Abstract
Genomic instability and heterogeneity are the key features of cancer cells that allow their survival under environmental stress. A rapid accumulation of a large number of mutations in a single event due to a massive rearrangement of fragmented chromosomes termed chromothripsis favors cancer progression and resistance to therapy. Complex chromosomal rearrangements that occur upon chromothripsis arise from a random ligation of multiple chromosome fragments by an error-prone NHEJ DNA repair. Here we studied the activation of DDR and NHEJ as markers of genomic instability in HindIIIG-1 cells obtained after depolyploidization of irradiated HindIIIG cells resistant to apoptosis. We also analyzed the potential involvement of chromothripsis-like mechanism and autophagy in the establishment of HindIIIG-1 cell line. Our results demonstrate that HindIIIG cells are characterized by high genomic instability, activation of DDR and NHEJ. Chromosome fragmentation and activation of NHEJ in irradiated HindIIIG and non-treated HindIIIG-1 cells suggest the implication of chromothripsis-like mechanism in the establishment of HindIIIG-1 cell line. We show that unlike HindIIIG cells, HindIIIG-1 cells acquired invasion ability and adhesion-independent cell growth that may indicate their metastatic potential. Degradation of damaged DNA, nuclei and micronuclei in HindIIIG-1 cells by autophagy suggests its role in cell death and survival and thereby in establishment of novel cell line.
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The work was supported by budgetary funding of Institute of Cytology, Russian Academy of Sciences.
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Chitikova, Z.V., Yartseva, N.M., Bykova, T.V. et al. Establishment of HindIIIG-1 Cell Line, Obtained after Irradiation of HindIIIG Cells Resistant to Apoptosis, Characterizes by Genomic Instability, Altered DNA Repair Mechanisms and Activation of Autophagy. Cell Tiss. Biol. 15, 370–380 (2021). https://doi.org/10.1134/S1990519X2104009X
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DOI: https://doi.org/10.1134/S1990519X2104009X