Literature DB >> 27508240

Data on affected cancer-related genes in pediatric t(12;21)-positive acute lymphoblastic leukemia patients harboring unbalanced der(6)t(X;6) translocations.

Eigil Kjeldsen1.   

Abstract

The t(12;21)(p13;q22), leading to ETV6/RUNX1 fusion, is of importance for leukemogenesis in acute lymphoblastic leukemia but is not sufficient for the leukemic transformation. Acquired secondary chromosomal aberrations are necessary for overt leukemia but their complete nature and genes involved are still elusive. In our recent publication, "Oligo-based aCGH analysis reveals cryptic unbalanced der(6)t(X;6) in pediatric t(12;21)-positive acute lymphoblastic leukemia", we identified acquired common concurrent regions with 6q deletion and Xq duplication E. Kjeldsen (2016) [1]. The present article provides data on genes that are associated with hematological malignancy and other cancers located in these common regions of chromosomal aberrations.

Entities:  

Keywords:  Acute lymphatic leukemiat(12;21)-positive; Cancer genomics

Year:  2016        PMID: 27508240      PMCID: PMC4961797          DOI: 10.1016/j.dib.2016.06.060

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications Table Value of the data Non-random concurrent Xq duplication and 6q deletion in pediatric t(12;21)-positive ALLs may point to important secondary aberrations for leukemogenesis. 16 out of 59 cancer-related genes located in the aberrant genomic regions were associated with hematological malignancy. The findings add to the spectrum of acquired secondary aberrations in t(12;21)-positive ALLs.

Data

A search at the repository Network of Cancer Genes (NCG5.0) [2] revealed 27 cancer-related genes in the common region of duplication Xq25-qter (genomic pos. 121,657,255-155,232,907) of which seven genes are described to be associated with hematological malignancy, including STAG2, SMARCA1, PHF6, MAGEC3, PASD1, DUSP9, and RPL10 (Table 1). A search for cancer-related genes in the common region of deletion on 6q16.1-qter (genomic pos. 95,958,513–171,025,515) revealed 32 genes of which nine genes are associated with hematological malignancy, including PRDM1, FYN, ROS1, EYA4, SGK1, TNFAIP3, CCDC28A, ECT2L, and ESR1 (Table 2). The tables also summarize current knowledge of the function(s) of the proteins encoded by the involved genes.
Table 1

Twenty-seven cancer related genes located in the common region of amplification in Xq25-qter, pos. 121,657,255–155,232,907.

GenesCytoBandCancer Type or siteaProtein functionRef.

GRIA3Xq25PancreasCellular processesSignal transduction[3]
STAG2Xq25MultipleBladderLeukemiaEwing sarcomaGlioblastomaCell cycle[4][5][6][7][8][9], [10]
DCAF12L2Xq25GlioblastomaNo functional information[11]
SMARCA1Xq25LymphomaCell cycleCellular metabolismDNA/RNA metabolism and transcriptionDevelopmentRegulation of intracellular processes and metabolismRegulation of transcription[12]
XPNPEP2Xq26.1LungCellular metabolism[13]
BCORL1Xq26.1GliomaIntracranialCellular metabolismDNA/RNA metabolism and transcriptionRegulation of intracellular processes and metabolismRegulation of transcription[14], [15]
ELF4Xq26.1MultipleCellular metabolismDNA/RNA metabolism and transcriptionImmune system responseRegulation of intracellular processes and metabolismRegulation of transcription[4]
FRMD7Xq26.2GlioblastomaNo functional information[11]
GPC3Xq26.2MultipleNo functional information[4]
PHF6Xq26.2MultipleLeukemiaCellular metabolismDNA/RNA metabolism and transcriptionRegulation of intracellular processes and metabolismRegulation of transcription[4][7][16]
SAGE1Xq26.3PancreasNo functional information[17]
GPR112Xq26.3Cholangio-carcinomaSignal transduction[18]
RBMXXq26.3EndometrialDNA/RNA metabolism and transcriptionRegulation of transcription[19]
ZIC3Xq26.3LiverCellular metabolismDNA/RNA metabolism and transcriptionDevelopmentRegulation of intracellular processes and metabolismRegulation of transcription[20]
MAGEC3Xq27.2LeukemiaLymphomaNo functional information[16][12]
MAGEC1Xq27.1MelanomaHead and neckNo functional information[21][22]
MAGEC2Xq27.2Head and neckNo functional information[22]
SPANXN2Xq27.3GastricNo functional information[23]
AFF2Xq28BreastDevelopment[19]
PASD1Xq28LymphomaSignal transduction[24]
MAGEA6Xq28PancreasNo functional information[25]
ATP2B3Xq28MultipleCellular processes[4]
DUSP9Xq28LymphomaCellular metabolismCellular processesRegulation of intracellular processes and metabolismSignal transduction[12]
RPL10Xq28MultipleLeukemiaCellular metabolismRegulation of transcription[4][16]
PLXNA3Xq28NeuroblastomaCell cycleCell motility and interactionsDevelopmentRegulation of intracellular processes and metabolismSignal transduction[26]
F8Xq28PancreasCell response to stimuliImmune system responseMulticellular activities[3]
MTCP1Xq28MultipleNo functional information[4]

Hematological malignancies are in bold.

