in red.

miRNA-target gene and TF-target gene interaction. MiRNA—hub gene regulatory network. The chocolate color diamond nodes represent the key miRNAs; up regulated genes are marked in green; down regulated genes are marked in red. The network of TFs and predicted targets (hub genes) is presented in Table 4. Based on the TFs, a TF -hub gene regulatory network was constructed with 899 nodes (TF: 604; hub gene: 295) and 3542 interaction pairs (Fig. 6). Notably, MAPK3 targeted 48 TFs, including JUND; HSP90AA1 targeted 35 TFs, including HSF2; SQSTM1 targeted 34 TFs, including SMAD4; STUB1 targeted 31 TFs, including ATF6; EGFR targeted 27 TFs, including ELF3; ESR1 targeted 126 TFs, including ELF3; SMAD9 targeted 38 TFs, including ELF3; CDK1 targeted 36 TFs, including ELF3; FN1 targeted 25 TFs, including ELF3; NEK6 targeted 16 TFs, including ELF3.
Figure 6

TF—hub gene regulatory network. The blue color triangle nodes represent the key TFs; up regulated genes are marked in green; down regulated genes are marked in red.

TF—hub gene regulatory network. The blue color triangle nodes represent the key TFs; up regulated genes are marked in green; down regulated genes are marked in red. As these 10 hub genes are prominently expressed in T1DM, we performed a ROC curve analysis to evaluate their sensitivity and specificity for the diagnosis of T1DM. As shown in Fig. 7, MYC, EGFR, LNX1, YBX1, HSP90AA1, ESR1, FN1, TK1, ANLN and SMAD9 achieved an AUC value of > 0.9, demonstrating that these genes have high sensitivity and specificity for T1DM diagnosis. The results suggested that MYC, EGFR, LNX1, YBX1, HSP90AA1, ESR1, FN1, TK1, ANLN and SMAD9 can be used as biomarkers for the diagnosis of T1DM.
Figure 7

ROC curve validated the sensitivity, specificity of hub genes as a predictive biomarker for dementia prognosis. (A) MYC (B) EGFR (C) LNX1 (D) YBX1 (E) HSP90AA1 (F) ESR1 (G) FN1 (H) TK1 (I) ANLN (J) SMAD9.

ROC curve validated the sensitivity, specificity of hub genes as a predictive biomarker for dementia prognosis. (A) MYC (B) EGFR (C) LNX1 (D) YBX1 (E) HSP90AA1 (F) ESR1 (G) FN1 (H) TK1 (I) ANLN (J) SMAD9.

