Integrated use of bioinformatic resources reveals that co-targeting of histone deacetylases, IKBK and SRC inhibits epithelial-mesenchymal transition in cancer

Abstract With the advent of high-throughput technologies leading to big data generation, increasing number of gene signatures are being published to predict various features of diseases such as prognosis and patient survival. However, to use these signatures for identifying therapeutic targets, use...

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Veröffentlicht in:Briefings in bioinformatics 2019-03, Vol.20 (2), p.717-731
Hauptverfasser: Barneh, Farnaz, Mirzaie, Mehdi, Nickchi, Payman, Tan, Tuan Zea, Thiery, Jean Paul, Piran, Mehran, Salimi, Mona, Goshadrou, Fatemeh, Aref, Amir R, Jafari, Mohieddin
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container_issue 2
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container_title Briefings in bioinformatics
container_volume 20
creator Barneh, Farnaz
Mirzaie, Mehdi
Nickchi, Payman
Tan, Tuan Zea
Thiery, Jean Paul
Piran, Mehran
Salimi, Mona
Goshadrou, Fatemeh
Aref, Amir R
Jafari, Mohieddin
description Abstract With the advent of high-throughput technologies leading to big data generation, increasing number of gene signatures are being published to predict various features of diseases such as prognosis and patient survival. However, to use these signatures for identifying therapeutic targets, use of additional bioinformatic tools is indispensible part of research. Here, we have generated a pipeline comprised of nearly 15 bioinformatic tools and enrichment statistical methods to propose and validate a drug combination strategy from already approved drugs and present our approach using published pan-cancer epithelial–mesenchymal transition (EMT) signatures as a case study. We observed that histone deacetylases were critical targets to tune expression of multiple epithelial versus mesenchymal genes. Moreover, SRC and IKBK were the principal intracellular kinases regulating multiple signaling pathways. To confirm the anti-EMT efficacy of the proposed target combination in silico, we validated expression of targets in mesenchymal versus epithelial subtypes of ovarian cancer. Additionally, we inhibited the pinpointed proteins in vitro using an invasive lung cancer cell line. We found that whereas low-dose mono-therapy failed to limit cell dispersion from collagen spheroids in a microfluidic device as a metric of EMT, the combination fully inhibited dissociation and invasion of cancer cells toward cocultured endothelial cells. Given the approval status and safety profiles of the suggested drugs, the proposed combination set can be considered in clinical trials.
doi_str_mv 10.1093/bib/bby030
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However, to use these signatures for identifying therapeutic targets, use of additional bioinformatic tools is indispensible part of research. Here, we have generated a pipeline comprised of nearly 15 bioinformatic tools and enrichment statistical methods to propose and validate a drug combination strategy from already approved drugs and present our approach using published pan-cancer epithelial–mesenchymal transition (EMT) signatures as a case study. We observed that histone deacetylases were critical targets to tune expression of multiple epithelial versus mesenchymal genes. Moreover, SRC and IKBK were the principal intracellular kinases regulating multiple signaling pathways. To confirm the anti-EMT efficacy of the proposed target combination in silico, we validated expression of targets in mesenchymal versus epithelial subtypes of ovarian cancer. Additionally, we inhibited the pinpointed proteins in vitro using an invasive lung cancer cell line. We found that whereas low-dose mono-therapy failed to limit cell dispersion from collagen spheroids in a microfluidic device as a metric of EMT, the combination fully inhibited dissociation and invasion of cancer cells toward cocultured endothelial cells. 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We found that whereas low-dose mono-therapy failed to limit cell dispersion from collagen spheroids in a microfluidic device as a metric of EMT, the combination fully inhibited dissociation and invasion of cancer cells toward cocultured endothelial cells. 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subjects Cell Adhesion - drug effects
Cell Adhesion - genetics
Cell Line, Tumor
Computational Biology
Condensed Matter
Epithelial-Mesenchymal Transition
Gene Expression Regulation, Neoplastic
Histone Deacetylases - metabolism
Humans
I-kappa B Kinase - metabolism
Neoplasms - genetics
Neoplasms - metabolism
Neoplasms - pathology
Physics
Soft Condensed Matter
src-Family Kinases - metabolism
title Integrated use of bioinformatic resources reveals that co-targeting of histone deacetylases, IKBK and SRC inhibits epithelial-mesenchymal transition in cancer
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