Table 2

Thirty-two cancer related genes located in the common region of deletion on 6q16.1-qter, pos. 95,958,513–171,025,515.

GenesCytoBandCancer type or SiteaProtein functionRef.

MCHR26q16.2LungSignal transduction[27]
PRDM16q21LymphomaCellular metabolismDNA/RNA metabolism and transcriptionRegulation of intracellular processes and metabolismRegulation of transcription[12]
FOXO36q21MultipleCell CycleCellular metabolismDNA/RNA metabolism and transcriptionDevelopmentMulticellular activitiesRegulation of intracellular processes and metabolismRegulation of transcription[4]
FYN6q21LymphomaCell response to stimuliCellular metabolismCellular processesImmune system responseMulticellular activitiesSignal transduction[28]
LAMA46q21BladderIntracranialCell motility and interactionsDevelopment[5][14]
DSE6q22.1LiverCellular metabolism[29]
RFX66q22.1GlioblastomaCellular metabolismDNA/RNA metabolism and transcriptionRegulation of intracellular processes and metabolismRegulation of transcription[11]
ROS16q22.1MultipleLungLeukemiaCellular metabolismCellular processesSignal transduction[4], [27], [30]
GOPC6q22.1MultipleLungCellular metabolismCellular processesRegulation of intracellular processes and metabolism[4][31]
TBC1D326q22.31GlioblastomaRegulation of intracellular processes and metabolismSignal transduction[32]
PTPRK6q22.33MelanomaCellular metabolismCellular processes[21]
LAMA26q22.33Cholangio-carcinomaCell motilityDevelopment[33]
EYA46q23.2ColorectalLungLeukemiaCell response to stimuliCellular metabolismRegulation of intracellular processes and metabolismRegulation of transcription[34][35][36]
SGK16q23.2LymphomaEndometrialCell cycleCellular metabolismCellular processes[24][37][38]
MYB6q23.3MultipleGliomaCellular metabolismDNA/RNA metabolism and transcriptionRegulation of intracellular processes and metabolismRegulation of transcription[4][39]
BCLAF16q23.3LungCell cycleCellular metabolismDNA/RNA metabolism and transcriptionDevelopmentRegulation of intracellular processes and metabolismRegulation of transcription[40]
MAP76q23.3ColorectalCellular processesDevelopment[41]
MAP3K56q23.3MelanomaCell cycleCellular metabolismCellular processesDevelopmentRegulation of intracellular processes and metabolismSignal tranduction[42]
TNFAIP36q23.3LymphomaCell cycleDevelopmentRegulation of intracellular processes and metabolismSignal tranduction[12][43]
CCDC28A6q24.1LeukemiaNo functional information[44]
ECT2L6q24.1MultipleLeukemiaSignal transdcution[4][45]
GRM16q24.3LungChondronmyxoid fibromaMulticellular activitiesSignal transduction[27][46]
ESR16q25.1BreastEndometrialLeukemiaCell cycleCellular metabolismDNA/RNA metabolism and transcriptionDevelopmentRegulation of intracellular processes and metabolismRegulation of transcriptionSignal transduction[47][48]
SYNE16q25.1-q25.2BladderEsophagealNasopharyngealHead and neckCellular processesDevelopment[5][49][50][22]
ARID1B6q25.3NeuroblastomaBreastLungLiverCellular metabolismDNA/RNA metabolism and transcriptionRegulation of intracellular processes and metabolismRegulation of transcription[51][52][53][54][20]
EZR6q25.3MultipleCell motility and interactionsCellular processesDevelopmentRegulation of intracellular processes and metabolism[4]
IGF2R6q25.3PancreasGliomaCellular processesSignal transduction[55][56]
MAP3K46q26EndometrialCellular metabolismCellular processesRegulation of intracellular processes and metabolismSignal transduction[57]
QKI6q26GliomaCellular metabolismCellular processesDNA/RNA metabolism and transcriptionRegulation of intracellular processes and metabolismRegulation of transcription[39]
C6orf1186q27EsophagealNo functional information[49]
FGFR1OP6q27MultipleCell cycleRegulation of intracellular processes and metabolism[4]
MLLT46q27MultipleSignal transduction[4]

Hematological malignancies are in bold.

Experimental design, materials and methods

By oligobased aCGH analysis of three pediatric t(12;21)-positive ALLs we recently identified a common region of duplication on Xq (genomic pos. 121,657,255–155,232,907) and a common region of deletion on 6q (genomic pos. 95,958,513–171,025,515) [1]. This genomic information was used to search the web-based Network of Cancer Genes (NCG5.0) [2]. The resulting information of genes located in these common regions of aberrations were listed in the tables without filtering.
Subject areaBiology
More specific subject areaCancer genomics
Type of dataTables
How data was acquiredSearch was performed in the repository Network of Cancer Genes
Data formatAnalyzed
Experimental factorsBone marrow samples of t(12;21)-positive ALLs were analyzed by oligo-based array-comparative genomic hybridization, which identified a group of patients with der(6)t(X;6).
Experimental featuresA common region of duplication on Xq and a common region of deletion on 6q were determined in our recent publication and used for the repository search.
Data source locationAarhus, Denmark
Data accessibilityData is with this article
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