Literature DB >> 26484203

Expression profiling of wild type and β-catenin gene disrupted human BxPC-3 pancreatic adenocarcinoma cells.

Petter Angell Olsen1, Kaja Lund1, Stefan Krauss1.   

Abstract

To study the role of WNT/β-catenin signaling in pancreatic adenocarcinoma, human BxPC-3 cell lines deficient of the central canonical WNT signaling protein β-catenin were established by using zinc-finger nuclease mediated targeted genomic disruption of the β-catenin gene (CTNNB1). Comparison of the global transcription levels in wild type cells with two β-catenin gene disrupted clones identified 85 transcripts that were the most differentially regulated. Gene ontology (GO) term enrichment analysis of these transcripts identified "cell adhesion" as the most significantly enriched GO term. Here we describe the data from the transcription profiling analysis published in the article "Implications of Targeted Genomic Disruption of β-Catenin in BxPC-3 Pancreatic Adenocarcinoma Cells" [1]. Data have been deposited to the Gene Expression Omnibus (GEO) database repository with the dataset identifier GSE63072.

Entities:  

Keywords:  Beta-catenin; Pancreatic cancer; WNT

Year:  2015        PMID: 26484203      PMCID: PMC4535937          DOI: 10.1016/j.gdata.2015.04.010

Source DB:  PubMed          Journal:  Genom Data        ISSN: 2213-5960


Direct link to deposited data

http://www.ncbi.nlm.nih.gov/geo/query/acc.cgi?acc=GSE63072.

Experimental design, materials and methods

Cell culture

The human pancreatic adenocarcinoma BxPC-3 (ATCC CRL-1687) epithelial cell line was grown in RPMI-1640 (Sigma-Aldrich, St Louis, MO, USA) supplemented with 10% fetal bovine serum, 1% penicillin/streptomycin and 0.002 × insulin–transferrin–selenium (Life Technologies, Carlsbad, CA, USA) cells were propagated at 37 °C in a humidified atmosphere containing 5% CO2.

Generation of β-catenin deficient cells

BxPC-3 cells with targeted disruption of the β-catenin gene (CTNNB1) were established using CompoZr custom Zinc Finger Nucleases (ZFNs) (Sigma-Aldrich). Briefly, following transfection of the cells with ZFN mRNA targeting exon 3 of the CTNNB1 gene, monoclonal cell populations were obtained by limiting dilution cloning and analyzed for β-catenin expression. From 150 initial clones five β-catenin gene disrupted clones negative for β-catenin expression were identified and selected for further analysis (clone #4, #31, #79, #93 and #111).

RNA isolation microarray analysis

Total RNA from exponentially growing wild type BxPC-3 cells and β-catenin gene disrupted clones #4 and #111 was isolated using the GenElute Mammalian Total RNA Purification Kit (Sigma-Aldrich). The RNA was subjected to microarray analysis using Illumina HumanHT-12 v4 Expression BeadChips (Illumina, CA, USA) at the Norwegian Genomics Consortium core facility (Oslo University Hospital, Norway). For each sample 6 biological replicates were analyzed. Data extraction and quality control was performed in GenomeStudio (Illumina) and the data analysis was performed using J-Express [2].

Differential expression quantification and classification

To identify the most differentially expressed genes between wild type BxPC-3 cells and the β-catenin gene disrupted clones #4 and #111 (average) Significance Analysis of Microarrays (SAM) analysis was carried out [3]. From the SAM analysis a threshold of fold change > 2 and q-value = 0 was selected to identify the most regulated probes. In Table 1 the resulting list of the 85 most differentially regulated probes is shown. To identify relevant shared biological functions associated with the identified 85 most differentially regulated transcripts, Gene Ontology (GO) term enrichment analysis was done using DAVID [4] with the GOTERM_BP_2 annotation (Table 2).
Table 1

List of the most differentially regulated probes from significance analysis of microarrays (SAM) comparing wild type BxPC3 cells and the gene disrupted clones #4 and #111 (average).

The list was generated by selecting the probes that displayed a fold change > 2 and q-value = 0 in the SAM analysis of all probes. The list is sorted by the d-score and genes up- and down-regulated in the gene disrupted clones have a positive and a negative fold change value, respectively.

