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Table 2 Comparison between genes uncovered in this study and other cancers. Literature analysis of the genes not previously reported as deregulated in CRC, but found deregulated in other cancer types. Different expression data information was listed for each gene: i) from our study performed by PCR array technology in CRC (n = 95) as compared to NT (n = 19); ii) from literature data by focusing on expression analysis obtained in other cancers (RNA or protein level) and iii) from other literature data obtained from genetic association, epigenetic and functional studies in other cancers. Bold lines highlight newly deregulated genes in CRC and not associated to other cancers

From: A transcriptome-based protein network that identifies new therapeutic targets in colorectal cancer

Gene Symbol

PCR Array Data (CRC vs. NT)

Bibliography Data

Fold-change

q-value

Pathway

Type of Cancer

Expression Change (vs. NT)

Ref.

Other data

CEL

15.08

< 0.001

Chol. Met.

Pancreas

↓ (RNA)

[25]

/

Nasopharynx

↑ (RNA)

[24]

/

PCSK9

6.28

< 0.001

Chol. Met.

Lung

↓ (RNA)

[23]

PCSK9 deficiency reduces liver metastasis [64].

INSIG1

3.69

< 0.001

Chol. Met.

Breast

↑ (protein)

[65]

/

DHCR7

3.56

< 0.001

Chol. Met.

/

/

/

/

CYP39A1

3.35

< 0.001

Chol. Met.

Cholangiosarcoma

↓ (protein)

[66]

/

APOL1

2.97

< 0.001

Chol. Met.

/

/

/

/

CYP51A1

2.95

< 0.001

Chol. Met.

/

/

/

/

HMGCS1

2.79

< 0.001

Chol. Met.

/

/

/

Non-synonymous mutation associated to hepatocellular carcinoma [67].

NSDHL

2.61

< 0.001

Chol. Met.

/

/

/

/

CYP2B6

2.61

< 0.05

Drug Met.

Breast

↑ (RNA)

[68]

/

Hepatocellular

↑ (RNA)

[69]

DHCR24

2.44

< 0.01

Chol. Met.

Adrenals

↓ (RNA)

[70]

/

Prostate

↑ low risk and ↓ advanced (protein)

[71]

FDPS

2.40

< 0.001

Chol. Met.

Prostate

↑ (protein, RNA)

[72, 73]

/

SRD5A1

2.37

< 0.001

Drug Met.

Non-small cell lung cancer

↑ (RNA)

[74]

/

Prostate

↑ (RNA, protein)

[75]

Associated with biological aggressiveness in prostate cancer [76].

Breast

↑ (RNA)

[77]

/

IDI1

2.37

< 0.001

Chol. Met.

/

/

/

Altered expression in response to paclitaxel treatment in ovarian carcinoma (nude mice xenografts) [78].

EPDR1

2.25

< 0.01

Cancer

/

/

/

/

CNBP

2.09

< 0.001

Chol. Met.

/

/

/

/

FDFT1

2.01

< 0.01

Chol. Met.

Gastric

↑ (RNA, protein)

[79]

The A allele of rs2645429 (promoter) was significantly associated with prostate cancer risk in a Japanese familial population (~increase promoter activity) [80].

Prostate

↑ (RNA)

[80]

TM7SF2

1.96

< 0.001

Chol. Met.

Adrenocortical tumors

↓ (RNA)

[81]

/

Follicular thyroid carcinoma

↑ aggressive vs. non-aggressive (RNA)

[82]

RIPK2

1.95

< 0.001

Apoptosis

Breast

↑ (RNA)

[83]

KO of RIPK2 in murine model of bladder Cancer induces large tumors and higher incidence of metastases [84].

Oral squamous cell carcinoma

↓ (protein)

[85]

SREBF1

1.93

< 0.001

Chol. Met.

Hepatocellular

↑ (RNA, protein)

[86]

/

SORL1

1.90

< 0.01

Chol. Met.