Discussion

T1DM is the common forms of chronic autoimmune diabetes that affect an individual's quality of childhood life[42]. However, the potential causes of T1DM remain uncertain. Understanding the underlying molecular pathogenesis of T1DM is of key importance for diagnosis, prognosis and identifying drug targets. As NGS data can provide information regarding the expression levels of thousands of genes in the human genome simultaneously, this methodology has been widely used to predict the potential diagnostic and therapeutic targets for T1DM. In the present investigation, we analyzed the NGS dataset GSE162689, which includes 27 T1DM samples and 32 normal control samples. We identified 477 up regulated and 475 down regulated genes between T1DM samples and normal control samples using DESeq2 package in R language software. FGA (fibrinogen alpha chain)[43] and FGB (fibrinogen beta chain)[44] levels are correlated with disease severity in patients with cardiovascular disease, but these genes might provide new targets for the development of drugs to treat T1DM. IGF2[45], IAPP (islet amyloid polypeptide)[46], INS (insulin)[47] and MAFA (MAF bZIP transcription factor A)[48] are proved to be involved in T1DM. Altered expression of ADCYAP1 was observed to be associated with the progression of type 2 diabetes mellitus[49]. Gold et al.[50] reported that CSNK1G1 might be essential for cognitive impairment. Therefore, these genes are might be essential in the advancement of T1DM and its complications. Furthermore, we investigated the biological functions of these DEGs by using online website, and GO and pathway enrichment analysis. Husemoen et al.[51], Zhang et al.[52], Hartz et al.[53], Słomiński et al.[54], Johansson et al.[55], Pan et al.[56], Lopez-Sanz et al.[57], Grant[58], Słomiński et al.[59], Galán et al.[60], Jordan et al.[61], Winkler et al.[62], Yip et al.[63], Crookshank et al.[64], Lempainen et al.[65], Qu and Polychronakos[66], Morrison et al.[67], Zhang et al.[68], Gerlinger-Romero et al.[69], Belanger et al.[70], Dieter et al.[71], Wanic et al.[72], Ushijima Wanic et al.[73], Guo et al.[74], Davis et al.[75], Elbarbary et al.[76], Villasenor et al.[77], Zhang et al.[78], Lee et al.[79], Zhi et al.[80], Li Calzi et al.[81], Sebastiani et al.[82], Cherney et al.[83], Doggrell[84] and Yanagihara et al.[85] studied the clinical and prognostic values of FLG (filaggrin), FGF21, PEMT (phosphatidylethanolamine N-methyltransferase) KL (klotho), CEL (carboxyl ester lipase), FOSL2, STAT1, TCF7L2, TP53, EGFR (epidermal growth factor receptor), ETS1, KCNJ8, DEAF1, GCG (glucagon), IKZF4, OAS1, IRS1, ABCG2, FBXO32, PTBP1, BACH2, CNDP2, KLF11, MT1E, DPP4, SLC29A3, RGS16, MAS1, GCGR (glucagon receptor), HLA-C, VASP (vasodilator stimulated phosphoprotein), CCR2, PTGS2, GLP1R and JMJD6 in patients with T1DM. Vassilev et al.[86], Qin et al.[87], Ma et al.[88], West et al.[89], Hoffmann et al.[90], Deary et al.[91], Belangero et al.[92], Jung et al.[93], Tang et al.[94], Goodier et al.[95], Petyuk et al.[96], Roux et al.[97], Castrogiovanni et al.[98], Suleiman et al.[99], Haack et al.[100], Kwiatkowski et al.[101], Pinacho et al.[102], Luo et al.[103], He et al.[104], Moudi et al.[105], Thevenon et al.[106], Li et al.[107], Reitz et al.[108], Jenkins and Escayg[109], Letronne et al.[110], Ma et al.[111], Chabbert et al.[112], Abramsson et al.[113], Aeby et al.[114] and Roll et al.[115] showed the diagnostic values of genes include DCC (DCC netrin 1 receptor), PLP1, SNX19, SH3RF1, TNFRSF1A, NCSTN (nicastrin), DGCR2, NPAS2, CDNF (cerebral dopamine neurotrophic factor), SMCR8, HSPA2, STUB1, CHID1, ATP13A2, SQSTM1, LIG3, SP4, ACSL6, ERN1, ATF6B, LRFN2, NRG3, LRRTM3, GABRA2, ADAM30, GABRR2, TSHZ3, LOXL1, SCN1B and SRPX2 in patients with cognitive impairment. Previous studies have shown that genes include KCP (kielin cysteine rich BMP regulator)[116], NOG (noggin)[117], COL6A3[118], BTG2[119], RPS6[120], KLF15[121], KLF3[122], ZFP36[123], ETV5[124], TLE3[125], NNMT (nicotinamide N-methyltransferase)[126], WDTC1[127], ZFHX3[128], SIAH2[129], MBOAT7[130], RUNX1T1[131], MAPK4[132], KLF9[133], SELENBP1[134], HELZ2[135], ELK1[136], SERTAD2[137], CRTC3[138], ABCB11[139], TACR1[140], SLC22A11[141], PER3[142], P2RX5[143], MFAP5[144], FGL1[145], OLFM4[146], NTN1[147], ESR1[148], ABCB1[149], VAV3[150] and LAMB3[151] can be used as clinical prognostic biomarkers for obesity. Genes include STAR (steroidogenic acute regulatory protein)[152], IL1RN[153], AQP5[154], EGR1[155], SFTPD (surfactant protein D)[156], KLF10[157], PODXL (podocalyxin like)[158], FOXN3[159], IL6R[160], PBX1[161], APOD (apolipoprotein D)[162], ACVR2B[163], CD34[164], INSR (insulin