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MetabolomicsMetabolic responses induced by DNA damage and poly (ADP-ribose) polymerase (PARP) inhibition in MCF-7 cells
Genomic instability is one of the hallmarks of cancer. Several chemotherapeutic drugs and radiotherapy induce DNA damage to prevent cancer cell replication. Cells in turn activate different DNA damage response (DDR) pathways to either repair the damage or induce cell death. These DDR pathways also e...
2015-08-01 | MTBLS177 | MetaboLights
MetabolomicsA metabolic map of the DNA damage response identifies PRDX1 in nuclear ROS scavenging and aspartate synthesis
Not available
ORGANISM(S): Homo sapiens 
ST002234 | MetabolomicsWorkbench
MetabolomicsWe characterize the anti-phage function of a type IV TA system, ShosTA toxin-antitoxin system provides phage defense via DNA damage and repair
Widespread in bacteria and archaea, Toxin-antitoxin (TA) systems have been recently demonstrated to function in phage defense. Here we characterize the anti-phage function of a type IV TA system, ShosTA. Using structural and biochemical approaches, we show that ShosT couples phosphoribosyltransferas...
2025-02-17 | MTBLS11212 | MetaboLights
OtherComparative phosphoproteomic analysis of checkpoint recovery identifies new regulators of the DNA damage response.
Data from ProteomeXchange, PXD ID: PXD000222. Experiment: 080918_PLKinh4, data file: 080918_PLKinh4_F28.mzXML. Data published as part of Sci Signal. 2013 Apr 23;6(272):rs9 . From th Abstract: {{i}} We performed large-scale quantitative phosphoproteomics to identify changes in protein phosphorylatio...
ORGANISM(S): Human, Human_adenovirus_54, Human_adenovirus_a, Human_adenovirus_b, Human_adenovirus_c, Human_adenovirus_d, Human_adenovirus_e, Human_adenovirus_f, Human_adenovirus_g, Human_astrovirus, Human_bocavirus, Human_bocavirus_2, Human_bocavirus_3, Human_bocavirus_4, Human_coronavirus_229e, Human_coronavirus_hku1, Human_coronavirus_nl63, Human_coronavirus_oc43, Human_cosavirus_a, Human_cosavirus_b, Human_cosavirus_d, Human_cosavirus_e, Human_enteric_coronavirus_4408, Human_enterovirus_100, Human_enterovirus_a, Human_enterovirus_b, Human_enterovirus_c, Human_enterovirus_d, Human_erythrovirus_v9, Human_herpesvirus_1, Human_herpesvirus_2, Human_herpesvirus_3, Human_herpesvirus_4_type_1, Human_herpesvirus_4_type_2, Human_herpesvirus_5, Human_herpesvirus_6a, Human_herpesvirus_6b, Human_herpesvirus_7, Human_herpesvirus_8_type_p, Human_immunodeficiency_virus_1, Human_immunodeficiency_virus_2, Human_metapneumovirus, Human_papillomavirus_fa75_ki88_03, Human_papillomavirus_rtrx7, Human_papillomavirus_type_10, Human_papillomavirus_type_100, Human_papillomavirus_type_101, Human_papillomavirus_type_103, Human_papillomavirus_type_104, Human_papillomavirus_type_105, Human_papillomavirus_type_108, Human_papillomavirus_type_109, Human_papillomavirus_type_112, Human_papillomavirus_type_113, Human_papillomavirus_type_16, Human_papillomavirus_type_24, Human_papillomavirus_type_26, Human_papillomavirus_type_32, Human_papillomavirus_type_34, Human_papillomavirus_type_4, Human_papillomavirus_type_41, Human_papillomavirus_type_48, Human_papillomavirus_type_49, Human_papillomavirus_type_5, Human_papillomavirus_type_50, Human_papillomavirus_type_53, Human_papillomavirus_type_60, Human_papillomavirus_type_63, Human_papillomavirus_type_6b, Human_papillomavirus_type_7, Human_papillomavirus_type_71, Human_papillomavirus_type_88, Human_papillomavirus_type_9, Human_papillomavirus_type_92, Human_papillomavirus_type_96, Human_papillomavirus_type_98, Human_papillomavirus_type_99, Human_papillomavirus___1, Human_papillomavirus___18, Human_papillomavirus___2, Human_papillomavirus___54, Human_papillomavirus___61, Human_papillomavirus___cand90, Human_parainfluenza_virus_1, Human_parainfluenza_virus_2, Human_parainfluenza_virus_3, Human_parechovirus, Human_parvovirus_4, Human_parvovirus_b19, Human_picobirnavirus, Human_respiratory_syncytial_virus, Human_rhinovirus_a, Human_rhinovirus_b, Human_rhinovirus_c, Human_tmev_like_cardiovirus, Human_t_lymphotropic_virus_1, Human_t_lymphotropic_virus_2, Human_t_lymphotropic_virus_4 
GPM11210016883 | GPMDB
Resource Reanalysis 
ProteomicsSkin cancer-associated S. aureus downregulates DNA repair mechanisms, and promotes oxidative stress and DNA damage in human keratinocytes
Actinic keratoses (AK) are premalignant lesions common on photo-damaged skin that, over time, can progress to squamous cell carcinoma (SCC). A high bacterial load of Staphylococcus aureus is associated with AK and SCC but it is unknown whether this has a direct impact on skin cancer development. To ...
ORGANISM(S): Staphylococcus Capitis Staphylococcus Aureus Staphylococcus Epidermidis Staphylococcus 
2022-05-17 | PXD031676 | panorama
OtherSUMOylation and PARylation cooperate to recruit and stabilize SLX4 at DNA damage sites.
Data from ProteomeXchange, PXD ID: PXD001681. File: RGP-HA-mSLX4-coIP-Control-1b.mzml. Published as part of EMBO Rep. 2015 Feb 26 . From the Abstract: {{i}} ... We report that the SLX4 nuclease scaffold protein is regulated by SUMOylation. We have identified three SUMO interaction motifs (SIMs) in ...
ORGANISM(S): Homo_sapiens_viruses, Human_female 
GPM32310007055 | GPMDB
Resource Reanalysis 
TranscriptomicsDNA damage signaling gene array on SMA mouse skeletal muscle
A commercially available gene array (SABiosciences array PAMM-029ZD-12) was used to assay gene expression in skeletal muscle of SMA mice and control littermates. The Taiwanese severe SMA mouse model was used (Hsieh-Li et al. 2000). The array included 84 genes associated with DNA damage detection, DN...
ORGANISM(S): Mus musculus 
2014-03-03 | E-GEOD-55481 | biostudies-arrayexpress
ModelsIwamoto2010 - Cell cycle reponse to DNA damage
After DNA damage, cells activate p53, a tumor suppressor gene, and select a cell fate (e.g., DNA repair, cell cycle arrest, or apoptosis). Recently, a p53 oscillatory behavior was observed following DNA damage. However, the relationship between this p53 oscillation and cell-fate selection is unclear...
2024-09-02 | BIOMD0000000939 | BioModels
ModelsAguda1999 - G2 DNA damage checkpoint
Baltazar D. Aguda. A quantitative analysis of the kinetics of the G(2) DNA damage checkpoint system. Proceedings of the National Academy of Sciences 96, 20 (1999). A detailed model of the G(2) DNA damage checkpoint (G2DDC) system is presented that includes complex regulatory networks of the mitotic...
2024-09-02 | BIOMD0000000704 | BioModels
TranscriptomicsSynthetic circuit identifies subpopulations with sustained memory of DNA damage
Differential responses to stimuli can affect how cells succumb to disease. In yeast, DNA damage can create heterogeneous responses. To delineate how a response contributes to a cell's future behavior, we constructed a transcription-based memory circuit that detects DNA repair to isolate subpopulatio...
ORGANISM(S): Saccharomyces cerevisiae 
2012-03-02 | E-GEOD-36210 | biostudies-arrayexpress
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