JMDplots vignettes

Prostate Cancer

This vignette from the R package JMDplots version 1.2.19-9 shows chemical metrics for proteins that are differentially expressed in prostate cancer compared to normal tissue. The analysis is described in more detail in a paper (Dick, 2021). Abbreviations:

datasets <- pdat_prostate(2020)

Differences are calculated as (median value for up-regulated proteins) - (median value for down-regulated proteins). Dashed lines enclose the 50% confidence region for highest probability density.

In the table, values of ΔZC and ΔnH2O are multiplied by 1000, values of ΔMW are multiplied by 100, and negative values are shown in bold. Abbreviations:

set reference (description) ndown nup ΔZC ΔnH2O ΔnAA ΔMW
a GTR+08 (PCa / BPH) 35 29 -32 4 -150 146
b KPB+10 (PCa / adjacent benign) 68 69 -17 6 -124 129
c HZH+12 (PCa / adjacent benign Protein) 22 37 -15 26 50 -231
d JHZ+13 (PCa / adjacent benign) 23 36 -22 30 72 -84
e LCS+14 (glycoproteins PCa / normal) 82 138 -8 9 -106 -6
f CZL+16 (protein expression bioinformatics) 74 157 -41 -10 -56 50
g IWT+16 (FFPE tumor / adjacent benign) 223 426 -27 36 222 116
h GLZ+18 (acinar PCa / matched BPH) 87 114 -33 30 -59 22
i GLZ+18 (ductal PCa / matched BPH) 347 303 -33 10 -63 19
j LAJ+18 (PC / BPH) 273 220 -35 22 110 86
k LAJ+18 (CRPC / BPH) 313 193 -25 24 7 19
l MAN+18 (PCa / BPH) 44 33 3 -28 36 -25
m KRN+19 (PCa G1 / BPH) 32 43 -24 28 67 -7
n KRN+19 (PCa G2 / BPH) 30 22 -39 10 212 226
o KRN+19 (PCa G3 / BPH) 43 24 -36 29 189 175
p KRN+19 (PCa G4 / BPH) 44 51 -19 20 57 113
q KRN+19 (PCa G5 / BPH) 22 24 -15 48 47 -35
r MMF+20 (FFPE PCa / adjacent benign GS=6) 40 136 -16 -35 -141 11
s MMF+20 (FFPE PCa / adjacent benign GS=6 and GS>=8) 37 143 -1 -1 18 -55
t TOT+19 (FFPE TMA PCa / normal) 36 86 -32 34 -226 28
u ZYW+19 (OCT LG PCa / adjacent normal) 143 54 -43 6 -141 116
v ZYW+19 (OCT HG PCa / adjacent normal) 215 94 -17 40 -208 31
w KHN+20 (PCa / control) 227 125 -19 40 47 -85
x LDM+20 (PCa / BPH) 73 72 -20 45 2 -55
y SHC+20 (FFPE PCa / BPH) 58 308 -34 36 -246 52
z ZKL+20 (mouse Pten-KO / WT) 48 55 2 44 49 -32
A ZZX+20 (tumor / normal CiRT) 104 1451 -23 14 -241 90

Data Sources

Gene names or other identifiers were converted to UniProt accession numbers using the UniProt mapping tool.

a. Table 2 of Garbis et al. (2008). b. Supplementary Tables 3 and 4 of Khan et al. (2010). c. Table S2 of Han et al. (2012). d. Table S1 of Jiang et al. (2013). e. Supplemental Table S7 of Liu et al. (2014). f. Supplementary Table 1 Chen et al. (2016) (proteins recorded with only Down-regulation or Up-regulation). g. Supplementary Table S3 of Iglesias-Gato et al. (2016), filtered to include proteins listed with FDR < 0.1. h. i. Extracted from Table S4 Guo et al. (2018). Values were quantile normalized, then ratios were calculated between the median values for each cancer type (acinar and ductal) and corresponding normal tissue; ratios > 1.5 or < 2/3 were used to identify differentially expressed proteins. j. k. Extracted from Supplementary Data 1 of Latonen et al. (2018) (sheet “Area-proteins”) by applying quantile normalization to peak areas then calculating median values across all runs and samples for each of BPH , PC (primary prostate cancer), and CRPC (castration resistant prostate cancer). A cutoff of 2-fold in ratios of medians (PC / BPH or CRPC / BPH) was used to identify differentially expressed proteins. l. Table 2 of Martiny et al. (2018). m. n. o. p. q. Supporting Information Table S3 of Kawahara et al. (2019) (G1–G5: PCa grades). r. s. Tables S4d (GS = 6) and S4f (GS ≥ 8 or GS = 6) of Mantsiou et al. (2020) (GS: Gleason Score). t. Supplementary Table S3a of Turiák et al. (2019). u. v. Table S5 of Zhou et al. (2019) (LG: low-grade PCa; HG: high-grade PCa). w. Supplemental Table S2 of Kwon et al. (2020), filtered to include proteins with log2 fold change > 1 or < -1 in at least one experiment. x. Table S2 of Latosinska et al. (2020). y. Table S2, Sheet D:S3-SWATH_protein_matrix of Sun et al. (2020), filtered to include proteins quantified in at least 50% of both tumor and normal samples and with median fold change > 2 or < 0.5. z. Table S4 of Zhang et al. (2020) (Pten gene knockout vs wild-type). A. Supplementary Tables S3E–S3F of Zhu et al. (2020).

References

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