receptor)[165], APOA5[166], STAR (steroidogenic acute regulatory protein)[167], PDK4[168], GLS (glutaminase)[169], FKBP5[170], SLC6A15[171], MT2A[172], SLC38A4[173], AQP7[174], ABHD15[175], ABCA1[176], ZNRF1[177], PPP1R3B[178], MAOA (monoamine oxidase A)[179], UBE2E2[180], RNASEK (ribonuclease K)[181], PREX1[182], DGKG (diacylglycerol kinase gamma)[183], POSTN (periostin)[184], COMP (cartilage oligomeric matrix protein)[185], GAP43[186], P2RY12[187], SELL (selectin L)[188] and DLG2[189] were related to type 2 diabetes mellitus. Expression of ERRFI1[190], ALOX12[191], SOCS5[192], DDIT4[193], DUSP4[194], IL6ST[195], DUSP1[196], SMAD1[197], NCL (nucleolin)[198], METTL14[199], FMOD (fibromodulin)[200], CYGB (cytoglobin)[201], UNC5A[202] and TAAR9[203] are believed to be associated with diabetic nephropathy. Genes include FAP (fibroblast activation protein alpha)[204], EYA4[205], BCL9[206], IRF2BP2[207], EGR3[208], GADD45B[209], DMD (dystrophin)[210], LSR (lipolysis stimulated lipoprotein receptor)[211], DLL4[212], SUN2[213], SOS1[214], PIK3CA[215], GAMT (guanidinoacetate N-methyltransferase)[216], RBM47[217], HSP90AA1[218], GAB1[219], S1PR1[220], EDNRB (endothelin receptor type B)[221], NFKBIA (NFKB inhibitor alpha)[222], GJA1[223], GADD45G[224], PHLDA1[225], CMPK2[226], FIGN (fidgetin, microtubule severing factor)[227], KCNJ2[228], ABCC9[229], DIRAS3[230], EPHX1[231], RAB4A[232], UBIAD1[233], CASQ2[234], TTN (titin)[235], KCNH1[236], JPH2[237], OXGR1[238], UCHL1[239], SERPINA3[240], MMP28[241], ADAMTS2[242], P2RY1[243], CSF2RA[244], MYO1F[245], SELPLG (selectin P ligand)[246] and SAMHD1[247] have been reported to be associated with cardiovascular disease. Previous studies had shown that the altered expression of genes include MAOB (monoamine oxidase B)[248], VEGFC (vascular endothelial growth factor C)[249], DBP (D-box binding PAR bZIP transcription factor)[250], MYADM (myeloid associated differentiation marker)[251], NES (nestin)[252], SMURF1[253], EDNRB (endothelin receptor type B)[254], MUC6[255], TOR2A[256], TNKS (tankyrase)[257], NEDD9[258], ASIC1[259], ADAMTS8[260], DYSF (dysferlin)[261], SLC26A9[262], SLC45A3[263] and KCNQ2[264] were closely related to the occurrence of hypertension. Yang et al.[265], Zhang et al.[266] and Wang et al.[267] revealed that genes include SYVN1, BTG1 and CFB (complement factor B) might be the potential targets for diabetic retinopathy diagnosis and treatment. Study indicating that these enriched genes might play important roles in the progression of T1DM. Construction of PPI network of DEGs may be favorable for understanding the relationship of advancing T1DM. The results of the present investigation might provide potential biomarkers for the diagnosis of T1DM. SMAD9 plays an important role in the development of hypertension[268]. Our results indicate the importance of this hub gene might be involved in occurrence and development of T1DM. MYC (MYC proto-oncogene, bHLH transcription factor), LNX1, YBX1, FN1, TK1 and ANLN (anillin actin binding protein) are likely to provide new potential biomarkers for clinical practice or treatment of T1DM with further research. In this investigation, the miRNA-hub gene regulatory network and TF-hub gene regulatory network that regulates T1DM was constructed. CDK1[269], hsa-mir-199b-3p[270], JUND[271] and FOXF2[272] are a promising biomarkers in obesity detection and diagnosis. Hsa-mir-106a-5p[273], hsa-mir-206[274], SMAD4[275] and ATF6[276] biomarkers were confirmed in type 2 diabetes mellitus progression. Hsa-mir-106a-5p[277] and HSF2[278] have been shown to promote cardiovascular disease.. Mendes-Silva et al.[279] reported that hsa-mir-664a-3p promotes cognitive impairment. Some scholars pointed out that ELF3 was involved in the pathogenesis of diabetic nephropathy[280]. Previous studies have shown that SRY is involved in the development of hypertension[281]. Our results showed that these hub genes, miRNAs and TFs are might be involved in progression of T1DM. Together, RNPS1, MAPK3, NEK6, hsa-mir-4677-3p, hsa-mir-3125, hsa-mir-4779, hsa-mir-548az-3p, hsa-mir-5688, hsa-mir-6512-3p, XAB2, KHDRBS1 and RELA might be effective targets in T1DM, but more experimental investigations and clinical trials are needed. In conclusion, the study used a comprehensive bioinformatics analysis methods to identify DEGs, as well as unique biological functions and pathways of T1DM, thereby enhancing the current understanding of the molecular pathogenesis of T1DM. Moreover, these results might provide potential biomarkers for the initial and proper diagnosis of T1DM, as well as potential therapeutic targets for the advancementof novel T1DM treatments. Supplementary Table S1.
  281 in total