Astrocytoma

↑ (RNA)

[87]

/

GSR

1.82

< 0.05

Drug Met.

/

/

/

/

MVK

1.72

< 0.001

Chol. Met.

/

/

/

/

GSTM5

−3.92

< 0.001

Drug Met.

Barett’s esophagus

↓ (RNA)

[27]

Associated to DNA hypermethylation in Barett’s adenocarcinoma [27], in human salivary gland adenoid cystic carcinoma [88], in myelodysplasic syndrome [89], in glioblastoma [26].

Glioblastoma

[26]

COLEC12

−3.32

< 0.001

Chol. Met.

Anaplastic thyroid carcinoma

↓ (RNA)

[90]

/

GSTM2

−3.10

< 0.001

Drug Met.

Barett’s esophagus

↓ (RNA)

[27]

Associated to DNA hypermethylation [27, 91].

Oral squamous cell carcinoma

[91]

GSTM3

−2.49

< 0.001

Drug Met.

Barett’s esophagus

↓ (RNA)

[27]

Associated to DNA hypermethylation in Barett’s adenocarcinoma [27].

Lung

[92]

CD27

−2.30

< 0.001

Apoptosis

Bladder

↓ (RNA)

[93]

/

B Cell Lymphoma

↑ (protein)

[94]

CLL

↑ (RNA)

[95]

TEK

−2.30

< 0.001

Cancer

Non-small cell lung cancer

↓ (RNA)

[96]

/

Angiosarcoma

↑ (RNA)

[97]

AML and CML

[98]

Thyroid

↑ (RNA, protein)

[99]

Breast

↑ (protein)

[100]

RHOU

−1.78

< 0.001

Wnt

Prostate

↓ (RNA)

[101]

/

WNT2B

−2.19

< 0.001

Wnt

Pancreas

↑ (protein)

[102]

/

Stomach

↑ (RNA)

[103]

Basal carcinoma (skin)

↑ (RNA)

[104]

ITGA4

−2.13

< 0.001

Cancer

CLL

↑ (RNA, protein)

[105]

/

ITGB3

−2.11

< 0.001

Cancer

Liver

↓ (RNA, protein)

[106]

/

Ovary

↑ (RNA, protein)

[107]

CD40LG

−2.09

< 0.001

Apoptosis

Inflammatory breast cancer

↑ (RNA)

[108]

/

CELA3A

−2.04

< 0.001

Chol. Met.

Mucinous pancreatic cyst

↑ (protein) vs non mucinous

[109]

/

PRKAA2

−1.96

< 0.001

Chol. Met.

Ovary

↑ (RNA)

[110]

/

CYP2C19

−1.94

< 0.001

Drug Met.

Breast

↓ (protein)

[68]

/

Liver

↑ (RNA)

[111]

CYP11A1

−1.85

< 0.001

Chol. Met.

Prostate

↓ (RNA)

[112]

Associated to DNA hypermethylation in prostate cancer [112].

Endometrium

[113]

WNT5B

−1.83

< 0.001

Wnt

CLL

↑ (RNA)

[114, 115]

/

Uterine leiomyoma

[116]

FRZB

−1.73

< 0.01

Wnt

Liver

↓ (RNA)

[117]

Associated to DNA hypermethylation in hepatocellular carcinoma [117], medulloblastoma [118] and bladder cancer [119].

Melanoma

[120]

Medulloblastoma

[118]

Bladder

[119]

Gastric

[121]

Breast

[122]

WNT9A

−1.68

< 0.001

Wnt

CLL

↑ (RNA)

[114, 115]

/

STAB2

−1.68

< 0.001

Chol. Met.

Liver

↓ (protein)

[123]

/

  1. Abbreviations: Chol. Met. Lipoprotein signaling and cholesterol metabolism, Drug Met Drug metabolism, Wnt Wnt signaling, Cancer: Cancer pathway; CLL Chronic lymphocytic leukemia, AML Acute myeloid leukemia, CML Chronic myeloid leukemia