Probe_IdSymbolILMN_GENEd-ScoreFold changeq-Value
ILMN_1686664MT2AMT2A22.1552.450
ILMN_1659688LGALS3BPLGALS3BP15.6562.3580
ILMN_2042771PTTG1PTTG114.422.1090
ILMN_1672503DPYSL2DPYSL212.372.3680
ILMN_2183409SCARB1SCARB1− 12.283− 2.430
ILMN_1673356FAM83CFAM83C− 11.125− 2.3270
ILMN_3247895LOC728188LOC72818810.7772.4460
ILMN_1713147MCRS1MCRS110.7032.1780
ILMN_1655347SCGB1A1SCGB1A1− 10.414− 2.0550
ILMN_2320250NOL6NOL6− 10.404− 2.0870
ILMN_1799098LOC652846LOC65284610.3982.2890
ILMN_1750324IGFBP5IGFBP5− 9.748− 6.4580
ILMN_1733756COL12A1COL12A1− 9.342− 2.0760
ILMN_2145116TMEM173TMEM1739.2462.2640
ILMN_1811972MYCBP2MYCBP2− 9.226− 2.0240
ILMN_1678707TAF15TAF15− 9.141− 2.0810
ILMN_1765641SEMA3ASEMA3A− 9.018− 2.0240
ILMN_1753196PTTG1PTTG18.9952.5230
ILMN_1673023EP400EP400− 8.897− 2.0680
ILMN_1765701LOC399942LOC3999428.742.0770
ILMN_2400759CPVLCPVL8.6442.0230
ILMN_1661366PGAM1PGAM18.6062.7360
ILMN_1740233UGT1A10UGT1A108.4762.0960
ILMN_1676358RALBRALB8.2652.4930
ILMN_2321153MUC4MUC4− 8.15− 2.4770
ILMN_3247578FAT1FAT1− 8.034− 2.080
ILMN_2411915ATG4BATG4B7.9812.1910
ILMN_1754795FAT1FAT1− 7.879− 3.2110
ILMN_1678757BCYRN1BCYRN1− 7.775− 3.9910
ILMN_1695917C5orf15C5ORF157.6792.1480
ILMN_2395389PSMC4PSMC47.1972.6270
ILMN_2132982IGFBP5IGFBP5− 7.174− 4.2420
ILMN_1676763PIPSLPIPSL7.0212.1310
ILMN_2109708ECGF1ECGF16.7932.0860
ILMN_1795778P4HA2P4HA26.6462.2110
ILMN_2095610ANXA8ANXA86.4892.1240
ILMN_1691563GAGE12IGAGE12I− 6.241− 2.1190
ILMN_1704342UBE3CUBE3C− 6.183− 2.1360
ILMN_1779353PUS7PUS7− 6.17− 2.4830
ILMN_2326737PPIEPPIE6.0612.3630
ILMN_1800131LOC652826LOC6528266.0112.0610
ILMN_1788108TXNDC5TXNDC5− 5.947− 20
ILMN_2332105WRNIP1WRNIP1− 5.922− 2.2220
ILMN_1687887PSMC4PSMC45.8512.2510
ILMN_1685798MAGEA6MAGEA65.8322.070
ILMN_1744765KRT4KRT4− 5.788− 3.1580
ILMN_3308295MIR205MIR2055.5482.0830
ILMN_3204734LOC100134648LOC1001346485.3372.5510
ILMN_1766762DYNLRB1DYNLRB15.2072.9550
ILMN_1732074LOC648210LOC6482105.0992.9250
ILMN_2261076NEDD9NEDD9− 5.097− 2.0740
ILMN_1681301AIM2AIM25.0832.0420
ILMN_2371169ZYXZYX− 5.063− 2.4510
ILMN_2174127DCBLD2DCBLD2− 5.038− 2.6050
ILMN_1696187PYGLPYGL− 5.02− 2.2160
ILMN_1690259RAE1RAE14.982.1210
ILMN_1680246MAT2BMAT2B4.9613.1370
ILMN_1798454MAD2L1BPMAD2L1BP4.9252.1360
ILMN_1711702CLEC2DCLEC2D4.9212.1160
ILMN_1753449CST1CST14.8022.7830
ILMN_1746465FJX1FJX1− 4.758− 2.2250
ILMN_1715175METMET− 4.688− 2.7510
ILMN_1795342MLPHMLPH4.6262.1080
ILMN_1703108UBE2L6UBE2L64.5992.7210
ILMN_2129572F3F3− 4.593− 2.650
ILMN_1660345NGRNNGRN4.5782.3870
ILMN_1658053DYNLRB1DYNLRB14.5043.0050
ILMN_2150856SERPINB2SERPINB2− 4.471− 2.410
ILMN_1664543IFIT3IFIT34.472.2180
ILMN_1766650FOXA1FOXA1− 4.469− 2.0720
ILMN_1829845HS.553301HS.5533014.4083.3630
ILMN_3231944LOC100130516LOC100130516− 4.399− 6.1370
ILMN_1784602CDKN1ACDKN1A4.3812.0920
ILMN_1768470EIF4G1EIF4G1− 4.297− 2.0610
ILMN_2405233FAM133BFAM133B− 4.278− 2.0540
ILMN_2148527H19H19− 4.25− 7.30
ILMN_1756071MFGE8MFGE84.1253.2040
ILMN_1739645ANLNANLN− 4.096-2.0370
ILMN_3215206LOC100133836LOC1001338364.0012.0780
ILMN_1673880EFEMP1EFEMP13.9632.2890
ILMN_2073604EBPEBP3.9162.2070
ILMN_1777765C12orf10C12ORF103.9092.0980
ILMN_2239754IFIT3IFIT33.8794.9520
ILMN_1774077GBP2GBP23.8563.3170
ILMN_2279635EIF4G2EIF4G23.8322.4690
Table 2