1.  Functional topology in a network of protein interactions.

Authors:  N Przulj; D A Wigle; I Jurisica
Journal:  Bioinformatics       Date:  2004-02-12       Impact factor: 6.937

2.  Vitamin D receptor gene polymorphisms influence susceptibility to type 1 diabetes mellitus in the Taiwanese population.

Authors:  T J Chang; H H Lei; J I Yeh; K C Chiu; K C Lee; M C Chen; T Y Tai; L M Chuang
Journal:  Clin Endocrinol (Oxf)       Date:  2000-05       Impact factor: 3.478

3.  Increased AQP7 abundance in skeletal muscle from obese men with type 2 diabetes.

Authors:  Janne Lebeck; Esben Søndergaard; Søren Nielsen
Journal:  Am J Physiol Endocrinol Metab       Date:  2018-05-21       Impact factor: 4.310

4.  Reassessment of the type I diabetes association of the OAS1 locus.

Authors:  H-Q Qu; C Polychronakos
Journal:  Genes Immun       Date:  2009-12       Impact factor: 2.676

5.  Common genetic polymorphisms and haplotypes of fibrinogen alpha, beta, and gamma chains affect fibrinogen levels and the response to proinflammatory stimulation in myocardial infarction survivors: the AIRGENE study.

Authors:  Bénédicte Jacquemin; Charalambos Antoniades; Fredrik Nyberg; Estel Plana; Martina Müller; Sonja Greven; Veikko Salomaa; Jordi Sunyer; Tom Bellander; Alexandros-Georgios Chalamandaris; Ricardo Pistelli; Wolfgang Koenig; Annette Peters
Journal:  J Am Coll Cardiol       Date:  2008-09-09       Impact factor: 24.094

6.  Islet-specific monoamine oxidase A and B expression depends on MafA transcriptional activity and is compromised in type 2 diabetes.

Authors:  Elvira Ganic; Jenny K Johansson; Hedvig Bennet; Malin Fex; Isabella Artner
Journal:  Biochem Biophys Res Commun       Date:  2015-11-10       Impact factor: 3.575

7.  Glucagon receptor knockout prevents insulin-deficient type 1 diabetes in mice.

Authors:  Young Lee; May-Yun Wang; Xiu Quan Du; Maureen J Charron; Roger H Unger
Journal:  Diabetes       Date:  2011-02       Impact factor: 9.461

8.  Inhibition of UCHL1 by LDN-57444 attenuates Ang II-Induced atrial fibrillation in mice.

Authors:  Hai-Lian Bi; Yun-Long Zhang; Jie Yang; Qing Shu; Xiao-Lei Yang; Xiao Yan; Chen Chen; Zhi Li; Hui-Hua Li
Journal:  Hypertens Res       Date:  2019-11-07       Impact factor: 3.872

9.  SAMHD1 Gene Mutations Are Associated with Cerebral Large-Artery Atherosclerosis.

Authors:  Wei Li; Baozhong Xin; Junpeng Yan; Ying Wu; Bo Hu; Liping Liu; Yilong Wang; Jinwoo Ahn; Jacek Skowronski; Zaiqiang Zhang; Yongjun Wang; Heng Wang
Journal:  Biomed Res Int       Date:  2015-10-04       Impact factor: 3.411

10.  The oxoglutarate receptor 1 (OXGR1) modulates pressure overload-induced cardiac hypertrophy in mice.

Authors:  Ameh Omede; Min Zi; Sukhpal Prehar; Arfa Maqsood; Nicholas Stafford; Mamas Mamas; Elizabeth Cartwright; Delvac Oceandy
Journal:  Biochem Biophys Res Commun       Date:  2016-09-29       Impact factor: 3.575

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.