Gene ontology enrichment analysis of the most differentially regulated transcripts between the wild type BxPC3 cells and the β-catenin deficient clones #4 and #111 (average).

The GO analysis was performed using the top 85 most regulated transcripts from Table 1.

CategoryTermCount%Genes/transcriptsFold enrichmentBonferroni
GOTERM_BP_2GO:0007155 ~ cell adhesion91.4DCBLD2, LGALS3BP, FAT1, NEDD9, COL12A1, SCARB1, MFGE8, ZYX, MUC43.260.46
GOTERM_BP_2GO:0008037 ~ cell recognition30.5SCARB1, MFGE8, SEMA3A13.830.90
GOTERM_BP_2GO:0040008 ~ regulation of growth50.8DCBLD2, CDKN1A, NEDD9, SEMA3A, IGFBP53.720.99
GOTERM_BP_2GO:0065008 ~ regulation of biological quality111.8DCBLD2, UGT1A10, CDKN1A, ANXA8, PYGL, TXNDC5, F3, FOXA1, MT2A, SCARB1, SEMA3A1.901.00
GOTERM_BP_2GO:0006950 ~ response to stress121.9DCBLD2, UGT1A10, CDKN1A, TMEM173, LGALS3BP, ANXA8, F3, WRNIP1, GAGE12I, SERPINB2, SCARB1, PTTG11.811.00
GOTERM_BP_2GO:0009605 ~ response to external stimulus81.3DCBLD2, UGT1A10, CDKN1A, ANXA8, F3, SERPINB2, SCARB1, SEMA3A2.221.00
GOTERM_BP_2GO:0042445 ~ hormone metabolic process30.5UGT1A10, FOXA1, SCARB17.181.00
GOTERM_BP_2GO:0022402 ~ cell cycle process61.0EIF4G2, CDKN1A, PSMC4, NEDD9, ANLN, PTTG1, LOC6528262.691.00
GOTERM_BP_2GO:0045926 ~ negative regulation of growth30.5DCBLD2, CDKN1A, SEMA3A6.911.00
GOTERM_BP_2GO:0032879 ~ regulation of localization61.0F3, SCARB1, MFGE8, SEMA3A, IGFBP5, MYCBP22.491.00
GOTERM_BP_2GO:0044419 ~ interspecies interaction between organisms40.6EIF4G1, SCARB1, MFGE8, ZYX3.581.00

Discussion

We describe the dataset from the transcriptome analysis comparing wild type and β-catenin deficient BxPC-3 cells. In this analysis 85 transcripts were identified to be the most differentially regulated between the two groups. GO term enrichment analysis of the transcripts identified “cell adhesion” as the GO term that was most significantly enriched for. These results together with the rest the data from the previous published article [1] points towards a central role of β-catenin in enabling cell-cell contacts in BxPC3 cells.
Specifications
Organism/cell line/tissueHuman BxPC-3 pancreatic adenocarcinoma cell line
SexFemale
Sequencer or array typeIllumina HumanHT-12 V4.0 expression beadchip
Data formatRaw and processed
Experimental factorsWild type versus β-catenin deficient BxPC-3 cells
Experimental featuresBxPC-3 cells deficient of β-catenin was generated by zinc-finger nuclease mediated targeted gene disruption.
ConsentN/A
Sample source locationBxPC-3 wild type cell line was obtained from ATCC (CRL-1687)
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